Mineral resources of the United States

Plate I. Polished specimen of copper ore from the Rambler mine, Wyoming. . 248 Statictics of the American Iron Trade for 1902, by James M. Swank...

Overview

Mineral resources of the United States is an 1882 historical mining reference, preserved in the Mountain Man Mining research library, focused on economic geology mineral.

This 1882 document, Mineral resources of the United States, is preserved in the Mountain Man Mining Library for research and reference. Original source: archive.org.

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Department Of The Interior

UNITED STATES GEOLOGICAL SURVEY CHARLES D. WALCOTT, DiBECTOB

Mineral Resources

Of The

United States

Calendar Year 1 9 O 2

David T. Day

Chip of Division op Mining and MiNERAiy Risouiicn

Washington

)i§e4 ' ' jigitized by

Contents.

Letter of Transmittal 7

Introduction 9

Summary 11

Iron Ores, by John Birkinbine 41

Production 41

Lake Superior region 45

Iron-ore industry of the various States during 1902 56

Cuba 72

Statictics of the American Iron Trade for 1902, by James M. Swank... 75

Brief review of the iron trade in 1902 75

Imports of iron and steel 75

Exports of iron and steel 76

Production of pig iron 85

Production of pig iron in Canada 97

General Statistics of Iron and Steel, Iron Ore, and Coal to the Year 1901, Inclusive, for Five Leading Iron and Steel Producing

Countries, by James M. Swank 101

Gold and Silver, by George E. Roberts 123

Manganese Ores, by John Birkinbine 133

Copper, by Charles Kirchhoff 163

General trade conditions 163

Production 163

Imports 182

Lead, by Charles Kirchhoff 205

Introduction 205

Production 205

Zinc, by Charles Kirchhoff 217

Production 217

Consumption 218

The zinc mines 219

Aluminum and Bauxite, by Joseph Struthers 231

Aluminum 231

Bauxite 235

Platinum 239

Production, by Joseph Struthers 239

Platinum in the Rambler mine, Wyoming, by J. F. Kemp 244

Quicksilver, by Joseph Struthers 251

Production 251

Prices 255

Lithium, by Joseph Hyde Pratt 259

Nickel and Cobalt, by Joseph Hyde Pratt 263

Antimony, by Joseph Struthers 271

4 Contents.

Page.

Bismuth, by Joseph Struthbbs 283

Tungsten, Molybdenum, Uranium, and Vanadium, by Joseph Hyde Pratt.. 286

Coal, by Edward W. Parker 289

Introduction 1 289

fields of the United States 291

Production 295

Prices 323

Coal production of Mexico 333

World* s production of coal 337

Production by States 346

Coke, by Edward W. Parker 449

Introduction 449

Production 450

Gas, Coke, Tar, and Ammonia at Gas Works, and in Retort Coke Ovens,

BY Edward AV. Parker 517

Petroleum, by F. H. Oliphant 535

Important features of the year 635

Foreign countries 684

World's production of petroleum in 1901 and 1902, by countries 628

Natural Gas, by F. H. Oliphant 631

Introduction 631

Canada 654

Natural gas in England 656

Asphaltum and Bituminous Bock, by Joseph Struthers 657

Stone 665

Clay- Working Industries, by Jefferson Middleton 703

Introduction 1 703

Production 706

Brick and tile 718

Pottery 733

Clay 746

Effect of tannin on clay, by Heinrich Ries 775

Cement 777

Cement in foreign countries 777

Review of cement industry in United States, by L. L. Kimball 789

Precious Stones, by George F. Kunz 813

Talc and Soapstone, by Joseph Hyde Pratf 867

Abrasive Materials, by Joseph Hyde Pratt 873

Oilstones, whetstones, etc 874

Grindstones 876

Buhrstones and millstones 878

Pumice 880

Infusorial earth and tripoli 881

Crytalline quartz 883

Garnet 884

Corundum and emery 885

Artificial abrasives 888

Borax, by Joseph Struthers 891

Bromine, by Joseph Struthers 897

Fluorspar and Cryolite, by Joseph Hyde Pratt 899

Gypsum, by George I. Adams 903

Phosphate Rock, by Joseph Struthers 915

Salt, by Josbfh Steuthbps j-gifizerfB/GoOglc*!

Contents. 5

Page.

Sulphur and Pyritb, by Joseph Struthers 933

Barytes, by JofiEPH Hyde Pratt 946

Mineral Paint, by Joseph Struthers 949

Ocher, nmber, and sienna 951

Metallic paint 955

Venetian red 956

Slate ground for pigment 957

White lead, red lead, litharge, and orange mineral 958

Zinc white 961

Zinc lead 962

Sublimed lead 962

AflBEBToe, BY Joseph Hyde Pratt 963

Chromfte, or Chromic Iron Orb, by Joseph Hyde Pratt 967

Flint and Feldspar, by Heinrich Ries 971

Graphite, by Joseph Struthbrs 975

Maonebite, by Joseph Struthers 983

Mica, by J. A. Holmes 985

Mineral Waters 993

MoNAZiTE, by Joseph Hyde Pratt 1003

Glass Sand, by A. T. Coons 1007

Illustrations.

Page.

Plate I. Polished specimen of copper ore from the Rambler mine, Wyoming. . 248

II. Largest piece of carbon ever found 820

III. Process of breaking the third largest piece of carbon ever found 822

IV. The carbon shown in PL III as finally broken into pieces for drills. . 822 V. Diamond sawing 862

Fig. 1. Diagram showing relation of domestic production of Portland cement to imports and to total (consumption of Portland cement in the United

States from 1890 to 1902, inclusive 781

Letter Of Transmittal.

Department of the Interior, United States Geological Survey, Division of Mining and Mineral Resources,

Washington, D. (7., Fdynmry 18 1901. Sir: I have the honor to transmit herewith the report Mineral Resources of the United States, Calendar Year 1902, being the nineteenth annual report of the series published by this oflBce. Besides the statistics for the calendar year 1902, considerable descriptive and technical matter, obtained while the statistical canvass was in progress, is presented. Ail of this material has been given such prompt publication as was possible as advance extras from the report, in accordance with the law providing for the printing of any chapter as soon as completed.

In accordance with your instructions, the report for the calendar year 1903 is in preparation.

Very respectfully, your obedient servant,

David T. Day,

Oeologist in Charge. Hon. Charles D. Walcott,

Director of United States Oeological Survey.

Mineral Resources Of The Iited States, 1902.

David T. Day, Chief of Division.

Introduction.

The arrangement and scope of this volume are practically the name as in the eighteen preceding reports of the series Mineral Resources of the United States. Each report records the development of the mineral industries of the United States since the time covered by the preceding number of the series; the reports should therefore be consulted together. Every chapter in this report is a census of the productive features of the industry under discussion. The statistics of the production of gold and silver have been prepared in conjunction with the Director of the Mint, Treasury Department. The statistics of the imports and exports of minerals, which form an essential part of the volume, are obtained through the courtesy of the Chief of the Bureau of Statistics, Department of Commerce and Labor. At the request of the Director of the Census, the schedules of inquiry of the Twelfth Census in regard to mining were inclosed with the statistical cards annually sent out by this office. The returns were transmitted through the Geological Survey to the Census Office, thus affording both offices the benefit of cooperation.

Except as noted above, and in a few isolated instances where some other well-established agency already exists by which the statistics are collected accurately, the figures are obtained directly from the producers, and it is impossible to acknowledge here, otherwise than by brief mention, the invaluable assistance which has been freely rendered by them and the voluntary contributions of many local experts. The names of the statistical experts who, acting under the authority of the United States, have collected statistics from the producers are given at the heads of the special chapters. The technical press, besides affording much information concerning new mining enterprises, has been largely drawn upon for prices, market reports, and new technical processes.

As heretofore, the publication of this volume has been anticipated to a great extent by the issue in advance, in pamphlet form, of the several chapters which compose it. Before the publication of this volume all of the chapters, except the one treating of gold and silver, will have been so given to the public.

The summary gives the principal statistical information recorded in this report.

In presenting these statistics all unnecessary duplication has been avoided. The coke product, discussed in the following pages and amounting to 25,401,730 short tons, valued at $63,339,167, is excluded from the tabular statement, as the quantity and value of the coal used in its manufacture is included in the statistics of coal production. Similarly, white lead, red lead, and litharge, whose average aggregate value for the last ten years has exceeded $10,000,000, are not given in the table, the base from which they are made being included in the output of pig lead. Zinc oxide, or zinc white, made directly from the ores and consequently not included in spelter production, is tabulated. The production of pig iron and its value are given in the table as the best means of presenting the statistics of the production of iron in the first marketable condition. The value of brick and pottery clays, rather than the value of the manufactured products, is embraced in the tabular statement, although the statistics of brick, tile, and pottery production are presented in detail in the report. Inflation of valuation and all unnecessary duplication are thus avoided.

Summary Of The Mineral Production Of The United States In 1902.

GEXERAIi REMARKS.

The varied character of the units of measurement employed in the mineral industry makes it impossible to compare the outputs of the several minerals except in the value of the products. The figures given in the following summary show a continuation of the remarkable activity in the mineral industries of the United States noted in 1900 and 1901.

In 1902, for the third time, the total value of the commercial mineral production of the United States exceeded the enormous sum of $1,000,000,000. The exact figures for 1902 were $1,260,639,415 as compared with $1,086,584,851 in 1901, with $1,063,678,053 in 1900, and with $972,208,008 in 1899, a gain of 1902 over 1901 of $174,064,414, or 16.02 per cent; a gain of 1902 over 1900 of $196,961,362, or 18.52 per cent; and a gain of 1902 over 1899 of $288,431,407, or 29. 67 per cent. Although this gain is not so great either actually or proportionally as was the gain in 1899, when the gain over 1898 was $273,601,810, or 39.17 per cent, it is sufficient to be worthy of note.

The notable gains and losses of the last two decades are as follows:

The largest actual gain was that of 1899 over 1898, $273,601,810, or 39.17 per cent; next, that of 1902 over 1901, $174,053,760, or 16.02 per cent; then the gain of 1895 over 1894, which was $94,215,822, or 17.88 per cent; then that of 1900 over 1899, $91,468,340, or 9.41 per cent; and the gain of 1887 over 1886, $74,927,880, or 16.81 per cent. In other years than those mentioned between 1880 and 1898 the gains were not noteworthy, and in some of the years, notably in 1884, the production decreased $40,451,968, or nearly 9 per cent. During tlie industrial depression of 1892-1895 the production would have been expected to decline, as it did, going from $648,895,031 in 1892 to $574,464,724 in 1893, and to $527,079,225 in 1894, and then rising to $621,295,047 in 1895, and not reaching the output of 1892 until 1898.

As heretofore, iron and coal are the most important of our mineral products. The value of the iron in 1902 was $372,775,000; the value of coal, $367,032,069. Nearly all the important metals increased in both output and value; and among the less important metals platinum, as compared with 1901, lost in both quantity and value even more

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than it gained in 1901 as compared with the production in 1902 being 94 ounces, valued at $1,814, as compared with 1,408 ounces, valued at $27,526, in 1901, with 400 ounces in 1900, and with 300 ounces in 1899. The fuels increased from $442,410,904 in 1901 to $469,078,647 in 1902, a gain of $26,667,743, or 6 per cent. Every variety of fuel increased in value except anthracite coal, which showed a decrease in quantity of 23,301,850 long tons and in value of $36,330,434. The average price of anthracite coal per long ton at the mine was $2.35, as against $2.05 in 1901 — the highest figure then obtained since 1888 — as compared with $1.85 in 1900, and with $1.80 in 1899; and the average price per ton for bituminous coal at the mine was $1,125, as compared with $1,047 in 1901. The increase in value of the bituminous coal output over 1901 was $54,436,434.

The gain of $174,064,414 in the total value of our mineral production is due to the increase in both metallic and nonmetallic products, the metallic products showing an increase from $518,266,259 in 1901 to $642,258,584 in 1902, again of $123,992,325, and the nonmetallic products showing an increase from $567,318,592 in 1901 to $617,380,831 in 1902, a gain of $50,072,089. To these products should be added estimated unspecified products, including building, molding, and other sands reported to this oflBce, the rare mineral mol3bdenum, and other mineral products, valued at $1,000,000, making the total mineral production for 1902 $1,260,639,415.

The manufacture of arsenious oxide, noted for the first time in the United States in the report for 1901, was continued in increased proportions in 1902.

Iron and steel. — Twenty -two States made pig iron in 1902, as against 21 in 1899 and 1900, and 20 in 1901. The total production of pig iron in 1902 was 17,821,307 long tons, against 15,878,354 tons in 1901, 13,789,242 Xjon in 1900, 13,620,703 tons in 1899, 11,773,934 tons in 1898, and 9,652,680 tons in 1897. The production of 1902 shows an increase of 1,942,953 long tons, or 12.2 per cent, in quantity over the production of 1901, and in increase in value from $242,174,000 to $372,775,000, amounting to $130,601,000, or about 54 per cent. The average price per long ton of pig iron increased from $15.25 in 1901 to $20.90 in 1902. The average prices per long ton in recent years have been as follows: 1900, $18.85; 1899, $18; 1897, $9.85; 1896, $10.47; 1895, $11.14; 1894, $9.76.

Iron ores. — The production of iron ores in 1902 amounted to 35,554,135 long tons, as compared with 28,887,479 long tons in 1901, a gain of 6,666,656 long tons, or 23 per cent. The value at the mines of the ore mined in 1902 was $65,412,950. As in the four preceding years, the production of iron ores in 1902 in the United States has

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Summary. 13

never been equaled by any other country. There were mined also in 1902, 13,275 long tons of manganiferous iron ore, valued at $52,371, which were used in the production of spiegeleisen.

Gold. — The production of gold in 1902, as reported by the Bureau of the Mint, was 3,870,000 fine ounces, valued at $80,000,000.

Sil/oer. — The production of silver in 1902, as repoi-ted by the B.ureau of the Mint, was 55,500,000 fine ounces; coining value, $71,757,575; commercial value, $29,415,000.

Manganese ores. — The production of manganese ores increased from 11,995 long tons, valued at $116,722, in 1901, to 16,477 long tons, valued at $177,911, in 1902, an increase in quantity of 4,472 tons and in value of $61,189. The average price per ton was $10.74 in 1902, as compared with $9.73 in 1901 and with $8.52 in 1900.

Chppei\ — The copper-mining industry suffered during 1902 from the reaction which followed the unsuccessful attempt in 1901 to maintain the metal at an artificial level. The production, however, increased from 602,072,519 pounds in 1901 to 659,508,644 pounds in 1902, an increase of 57,436,125 pounds, or about 9 per cent, in quantity, but decreased in value from $87,300,575 in 1901 to $76,568,954 in 1902, a decrease of $10,731,561, or about 12 per cent. Unless unforeseen events cause widespread or long stoppage at the mines, the production of copper in the United States will be considerably larger in 1903 than it has ever been.

Lead, — The production of lead has been almost exactly the same for the last three years, viz, 270,000 short tons in 1902, 270,700 short tons in 1901, and 270,824 short tons in 1900. The value of the production in 1902 was $22,140,000, as compared with $23,280,200 in 1901, and with $23,564,638 in 1900.

Zinc. — The production of zinc in 1902 showed a continued increase in quantity as compared with 1901 and 1900, the production teing 156,927 short tons in 1902, as compared with 140,822 short tons in 1901 and with 123,886 short tons in 1900. The value of the zinc production in 1902 was $14,625,596, as compared with $11,265,760 in 1901, and with $10,654,196 in 1900.

Aluminum. — The production of aluminum during 1902 was 7,300,000 pounds, valued at $2,284,590, as compared with 7,150,000 pounds, valued at $2,238,000 in 1901, and with 7,150,000 pounds, valued at $1,920,000 in 1900.

Platinum. — The production of platinum from domestic ores in the United States during 1902 was 94 ounces, valued at $1,814, as compared with 1,408 ounces, valued at $27,526 in 1901.

Quicksilver. — The production of quicksilver during 1902 amounted to 34,291 flasks of 76 pounds net, as compared with 29,727 flasks in 1901 and with 28.317 flasks in 1900. The value of the quicksilver produced in 1902 was $1,467,848, as compared with %l,SS2,S0miim

and with $1,302,586 in 1900. California reported 28,972 flasks in 1902, as compared with 26,720 flasks in 1901; and Texas reported 5,319 flasks in 1902, as against 2,932 flasks in 1901. In addition, the census reports 10,427 tons of cinnabar or crude, valued at $67,242, mined in California, and 1,300 tons of cinnabar, valued at $1,500, mined in Texas in 1902, but not roasted or treated, a total of 11,727 short tons of cinnabar, valued at $82,242. The total production of both quicksilver and cinnabar in 1902 was therefore valued at $1,650,090.

Lithium. — The production of lithium minerals in 1902 was 1,245 short tons, valued at $25,750 at the railroad, a decrease of 505 tons in amount and 'of $17,450 in value as compared with the production of

1901, which was 1,750 tons, valued at $43,200. As far as can be ascertained the greater part of the lithium minerals mined during 1902 was not shipped. Although the price of these minerals was lower in 1902 than in 1901 for the same grade of mineral, there was apparently no increase in the home demand. There is, however, an increase in the demand for these minerals from foreign chemical manufacturers.

Nickd. — The production of metallic nickel in 1902 was 5,748 pounds, valued at $2,701, as compared with 6,700 pounds, valued at $3,551 in

Antimony, — No antimony was obtained from domestic ores during

1902. The antimony obtained from the smelting of foreign imported ores amounted to 657 short tons, valued at $129,126, and the antilnony obtained from hard lead produced from foreign and domestic lead ores was 2,904 short tons, valued at $505,240, a total production for 19(>2 of 3,561 short tons, valued at $634,506, as compared with 2,639 short tons, valued at $539,902, in 1901. The estimated total amount of antimony available for consumption in 1902 was 6,255 short tons, including 2,694 short tons of imported antimony regulus, as compared with 4,475 short tons, including 1,837 short tons of imported antimony regulus in 1901, and with 6,053 short tons, including 1,827 short tons of imported antimony regulus in 1900.

Bismuth. — No bismuth ores were produced in the United States during 1902. The marketed output in 1901 was 318.6 short tons. The ore contained gold and silver, for which the producers were paid. As nearly as can be ascertained, the value of the output in 1901 was $80 per ton, not including charges for transportation or treatment.

Molybdenum. — The production of molybdenum in 1902 was approximately the same as that of 1901, but none of the product was shipped in 1902. The value of these molybdenum ores is very erratic, the highest price hithei-to quoted being $1,500 per ton, and the lowest, $100.

Tunq8tm.—T)[e, production of tungsten during 1902 was 184 short tons of crude ore, of which not more than a few tons were sold. This does not represent the amount of tungsten ore sold in for 76ng

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8Ummaby. 15

of concentrated ore, rained in 1901, were sold in 1902. In 1901 the production amounted to 179 tons of concentrated ore, valued at $27,720. The larger part of the production of 1902 was from Colorado.

Uranium vanadvum* — There was a marked increase in the production of uranium and vanadium minerals in 1902, which, as reported to the Survey, amounted to 3,810 short tons, valued at $48,125, or $12.62 per ton. This, of course, represents the crude ore. In 1901 the production was 375 tons of crude ore.

— For the first time in the history of the United States the production of coal reached a total of over 300,000,000 short tons, showing an actual output of 301,590,439 tons of 2,000 pounds, valued at $367,032,069. Of this total the output of anthracite coal amounted to 36,940,710 long tons (equivalent to 41,373,595 short tons), which, as compared with the production of 60,242,560 long tons in 1901, was a decrease of 23,301,850 long tons, or about 39 per cent. This decrease, as is well known, was due entirely to the suspension of operations by the strike in the anthracite region from May 10 to October 23, a little over five months. But for the strike the output for the year would probably have been over 65,000,000 long tons. The value at the mines of the anthracite coal in 1902 was $76,173,586 as against $112,504,020 in 1901, a loss of about 32.3 per cent. The average value of the marketed coal sold during the year at the mines was $2.35 per long ton, the value in 1901 having been $2.05.

The output of bituminous coal (which includes semianthracite and all semibituminous and lignite coais) amounted in 1902 to 260,216,844 short tons, valued at $290,858,483, as against 225,828,149 short tons, valued at $236,422,049 in 1901. The increase in the production of bituminous coal was, therefore, 34,388,695 tons in quantity and $54,436,434 in value.

Out of 30 States and Territories producing coal in 1902, seven — California, Michigan, New Mexico, Oregon, Pennsylvania, Texas, and Washington — had smaller outputs than in 1901.

The production of bituminous coal in Pennsylvania in 1902 exceeded that of 1901 by 15,755,874 short tons, but was not suflScient to overcome the great loss in anthracite production. The States in which the more important increases occurred with the corresponding gains are as foUov/s: Illinois, 5,547,751 short tons; Colorado, 2,314,±12 short tons; Ohio, 2,444,577 short tons; Indiana, 2,268,371 short tons; Alabama, 1,490,855 snort tons; Kentucky, 1,193,176 short tons.

Coke. — The coke production of the United States in 1902 exceeded that of any year in our history. The production, which includes the output from 1,663 retort or by-product ovens, amounted to 25,401,730 short tons, as compared with 21,796,883 short tons 1901, with

20,533,348 short tons in 1900. The increase in 1902 over 1901 amounted to 3,605,847 short tons, or 16.5 per cent. Large as this increase was, it was considerably less than it would have been had the transportation facilities been commensurate with the demand for coke and with the productive capacity of the ovens. The increase in the value of coke was even more noteworthy. The average price per ton at the ovens was the highest recorded in a period of twenty -three years, and the total value reached the high figure of $63,339,167, an increase over 1901 of $18,893,244, or 42.5 per cent. The value of the coal used in the manufacture of coke in 1902 exceeded that of 1901 by $7,932,563, from which it appears that the value of the coke product increased $10,970,681 over and above the increased value of the coal used in its production. In 1901 the highest price obtained for Connellsville furnace coke was $4.25. In September and October of 1902, while the contract coke was nominally quoted at $3 per ton, consumers were paying from $10 to $12 per ton for prompt delivery, and $15 was reported as paid for this fuel at one time. With the termination of the anthracite strike in the latter part of October prices for coke quickly declined, but in December of 1902 furnace coke for prompt delivery was still commanding $5 and $6 per ton, and contracts for delivery in the first six months of 1903 were made at from $3.75 to $4 per ton.

Gas coke ta/r and a/tn/trwnia, — The aggregate value of all the products obtained from the distillation of coal in gas works or retort ovens in 1902 was $43,869,440. About two-thirds of this amount, or $29,342,881, was represented by the value of the gas produced. The value of the coke produced was $11,267,608, and the tar was worth, at the works, $1,873,966. The total quantity of ammoniacal liquor sold was 49,490,609 gallons, containing 14,683,374 pounds NHj, and was worth at the works $1,065,300. In addition to this therQ was an actual production of 11,276,502 pounds of sulphate, which sold for $319,685.

Petroleum, — The total production of crude petroleum in the United States in 1902 was 88,766,916 barrels, as against 69,389,194 barrels in 1901, an increase of 19,377,722 barrels, or 27.92 per cent, over the production of 1901 and of 39. 52 per cent over that of 1900. The greatest portion of the increase in 1902 came from Texas and California, the gain over 1901 being 13,690,000 barrels, or 311.6 per cent for Texas and 5,197,938 barrels, or 59.16 per cent, for California. The increase in Indiana in 1902 over 1901 was 1,723,810 barrels, or about 30 per cent. Louisiana produced for the first time in 1902, the production being 548,617 barrels. The increase over 1901 in the production of Kansas was 152,598 barrels, or about 85 per cent. Kentucky and Tennessee increased their production in 1902 by 48,072 barrels, or nearly 35.02 per cent. Indian Territory increased 3 and

Summary. 17

Wyoming 853 barrels as compared with 1901. The largest decrease in production in 1902 as compared with 1901 was in West Virginia, where it amounted to 663,781 barrels, or about 4.5 per cent, and Ohio in 62 fields showed a decrease of 633,852 barrels, or nearly 3 per cent. The decrease in Pennsylvania was 561,888 barrels, or about 7 per cent; in Colorado, 63,619 barrels, or about 13.81 per cent. The percentages of production for fields show a remarkable change from 1900 to 1902. In 1900 the percentages were: Appalachian field, 57.05; Lima-Indiana field, 34.20; all other fields, 8.75. In 1902 the respective percentages were: Appalachian field, 36.07; Lima-Indiana field, 26.31; all other fields, about 37.62. The value of crude petroleum produced during 1902 was $71,178,910, or 80.19 cents per barrel, as compared with $66,417,335, or 95.7 per barrel, in 1901 — a decrease of 15.51 cents per barrel, or 16 per cent, in 1902.

Natural gas. — The value of the natural gas produced in 1902 increased to $30,867,668, as compared with $27,067,500 in 1901, with $23,698,674 in 1900, and with $20,074,873 in 1899— a gain of 13 per cent in 1902

over 1901.

STBUCTURAIi MATEBLALS.

Stone, — The value of all kinds of building stone produced in the United States during 1902 amounted to $64,559,099, as compared with $55,615,926 in 1901, with $44,321,345 in 1900, and with $44,090,670 in 1899.

Clan/ prod/ucts. — The activity in all branches of the clay-working industries noted in the reports as true of 1899, 1900, and 1901 continued during 1902. The value of all clay products as reported to this oflBice in 1902 was $122,169,531, as compared with $110,211,587 in 1901 and with $96,212,345 in 1900. The brick and tile products in 1902 were valued at $98,042,078, as compared with $87,747,727 in 1901 and with $76,413,775 in 1900. The pottery products were valued in 1902 at $24,127,453, as compared with $22,463,860 in 1901 and with $19,798,570 in 1900.

The clay mined and sold by those not manufacturing the product themselves in 1902 was valued at $2,061,072, as compared with $2,576,932 in 1901 and with $1,840,377 in 1900.

Cement. — The total production of hydraulic cement in the United States in 1902 was 25,753,504 barrels, valued at $25,366,380, as compared with 20,068,737 barrels, valued at $15,786,789, in 1901, and with 17,231,150 barrels, valued at $13,283,581, in 1900. The Portland cement production in 1902 was 17,230,644 barrels, valued at $20,864,- 078, as compared with 12,711,225 barrels, valued at $12,532,360, in 1901, and with 8,482,020 barrels, valued at $9,280,525, in 1900, an increase, as compared with 1900, in quantity of about 100 per cent and in value of over 50 per ceijt. The number of plants using Portland cement increased from 50 in 1900 to 56 in 1901, and to 65 in 1902. The production of natural-rock cement in 1902 was 8,044,305 barrels,

. M R 1902 2

valued at $4,076,630, as compared with 7,084,823 barrels, valued at $3,056,278, in 1901, and with 8,383,519 barrels, valued at $3,728,848, in 1900. The production of slag cement amounted to 478,555 barrels, valued at $425,672, in 1902, as compared with 272,689 barrels, valued at $198,151, in 1901, and with 365,611 barrels, valued at $274,208, in 1900.

Abra8Ive Materlals.

Ca/rborwndum. — There was a slight decrease in the quantity of carborundum— 3,741,500 pounds produced in 1902, as compared with 3,838,175 pounds in 1901 — due in part to lack of a sufficient supply of raw materials, a result of the anthracite coal strike. The value of the carborundum varies from 8 to 10 cents per pound.

Cortind/um and emery, — The combined production of C/Orundum and emery in 1902 amounted to 4,251 short tons, valued at $104,605, as compared with 4,305 short tons, valued at $146,040, in 1901, a decrease of 54 tons in quantity and of $41,435 in value.

Crushed steel. — The production of crushed steel in 1902 was 735,000 pounds, as compared with 690,000 pounds in 1901, and the product is quoted at 5i cents per pound free on board at Pittsburg.

Crystalliiie quartz. — In 1902 the production of crystalline quartz included under abi*asives amounted to 15,104 short tons, valued at $84,335, as compared with 14,050 short tons, valued at $41,500, in 1901. This large variation in value is due to the fact that in 1902 the value reported was in some cases that of the quartz after it had been crushed or ground. The actual value of the crude quartz produced in 1902 was $43,085.

Garnet, — The production of abrasive garnet in the United States during 1902 amounted to 3,926 short tons, valued at $132,820, as compared with 4,444 short tons, valued at $158,100, in 1901, and with 3,185 short tons, valued at $123,475, in 1900. As reported to the Survey the prices varied from $20 to $60 a ton, the highest price being obtained for the North Carolina garnet. The average value per ton of the production in 1902 was $35.10, as compared with $35.57 per ton in 1901 and with $38.77 in 1900.

Grindstones, — The total value of all kinds of grindstones produced during 1902 was $667,431, as compared with $580,703 in 1901, an increase of $86,728. The production of 1900, valued at $710,026, still remains the largest on record for any year. It should be remembered, however, that the price per ton has decreased from $15 to from $8 to $10, and that therefore the tonnage of grindstones used has correspondingly increased within the last few years. The imports for 1902 amounted in value to $76,906, as compared with $88,871 in 1901 and with $92,581 in 1900.

Infusorial earth and tripolL — In 1902 the' production of infusorial earth and tripoli amounted to 5,665 short tons, valued at $53,244,

Summabst. 19

including 175 short tons mined as a by-product and valued at $1,436, an increase of 1,645 tons in quantity and of $294 in value, as compared with the production of 4,020 tons, valued at $52,950, in 1901.

Millstones and hihrstones, — The value of the production of millstones and buhrstones in 1902 was $59,808, an increase of $2,629 over the value of 1901, which was $57,179. The value for 1902 was almost twice the value of the production of 1900, which amounted to $32,858. From 1886 to 1894 there was a very large decrease — from $140,000 to $13,887 — in the production of buhrstones. Since 1894 there has been a gradual increase in the production.

Oilstones and whetstones. — There was a decided increase in the domestic commercial production of oilstones and whetstones during 1902, the value of which amounted to $221,762, as compared with $158,300 in 1901, an increase in 1902 of $63,462. Until 1902, the year of maximum production was 1899, when the value of the output amounted to $208,283. The crude production of oilstones and whetstones in 1902, as reported by the Census, was valued at $113,968.

Pumice, — The volcanic-ash deposits in Nebraska have been worked to some extent during 1902, the product being used in the manufacture of certain soaps and scouring powders. The production of pumice amounted to 700 short tons, valued at $2,750.

CHEMICAIi MATERIAIiS.

Arseniaus oxide. — The domestic production of arsenious oxide (white arsenic) in 1902 was 1,353 short tons, valued at $81,180, as compared with 300 short tons, valued at $18,000, in 1901. The entire product was made by the Puget Sound Reduction Company at Everett, Wash., which began the manufacture of this important substance in 1901. The largely increased output in 1902 is a sign of the success of the new industry.

Botox. — The reported returns for 1902 gave an aggregate commercial production of cioide borax of 2,600 short tons, valued at $91,000, of refined borax and boric acid, amounting to 17,404 short tons, valued at $2,447,614, of which it was stated that 862 short tons, valued at $155,0<.>0, were boric acid. This gives a total production for 1902 of 20,004 short tons, valued at $2,538,614. The production during 1901 was 17,887 short tons of crude borax and 5,344 short tons of refined borax, with a total value of $1,012,118.

Bromine, — The production of bromine in 1902, including the amount of bromine contained in potassium bromide, amounted to 513,890 pounds, valued at $128,472, as compared with 522,043 pounds, valued at $154,572, in 1901, a decrease for the year of 38,153 pounds in quantity and of $26,100 in value. The price per pound during 1902 averaged 25 cents, as compared with 28 cents in 1901 and with 29 cents in 1900. There has been pi-actically no change in the bromine industry in the Unitediitates in 1902.

Fhwrapar, — There was a large increase in the production of fluorspar in 1902 over that of 1901, due partly to its increased use for metallurgic purposes. The total production in 1902 was 48,018 short tons, valued at $271,832, as compared with 19,586 tons, valued at $113,803, in 1901. This increase in production was not due to any one State, but there was a large increase in production in both Illinois and Kentucky, and also an increase in Arizona. The average price of crude fluorspar was reported as $5.19 per ton, as compared with $6 in 1901, and the average price of ground fluorspar was $9.98 per ton, as compared with $9.22 in 1901. In addition to this production there were 800 short tons, valued at $3,850, mined but not marketed in 1902.

Gypsum. — The production of gypsum, particularly for the manufacture of calcined plaster, continues to show a remarkable gain. The output of crude gypsum in 1902 was 816,478 short tons, valued in its first marketable condition at $2,089,341, as compared with 633,791 short tons, valued at $1,506,641, in 1901, and with 595,462 short tons, valued at $1,627,203, in 1900. The production in 1899 was 486,235 short tons, and in 1898 it was 291,638 short tons. The greatly increased production of the last four years is attributable to the largely increased use of plaster of Paris in the large modern buildings and in the manufacture of staff for temporary buildings.

Marls, — The production of marls in the United States in 1902 was 12,439 short tons, valued at $12,741.

Phosphate rock, — The total commercial production of phosphate rock reported to the Survey in 1902 amounted to 1,490,314 long tons, valued at $4,693,444, as compared with 1,483,723 long tons, valued at $5,316,403, in 1901, an increase in quantity of 6,591 tons and a decrease in value of $622,959. The total quantity of phosphate rock reported as mined during 1902 was 1,548,720 long tons, valued at $4,922,943, as compared with 1,440,408 long tons in 1901.

Salt. — The salt product includes salt in the form of brine used in large quantities for the manufacture of soda ash, sodium bicarbonate, caustic soda, and other sodium salts. The domestic production of salt in 1902 amounted to 23,849,221 barrels of 280 pounds net, valued at $5,668,636, as coftipared with 20,556,661 barrels, valued at $6,617,449, in 1901, and with 20,869,342 barrels, valued at $6,944,603, in 1900.

Sulphur and jryrite. — The domestic production of sulphur and of pyrite for the manufacture of sulphuric acid amounted in 1902 to 207,874 long tons, valued at $947,089, as compared with a combined production of 241,691 long tons, valued at $1,257,879, in 1901. The production of sulphur was from Louisiana, Nevada, and Utah, named in the order of the importance of their outputs. Oregon and Idaho reported no production in 1902. The greater part of the output of pyrite was derived from Virginia, Georgia, North Carolina, Colorado, and Massachusetts, named in the order of production. i

Summary. 21

Pigments.

Barytes. — The production of crude bary tes in 1902 was considerably in excess of that of tlie year before, amounting to 61,668 short tons, valued at $203,154, as compared with 49,070 tons, valued at *157,844, in 1901. This is an increase of 12,698 tons in quantity and of $46,310 in value.

Cobalt oxide. — The domestic production of cobalt oxide in 1902 was 3,730 pounds, valued at $6,714, as compared with 13,360 pounds, valued at $24,048, in 1901, a decrease in quantity of 9,630 pounds. All the cobalt oxide was obtained as a by-product in smelting lead ores at Mine Lamotte, Mo.

Mineral paints, — The commercial production of mineral paints in 1902 amounted to 73,049 short tons, valued at $944,332, as compared with 61,460 short tons, valued at $789,962, in 1901. The production of crude mineral paints in 1902 is reported as 36,479 short tons, valued.at $360,886, including 4,500 tons, valued at $18,000, of ocher and metallic paint reported as mined but not marketed in 1902.

Zinc white. — The production of zinc white in 1902 amounted to 62,646 short tons, valued at $4,016,499, as compared with 46,500 short tons, valued at $3,720,000, in 1901.

Asbeto%. — The conamercial production of asbestos in the United States in 1902 was chiefly from the mines at Sail Mountain, White County, Ga., with smaller quantities from Hillsdale, Berkshire County, Mass. This production was 1,006 short tons, valued at $16,- 200, an increase of 268 tons in quantity and of $2,702 in value over the production of 1901, which was 747 short tons, valued at $13,498. The production in 1900 was 1,064 short tons, valued at $16,310. In addition there were reported as produced but not marketed in 1902 1,600 short tons of crude asbestos, valued at $30,000.

Asphaltum. — Under this title are included the various bitumens or hydrocarbons not discussed under the heading ''Petroleum" in the volume on Mineral Resources. The conmaercial production of asphaltum in 1902 was 106,468 short tons, valued at $766,048, as compared with 63,134 short tons, valued at $656,335, in 1901 — a large increase, amounting in quantity to 42,324 short tons and in value to $209,713. The production of crude asphaltum in 1902 is reported as 66,238 short tons, valued at $236,728.

Bauxite, — In 1902 the production of bauxite increased to 29,222 long tons, valued at $128,206, as compared with 18,905 long tons, valued at $79,914, in 1901. Georgia yielded the greater bulk of the product, the remainder being supplied by Alabama and Arkansas.

ChroTnic iron ore. — California was the one State to produce any chromite during 1902, the quantity being 316 long tons, valued at $4,667, a decrease of 63 tons in quantity and of $1,223 in value, as compared with the production of 1901, which was 368 long tons, valued at $5,790."

Fddspar, — The production of feldspar in 1902 was 45,287 short tons, valued at $260,424, as against 34,741 short tons, valued at $220,422, in 1901.

Fihram talc. — This variety of talc or soapstone occurs in but one locality in the United States — Gouverneur, St. Lawrence County, N. Y. It is used principally as makeweight in the manufacture of paper. In 1902 the production was 71,100 short tons, valued at $616,360, an increase of $131,760 in value and of only 1,900 tons in quantity, as compared with the production of 69,200 short tons, valued at $483,600, in 1901.

Flint. — The production of flint in 1902 was 36,366 short tons, valued at $144,209, as compared with 34,420 short tons, valued at $149,297, in 1901.

Fuller's earth. — As reported for the Survey, the production of fuller's earth in 1902 showed a decrease in quantity and an increase in value, being 11,492 short tons, valued at $98,144, as compared with 14,112 short tons, valued at $96,836, in 1901. The maximum production of fuller's earth was obtained ii. 1897, when the production was 17,113 short tons.

Glass sand. — The production of glass sand in 1902 was 943,136 short tons, valued at $807,797; the production of engine, furnace, building, molding, and other sands, mined incidentally, was 904,776 short tons, valued at $616,817 — a total production of 1,847,901 short tons of sand, valued at $1,423,614.

Oraphite. — The commercial production of crystalline graphite during 1902 amounted to 3,936,824 pounds, valued at $126,144, as compared with 3,967,612 pounds, valued at $136,914, in 1901, and with 6,507,856 pounds, valued at $178,761, in 1900. The commercial production of amorphous graphite in 1902 was 4,739 short tons, valued at $66,964, as compared with 809 short tons, valued at $31,800, in 1901. The decline in value was due to a proportionate increase in the production of the lower grades. Considerable development and exploratory work was done during the year in Montana, Wyoming, North Carolina, and New Mexico. In addition, 30,000 pounds of refined graphite, valued at $1,800, and 20,716 short tons of crude graphite, valued at $43,600, were reported as produced but not marketed in 1902. This gives a total production of 3,966,824 pounds of refined graphite and of 26,465 short tons of amorphous graphite, with a total value of $227,608, as produced in 1902. The production of artificial graphite was 2,368,828 pounds, valued at $110,700, ftie average price being 4.69 cents per pound, as compared with 2,600,000 pounds, valued at $119,000, in 1901, the average price being 4.76 cents per pound.

Limestone for iron fl/iix.—The quantity of limestone used for fluxing in blast furnaces in 1902 was 11,878,676 long tons, valued at $5,271,262, as compared with 8,540,168 long tons, valued at $4,669,8aJ01, and with 7,496,435 long tons, valued at $3,687,394, in 1900.

Suhmaky. 23

Miigneaite. — The production of megnesite in the United States continues to be limited to California, and during the year 1902 the commercial production reported was 3,466 short tons, valued at $21,362 — a large decrease as compared with the production in 1901, which was 13,172 short tons, valued at $43,057. Of the 1902 production, 380 tons, valued at $1,723, were sold in 1902, but were mined previously.

Mica. — The production of mica in 1902 was as follows: 373,266 pounds of plate or sheet mica, valued at $83,843; 1,028 short tons of scrap mica, valued at $13,081; and 372 short tons of rough mica, valued at $21,925— a total value of $118,849.

Mineral toaters, — The total production of mineral waters for 1902 was 64,859,451 gallons, valued at $8,793,761, as compared with 55,771,181 gallons, valued at $7,586,962, in 1901— a gain in quantity of 9,088,263 gallons and in value of $1,206,799.

Monasite. — The production of monazite is confined exclusively to North Carolina and South Carolina, by far the larger quantity being obtained from the former State, and in 1902 this amounted to 802,000 pounds, valued at $64,160, as compared with 748,736 pounds, valued at $59,262, in 1901 — an increase in quantity of 53,264 pounds and in value of $4,898. The price per pound received by the miners for the monazite produced in 1902 varied from 2.5 to 8 cents, according to the percentage of thoria.

Precious atones. — The value of the gems and precious stones found in the United States in 1902 was $328,450, as compared with $289,050 in 1901, with $233,170 in 1900, and with $185,770 in 1899. There has been a great advance in the lapidary industry in the United States since 1894. The fact that larger establishments have been formed, which are able to purchase the rough diamonds in greater quantities, has placed our American diamond cutters in a position equal to that held by the cutters of Amsterdam, Antwerp, and Paris. The cutting of our native gems has also grown to the proportions of an industry, notably in the case of the beryls and the amethyst found in North Carolina and Connecticut; the turquoise from New Mexico, Arizona, Nevada, and California; the fine-colored and deep-blue sapphires found in Montana; the colored tourmalines of San Joaquin County, Cal.; the chrysoprase mine of Visalia, Tulare County, Cal. ; the garnets of Arizona and New Mexico, and the pale-purple garnets of North Carolina.

RutUe. — The production of rutile in 1902 was less than in 1901.

Soapstone. — Exclusive of the production of fibrous talc from Gouverneur, N. Y., the production of talc and soapstone in 1902 amounted to 26,854 short tons, valued at $525,157, as compared with 28,643 tons, valued at $424,888, in 1901 — a decrease of 1,789 tons in quantity and an increase of $100,269 in value. The output for 1900 was 27,943 short tons, valued at $383,541, and for 1899 it was 24,765 short tons, valued at $330,805.

Mineral Besoubce9.

Mineral producU of the United

Product

So

Piff iron, spot value long tons.

Silver, coining value fine ounces.

Gold, coining value do. . .

Copoer, value at New York City pounds.

Lead, value at New York City short tons.

Zinc, value at New York City do. . .

Quicksilver, value at San Francisco flasks.

Aluminum, value at Pittsburg pounds.

Antimony, value at San Francisco short tons.

Nickel, value at Philadelphia pounds.

Tin do...

Total value of metallic products .

Bituminous coal short tons .

Pennsylvania anthracite long tons.

Natural gas

Petroleum barrels.

Brick clay

Cement barrels.

Stone

Corundum and emery short tons.

Crystalline quartz do. . .

Garnet for abrasive purposes do. . .

Grindstones

Infusorial earth and tripoli short tons.

Millstones

Oilstones, etc

Arsenious oxide short tons.

Bromine pounds.

Fluorspar short tons.

Gvpsum do...

Litnium do...

Marls do...

Phosphate rock long tons.

Pyrite do...

Salt barrels.

Sulphur short tons.

Cobalt oxide pounds.

I Mineral paints short tons .

' Zinc white do. . .

Asbestos short tons.

Asphal tum do . . .

Bauxite long tons.

Chromic iron ore do. . .

Feldspar do. . .

Fibrous talc do. . .

Flint do...

Fuller's earth do. . .

G lass sand do . . .

Limestone for iron flux long tons.

Magnesite short tons.

Manganese ore long tons.

Mineral waters gallons sold.

Monazite pounds.

Precious stones

Pumice stone short tons.

Rutile pounds.

Soapstone short tons.

Uranium and vanadium do...

Total value of nonmetallic mineral products

Total value of metallic products

Estimated value of mineral products unspecified .

Grand total .

Quantity.

None.

69,889,194 '26,'668,'787'

None.

None.

Value.

78.i.f-V, 87.:;iK.J, 23 i."*!'

None.

None.

a Combined with pyrite.

;.ditizeduy VVJUVIC

Summaby.

States in 1901 and 1909,

1Wm

Quantity.

Quantity.

Value.

Quantity.

Value.

H Moo, 000

7t>.-.68,954

Mj:.25,596

L 167,848

:SiJ >:67,668

Ik

ri h50,099

?4

H9

f - 80,788 + 8,980

f - .78 t +485.78

r54

None.

None. 328,450

6K

Izedby

Mineral Besouboes.

Mineral products of the United tSUUes

Product.

Quantity.

Value.

PiKiron, value at Philadelphia long tons.

Si 1 ver, coiningr value fine ounces. .

Gold, ooiniug value do

value at New York City pounds..

Lead , va 1 ue a t Ne w York City short tons. .

Zinc, value at New York City do

Quicksilver, value at San Francisco flasks. .

Nickel, value at Philadelphia pounds..

Al umin um .value at Pittsburg do ... .

Antimony, value at San Francisco short tons. .

Platinum (crude), value at San Francisco troy ounces.

Total value of metallic products.

Bituminous coal long tons.

Pennsylvania anthracite do...

Stone do...

Petroleum barrels.

Lime do...

Natural gas

Cement barrels.

Salt do...

Phosphate rock long tons.

Limestone for iron flux do. . .

Mineral waters gallons sold.

Zinc white short tons.

Potters* clav do...

Mineral paints do...

Borax pounds.

Gypsum short tons.

Grindstones

Fibrous talc short tons.

Pyrite long tons.

Soapstone short tons.

Manganese ore long tons.

Asphaltum short tons.

Precious stones

Bromine pounds.

Corundum short tons.

Graphite pounds.

Millstones

Oilstones, etc. a pounds.

Marls short tous.

Flint..." long tons.

Fluorspar short tons.

Chromic iron ore long tons.

Infusorial earth short tons.

Feldspar long tons.

Mica pounds.

Cobalt oxide do...

Slate ground as a pigment short tons.

Sulphur do...

Asbestos do. . .

Rutile pounds.

Lithographic stone short tons.

Total value of nonmetalHc mineral products

Total value of metallic products

Estimated value of mineral products unspecified .

Grand total .

189.815.569 39,200.000 36,000.000 11,491.20U 9,782.500 2.277.432 1,797,780

a Prior to 1889 quantity and value are for rough stone quarried; sinoe 1890 they are lor finished product.

Summart.

/or tJie calendar years 1880-1909.

1Bs2.

1B8B.

Qtuuitil7

.

Quantity,

Vilue,

1?

n

S.Ooo

Mineral Besoubces.

Mineral products of the United States for

Product.

Quantity.

Value.

Fig Iron, value at Philadelphia long tons.

Silver, coining value fine ounces .

Gold , coining value do. . .

Copper, value at New York City pounds.

Lead, value at New York City short tons.

Zinc, value at New York City do. . .

Quicksilver, value at San Francisco flasks.

Nickel, value at Philadelphia pounds.

Aluminum, value at Pittsburg do. . .

Antimony, value at San Francisco short tons.

Platinum (crude), value at San Francisco troy ounces.

Total value of metallic products. ,

Bituminous coal long tons.

Pennsylvania anthracite do...

Stone do...

Petroleum barrels.

Lime do...

Natural gas

Brick clay

Cement barrels.

Salt.

.do.

Phosphate rock long tons.

Limestone for iron flux do. . .

Mineral waters gallons sold.

Zinc white short tons.

Mineral paints do. . .

Borax pounds.

Gypsum short tons.

Grindstones

Fibrous talc short tons.

Pyrite long tons.

Soapstone short tons.

Manganese ore long tons.

Asphaltum short tons.

Precious stones

Bromine pounds.

Corundum short tons.

Graphite pounds.

Millstones

Oilstones, etc. a pounds.

Marls short tons.

Flint long tons.

Fluorspar short tons.

Chromic iron ore long tons.

Infusorial earth short tons.

Feldspar long tons.

Mica

pounds.

Cobalt oxide do...

Slate ground as a pigment short tons.

Sulphur do...

Asbestos do. . .

Rutile pounds.

Lithographic stone short tons .

Total value of nonmetalllc mineral products

Total value of metallic products

Estimated value of mineral products unspecified .

Grand total !..

l,7W,':f65

M.iKX) ;LX;,uOO 670,000 110,000 175,000 200,000 122,160

a Prior to 1889 quantity and value are for rough stone quarried; since 1890 they are for finished product.

SUMMARY. the ccdendar years lS80-190f — Continued.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

r. ":t 100

4O,U00

fi,fi74,;77

4,CKt3,446

l,W36,il8

l.:iri.-S46

!,Uf-i,f.ilOO

U. 576

asojioo

rirnioo

2;jJ,400

21U.00O

22h.000

mi -JSl

2m,MA

uf.m

'Jins '.100

.H'j, m

M Hi,

4u7,j00

Minebal Be80Ubces.

Mineral producU of the United States for

S3

Product.

Metallic.

Pifiriron, value at Philadelphia long tons.

8i Iver, coining value fine ounces .

Gold, coining value do...

Copper, value at New York City pounds.

Lead, value at New York City short tons.

Zinc, value at New York City do. . .

Quicksilver, value at San Francisco flasks.

Aluminum, value at Pittsburg pounds.

Antimony, value at San Francisco short tons.

Nickel, value at Philadelphia pounds.

Tin do...

Platinum (crude), value at San Francisco troy ounces.

Total value of metallic products.

Bituminous coal short tons.

Pennsylvania anthracite long tons.

Stone

Petroleum barrels.

Natural gas

Brick clay

Cement barrels.

Mineral waters gallons sold .

Phosphate rock long tons.

Salt barrels.

Limestone for iron flux long tons.

Zinc white short tons.

Oypsum do...

Borax pounds.

Mineral paints short tons.

Grindstones

Fibrous talc short tons.

Asphaltum do...

Soapstone do...

Precious stones

Pyrite long tons.

Conmdum short tons.

Oilstones, etc. a pounds.

Mica.

.do.

Bromine pounds.

Fluorspar short tons.

Feldspar longtons.

Manganese ore do. . .

Flint do...

G raphi te ; pounds.

Bau xi te long tons .

Sulphur short tons.

Marls do. . .

InfiLsonal earth do...

Ch comic i ron ore long ♦ons .

Cobalt oxide pounds.

Magncsite short tons.

Asbestos do. . .

Rutile pounds.

Total value of nonmetallic mineral products

Total value of metallic products

Estimated value of mineral products unspecified.

Grand total

Quantity.

Value.

a Prior to 1889 quantity and value are for rough stone quarried; since 1890 they are for finished product.

Summabt.

the calendar years lSi0-190£ — Contmned.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

f*ri96,988

3aj7:,ooo

2t-,iW.809

Ui. 794,286

lJi34.198

iV, 791,824

H, 033. 700

l,036.:6

lOO.ilOO

Uo. 420, 801

4M

5;

Mineral Be80Ubces.

Mineral products of the United States for

Vfilue,

Pig Iron, spot value long tons.

Silver, coining value fine ounces.

Gold, coining value do...

Copper, value at New York City pounds.

Lead, value at New York City short tons.

Zinc, value at New York City do...

Quicksilver, value at San Frandsco flasks.

Aluminum, value at Pittsburg pounds.

Antimony, value at San Francisco short tons.

Nickel, value at Philadelphia pounds.

Tin do...

Total value of metallic products .

Bituminous coal short tons.

Pennsylvania anthracite long tons.

Natural gas

Petroleum barrels.

Brick clay

Cement barrels.

Stone

Corundum and emery short tons.

Crystalline quartz do...

Garnet for abrasive purposes do...

Grindstones

Infusorial earth and trlpoll short tons.

Millstones

Oilstones, etc

Borax pounds .

Bromine do. . .

Fl uorspar short tons .

Gypsum do...

Marls do...

Phosphate rock long tons.

Pyrlte do...

Salt barrels.

Sulphur short tons.

Cobalt oxide pounds.

Mineral paints short tons.

Zinc white do...

Asbestos do. . .

Asphaltum do. . .

Bauxite long tons.

Chromic iron ore do. . .

Feldspar do...

Fibrous talc do...

Flint do...

Fuller's earth do...

Graphite pounds.

Limestone for iron flux long tons.

Magneslte shon tons.

Manganese ore long tons.

Mica pounds.

M Ineral waters gallons sold .

Monazite pounds .

Precious stones

Pumice stone short tons.

Rutlle pounds.

Soapstone short tons.

Total value of nonmetallic mineral products

Total value of metallic products

Estimated value of mineral products unspecified .

Grand total

60,509,136 '*8,*758,'e2i i'77i

U, 698, 890

SUMMARY. the calendar years 1880-190S — Continaed.

Jjm.

wm.

quantity.

Value.

Quantity.

Talne.

Quanuty.

Value.

None.

None.

?3

?4

?6

?8

n

U, 816, 772

137,150 None. 113,621

6?

C2C, 052,170

M B 1902 3

Mineral Besoubges.

Mineral products of the United States for

Product.

lion, spot value longton.

Silver, coining value fine ounces.

Gold, coining value do...

Copper, value at New York City j. pounds.

Lead, value at New York City short tons.

Zinc, value at New York City do...

Quicksilver, value at San Francisco flasks.

Aluminum, value at Pittsburg. pounds.

Antimony, value at San PEanclsco short tons.

Nickel, value at Philadelphia pounds.

Tin do...

Total value of metallic products.

Bituminous coal short.tons.

Pennsylvania anthracite long tons.

Natural gas

Petroleum barrels.

Brick clay

Cement barrels.

Stone .

Corundum and emery short tons.

Crystalline quartz do...

Garnet for abrasive purposes do...

Grindstones

Infusorial earth and tripoli short tons.

Millstones

Oilstones, etc

Borax pounds.

Bromine do. . .

Fluorspar ." short tons.

Gypsum do. . .

Marls do...

Phosphate rock long tons.

Pyrite do...

Salt barrels.

Sulphur short tons.

Cobalt oxide pounds.

Mineral paints short tons.

Zinc white do...

Asbestos do...

Asphaltum — do. . .

Bauxite long tons.

Chromic iron ore do...

Feldspar do...

Fibrous talc do. . .

Flint , do...

Fullers earth do...

Limestone lor iron flux long tons.

Magnesite short tons.

Manganefe ore long tons.

Mineral waters gallons sold .

Monazite pounds .

Precious stones

Pumice stone short tons.

Rutile pounds.

Soapstone short-tons.

Total value of nonmetallic mineral products

Total value of metallic products

Estimated value of mineral products unspecified .

Grand total .

Quantity.

None.

60,960,361 '"9,'6i3,'478"

Value.

None.

Summary.

the calendar years 1880-190£ — Continued.

1 Quaatlty.

Value.

Quantity.

Vulue.

lurm.mi

5a,*M3O,O00

mMi.m

fria.ooo

U4, 4iia, uxj

ll.#40.H65

l.Tijm

&.ri66

None.

None.

None.

H

W

?4

'm

None.

None.

None.

None.

None.

None. 1 44

i2,6i6

f 1,254,402 I 1,108

f 2,900,732 1 2,324

None.

None.

None.

None.

None.

None. 1 59

Mineral Re80Ubces.

Mineral products of Oie United Stales for the calendar years 1880-1902 — Continued. .

Product.

Pig iron, spotvalae

Silver, coining value

Gold, coining value

Copper, value at New York City

Lead, value at New York City

Zinc, value at New York City

Quicksilver, value at San Francisco

Aluminum, value at Pittsburg

Antimony, value at San Francisco

Nickel, value at Philadelphia

Tin

— fine ounces.

do...

pounds.

short tons.

do...

pounds.

short tons.

pounds.

do...

.troy ounces. . .

Total value of metallic products.

Bituminous coal

Pennsvlvania anthracite

Natural ga

Petroleum

Brick clay

Cement

Stone

Corundum and emery

Crystalline a uartz

Gkimet for abrasive purposes

Grindstones

Infusorial earth and tripoU

M il Istones

Oilstones, etc

. short -. ..long tons.

.barrels, .barrels.

.short tons.

do...

do...

.short tons.,

Borax short tons.

Bromine

Fluorspar

Gypsum

Lithium

Marls

Phosphate rock

Pyrite

Salt

Sulphur

Cobaltoxide

Mineral paints

Zinc white

Asbestos

Asphaltum

Bauxite

Chromic iron ore

Feldspar

Fibrous talc

Flint

Fuller's earth

Limestone for iron flux —

Magnesite

Manganese ore

Mineral waters

Monazite

Precious stones

Pumice stone

Rutile

Soapstone

pounds.

.short tons.

do...

do...

do...

..long tons.

do...

— barrels. . .short tons.

do...

pounds.

.short tons.

do...

do...

do...

..long tons. do...

short tons.

do...

do...

do...

pounds.

short tons.

long tons.

short tons.

long tons.

pounds.

short tons.

. gallons field. pounds.

.short tons.

pounds.

.short tons.

Total value of nonmetallic mineral products

Total value of metallic products

Estimated value of mineral products unspecified.

Grand total .

Quantity.

None.

68,620.529 'i7,'23i,"i56

al,602

None.

None.

Value.

None.

None.

a Refined.

fr Crude.

Summary. 87

Mineral products of the United States for the calendar years 1880-190S — Continued.

Product.

Quantity.

Value.

Fig lion, spot value longtoxu..

Silver, coining value fine ounces..

Gold, coining value do

Copper, value at New York City pounds..

Lead, value at New York City short tons,

Zinc, value at New York City do..,

Quicksilver, value at San Francisco flasks. .

Aluminum, value at Pittsburg pounds. .

Antimony, value at San Francisoo short tODs..

Nickel, value at Philadelphia pounds..

Tin do

Platinum, value (crude) at San Francisco troy otmcee. .

None.

Total value of metallic products. .

Bitumlnoos coal short tons.

Pennsylvania anthracite long tons .

Natural gas

Petroleum barrels.

Brick clay

Cement barrels.

69,389,194 &#x27;26,&#x27;668,&#x27;7S7&quot;

Corundum and emery short tons.

Crystalline quartz do...

Qamet for abrasive purposes do...

Grindstones

Infusorial earth and tripoli short tons.

Millstones

Oilstones, etc

Arsenous oxide short tons.

Borax.

.do...

Bromine pounds.

Fluorspar short tons.

Ovpsum do...

lithium do...

Marls.

.do.

Phosphate rock long tons.

Pyrlte do...

Salt barrels.

Sulphur.

Cobalt oxide pounds.

Mineral paints short tons.

Zinc white do...

Asbestos , do...

Asphaltum do...

Bauxite long tons.

Chromic iron ore do...

Feldspar short tons.

Fibrous talc do...

Flint do...

Fuller's earth do...

Limestone for Iron flux long tons.

Magnesite short tons.

Manganese ore long tons.

Mineral waters gallonseold.

Monazite pounds.

Precious stones

Pumice stone short tons.

Rntile pounds.

Soapstone short tons.

Uranium and vanadium do...

a5,344

None.

None.

Total value of nonmetallic mineral products

Total value of metallic products

Estimated value of mineral products unspecified .

None.

None.

Grand total.

a Refined.

h Crude.

c Combined

Mineral products of the United Stales for the calendar years 1880-190S — Continued.

Product

Mjetallic.

Silver, coming value fine ounces.

Gold, coining value do...

Copper, value at New York City pounds.

Lead, value at New York City short tons.

Zinc, value at New York City do...

Quicksilver, value at San Francisco flasks.

Aluminum, value at Pittsburg pounds.

Antimony, value at San Francisco short tons.

Nickel, value at Philadelphia pounds.

Tin do...

Total value of metallic products

Bituminous coal short tons.

Pennsylvania anthracite long tons.

Natural gas

Petroleum barrels.

Brick clay

Cement barrels.

Stone

Corundum and emery short tons.

Crystalline quartz do...

Garnet for abrasive purposes do...

Grindstones

Infusorial earth and tripoli short tons.

Millstones

Oilstones, etc

Arsenlous oxide short tons.

Bromine pounds.

Fluorspar short tons.

Qvpsum do...

Lithium do...

Marls do.

Phosphate rock long tons.

Pyrite do...

Salt barrels.

Sulphur short tons.

Cobalt oxide pounds .

Mineral paints short tons.

Zinc white , do...

Asbestos do. . .

Asphaltum do. . .

Bauxite long tons.

Chromic iron ore do...

Feldspar do...

Fl brous talc do . . .

Flint do...

Fuller's earth do...

Glass sand do. . .

Limestone for iron flux long tons.

a In addition the census reports 11,727 short tons of cinnabar, valued at t82,242, as mined but not marketed In 1902.

bin addition the census reports 508,386 barrels of petroleum, valued at 8.829, as produced but not marketed in 1902.

c Value of crude production as reported by the census: Crystalline quartz, $43,065; oilstoiKB, $113,968.

Production in 1902, as reported by the census. 19.142 short tons, valued at $2,383,614.

0 In addition the census reports 800 short tons of fluorspar, valued at $3,850, as mined but not marketed in 1902.

/The total quantity of phosphate rock mined in 1902 was 1,548,720 long tons, valued at $4,922,943.

a Included under pyrite.

Production of crude material of mineral paints was 35,479 short tons, valued at $360,885.

<In addition, 1,500 short tons of crude asbestos, valued at $30,000, are reported by the census as mined but not marketed in 1902.

i The production of the crude material is reported by the census as 66,238 short tons, valued at $236,728.

xIn addition, graphite to the value of $45,400 is reported as mined but not marketed in 1902.

Quantity.

a 34, 291

None.

688,766,916 "25," 758,' 504

1,353 d 17, 404 2,600 513,890 48, 018 816,478 1,245 12,489 /1, 490, 314 207,874 23,849,221

A 73, 049

i 105, 458

fc 3, 936, 824

Value.

2n,8S2

uogle

Sukmaby.

Itineral products of the UnUed Slates for the calendar years 1SS0-190S— Continued,

Product.

Quantity.

Value.

MaipneBite abort tons.

Manganese ore long tons.

Mineral waters gallons sold.

Monaadte pounds.

Precions stones

Pumice stone short tons.

Rutile pounds.

Soapstone short tons.

Uranium and vanadium do...

Total value of nonmetallic mineral products

Total value of metallic products

Estimated value of mineral products unspecified.

Grand total .

a The magnedte actually mined in 1902 is reported as 8,066 short tons, valued at $19,689. b Included under estimated unspecified products.

Ic

moist ORES,

By John Bikkinbine.

Probuction.

The production of iron ore in the United States in the year 1897 exceeded that of any preceding year, and since that date the annual output of the country has shown successive augmentation, until in the calender year 1902 the total reached 35,664,135 long tons. No other country has at any time reported a yearly production so great as that of the iron-ore mines of the United States in 1898 and in subsequent years. In the report for the year 1901 it was stated that the largest quantities of ore mined in any other country, according to official statistics, were 18,664,772 long tons mined in Germany and Luxemburg in the year 1900, and 18,031,967 long tons mined in Great Britain in the year 1882.

During the year ending December 31, 1902, the quantity of iron ore produced in the United States, determined from a compilation of reports furnished by operators throughout the country, amounted, as stated, to 36,664,136 long tons, valued at $66,412,960, an increase over 1901 of 6,666,666 long tons, or 23 per cent.

The iron ore produced in the year 1902 was obtained from mining operations OArried on in 23 States and 2 Territories.

To indicate the rapid growth of the iron-ore industry in the United States during the six years mentioned above, the following table has been prepared:

Production of iron ore in United ties, 1897-190g.

Year.

Quantity.

Increase - over preceding year.

Percentage of increase over preceding year.

Long tans. 17,518,046 19,483,716 24,688,173 27,568,161 28,887,479 85,654,185

Long tons. 1,512,597

1M9

Xinebal Besouboes.

The increase in 1902 over the quantity of iron ore produced in 1897, which, as before stated, was the maximum output up to that time by the United States, is 18,036,089 tons, or 103 per cent, which shows that in six years the iron-ore output of the United States has doubled in quantity.

To summarize the work of the United States Geological Survey in collecting iron-ore statistics from the year 1889, when the first systematic effort in this direction was made, to and including the year 1902 the following table is presented:

Year.

Quantity.

Year.

Quantity.

Long tont. 14,518,041 16,086,048 14,691,178 16,296,666 11,587,629 11,879,679 15,967,614 16,005,449 17.518,046

Total for fourteen yean zw, oik, uuv

Average for fourteen yean

The average production and the grand total for fourteen years above mentioned are presented to emphasize the relative output of each year named and to indicate the magnitude of the industry. But the figures of annual output suggest that, while fluctuations in the iron and steel industry have caused marked variations, in iron-ore production a general advance is noted, the production of 1897 being less than 60 per cent of that of 1902.

Production By Varieties Of Ore.

As in former reports the iron ore mined has been divided into four general commercial classes, as follows:

1. Bed heiiuLtite including all anhydrous hematites (sesquioxides of iron) known by various nanies, such as red hematite, specular, micaceous, fossil, slate iron ore, martite, blue hematite, etc.

2. hemaiite including the varieties of hydrated sesquioxide of iron recognized as limonite, gothite, turgite, bog ores, pipe ores, etc.

3. Magnetite those ores in which the iron occurs as magnetic oxide, and including some martite which is mined with the magnetite.

4. Carbonate those ores which contain a considerable amount of carbonic acid, such as spathic ore, blackband, siderite, clay ironstone, etc.

The amount of red hematite ore mined in the 1902 in the United States amounted to 30,532,149 long tons, or 85.9 per cent of the total

Ic

Ibon Obes.

for the United States, an increase of 6,526,124 long tons, or 27.2 per cent over the 1901 total of 24,006,025 long tons of red hematite.

Minnesota was the most important contributor of this class of ore, followed by Michigan and Alabama.

The total amount of brown hematite mined was 3,305,484 long tons, or 9.3 per cent of the output for the country, an increase of 288,769 tons, or 9.6 per cent over the 1901 total of 3,016,715 long tons of brown hematite. Alabama was the principal contributor, followed by Virginia and West Virginia and Tennessee.

Of the magnetic variety, 1,688,860 long tons, or 4.7 per cent of the total for the United States, were mined in 1902, a decline of 124,216 long tons, or 6.9 per cent from the 1901 total of 1,813,076 long tons of magnetite. Pennsylvania continued to be the principal producer, followed by New York and New Jersey.

The amount of carbonate ore mined in 1902 was 27,642 long tons, a decline of 24,021 long tons, or almost one-half of the 1901 total of 61,663 long tons. Nearly all of this carbonate ore was mined in the State of Ohio, a small amount being supplied by Maryland.

The quantities of the different varieties of iron ores contributed by the various States in 1902 are presented in the following table according to the importance of the States as producers. It will be noted, however, that in some cases the outputs for two or more States are combined in order not to divulge individual mine statistics:

Production of iron ore in the United States in 190, by varieties. [Long tons.]

State or Territory.

Minnesota

Michigan

Alabama

Virginia and West Virginia

Tennessee

Pennsylyanla

Wisconsin

New York

New Jersey

Georgia and North Carolina

Montana, New Mexico, Utah, and Wyoming

Colorado

Kentucky

Connecticut, MaB8achusett8,and Vermont

Maryland

Ohio

Texas

Total 30,682,149

Red hematite.

Brown hematite.

Magnetite.

Carbonate.

Total.

Mineral

In the fourteen years which have elapsed since 1889, when statistics of the different varieties of iron ore were first collected by the United States Geological Survey, the red hematites have supplied 211,083,158 long tons, or 78.03 per cent of the total production; brown hematites 34,250,988 long tons, or 12.66 per cent; the magnetic deposits 23,213,553 long or 8.58 per cent; and the carbonate ores 1,954,310 long tons, or 0.73 per cent.

The following table will show the amounts of the different classes of iron ore annually produced in the United States from 1889 to 1902, inclusive, and also the totals for the fourteen years:

Production of iron ores in the United States, by classes, 1889-1902. [Maxima in italics.]

Year.

heite. heiSSSe. MagneUte. Carbonate.

Total

Percentages of totals for 14 years Percentages of total for 1902

Long ions. 2,623,087 2,559,988 2,757,564 2,485,101 1,849,272 1,472,748 2,102,358 2,126,212 1,961,954 1,989,681 2,869,785 3,231,089 3,016,715 S,305,i8i,

Long tons. 2,506,415 £,870,838 2,317,108 1,971,965 1,880,886 972,219 1,268,222 1,211,526 1,059,479 1,287,978 1,727,430 1,587,551 1,813,076 1,688,860

Total.

Long tons. 14,518,041 16,036,048 14,591,178 16,296.666 11,587,629 31,879,679 15,967,614 16,006,449 17,518,046 19,433,716 24,683,173 27,663,161 28,887,479 S5,55U,1S5

The red hematite mines attained their maximum production in the year 1902, and this was also the case with the brown hematite mines; the largest amount of magnetite, however, was contributed in the year 1890, and the maximum output of carbonate ore was in 1889.

In addition to the iron ore mined, 65,246 long tons of zinc residuum were used as iron ore in 1902.

In the year 1902 there were produced 192,285 long tons of concentrated ore which are included under the production of the respective States. In addition to the magnetically concentrated ore, a considerable amount of magnetically cobbed ore was obtained in the State of New Jersey, this method being adopted in place of sorting in the mine, the rock and ore being broken to convenient size, brought to the surface, and the iron ore removed from the rock by means of magnetic concentrating machines.

Ikon Ores. 45

liAKE SUPERIOR REGION.

The greater part of the iron ore of the United States is supplied by the Lake Superior region, located in the States of Minnesota, Michigan, and Wisconsin, the maximum output of 26,977,404 long tons occurring in 1902, and representing 76 per cent of the total quantity of iron ore reported for the United States. This was an increase of 5,531,501 tons, or almost 26 per cent, over the production in 1901 of 21,445,908 long tons.

The Lake Superior region comprises five ranges, of which the oldest, the Marquette Range, located in the upper peninsula of Michigan, not far from the southern shore of Lake Superior, and first opened in 1854, has shipped to the present time 66,686,502 long tons. The production of this range in the year 1902 was 3,734,712 long tons, the largest amount mined in any year, with the exception of 1900, when the total was 3,945,068 long tons. Most of this ore is shipped from the ports of Marquette and Escanaba.

The second range, the Menominee, located in the States of Michigan and Wisconsin, was opened in 1877. The total shipments from it have been 42,267,233 long tons, and the maximum production 4,421,250 long tons, was in 1902. The greater portion of this ore is sent from the port of Escanaba, although a small amount goes by way of Gladstone.

In the year 1884 the Gogebic Range in the States of Michigan and Wisconsin, and the Vermilion Range, in Mipesota, were opened. The Gogebic has shipped to date a total of 37,818,274 tons, the quantity produced in the year 1902 being 3,683,792 tons, most of which was forwarded from the ports of Ashland and Escanaba.

The Vermilion Range has shipped to the close of the year 1902 a total of 19,061,506 long tons, the production in the year 1902 being 2,057,532 long tons, and the greater portion of the ore being forwarded to lower Lake ports by way of Two Harbors.

The Mesabi Range, in the State of Minnesota, the latest of the Lake Superior ranges to be opened in the United States, dates from the year 1892. The total shipments to the close of 1902 have amounted to 53,747,807 long tons, the production in 1902 being 13,080,118 long tons. This production represents almost one-half of the entire output of the Lake Superior region, or 37 per cent of the total for the United States for 1902. The greater part of the ore is shipped from the ports of Two Harbors and Duluth, in Minnesota, and Superior, in Wisconsin.

A sixth range was opened in Canada in the year 1900, the total output to the close of 1902 amounting to 591,176 long tons, the greater portion of which was sent to the United States from the port of Michipicoten, in the province of Ontario.

Mineral Re80Ubge8.

This Canadian ore is not included in the table given below, which shows the production of each of the five ranges in the Lake Superior region from 1889 to 1902, inclusive.

Production of Lake Superior iron oreSf by ranges 1889-190S, [Maxims in italics.]

Range.

Long tons.

Marquette

Menominee

Gogebic

Long tons. 2.631,026 1,876,157 2,147,923 864,506

Long tons. 2,863,848 2,274,192 2,914,061 891,910

Long tons. 2,17%, 4S2 1,856,124 2,041,754 945,105

Long tons. 2,848,552 2,402,196 3,058,176 1,226,220 29,245

Long tons. 1,935,379 1,256,255 1,523,451 1,065,229 1,913,284

Long tons. 1,982,080 1,794,970 2,625,475 1,027,103 2,839,350

Vermilion

Meaabi

Total

Range.

Marquette

Menominee

Qogeblc

Long tons. 2,418,846 1,768,285 2,100,398 1,200,907 3,082,973

Long tons. 2,678,785 1,767,220 2,163,068 1,381,278 4,220,161

Long tons. 2,987,990 2,275,664 2,652,205 1,125,538 4,837,971

Long tons. 3,634,596 3,281,422 2,725,648 1,643,984 6,517,305

Long tons. 3,9i5,068 3,680,738 3,104,033 1,675,949 8,158,450

Long tons. 3,597,069 3,697,406 3,041,869 1,806,996 9,303,541

Long tons. 3,734,712 U,U!l,tSO 3,683,792 g, 057, 532 13,080,118

Vermilion

Mesabi

Total

From the foregoing it will be seen that in the year 1902 the Mesabi range ranked first, contributing 13,080,1 18 long tons, its maximum output. In 1902 the Menominee range continued to occupy second place, with its maximum production of 4,421,250 long tons. The Marquette range was third, with a total of 3,734,712, ranking next to its maximum year, 1900, when 3,945,068 long tons were won. The Gogebic range reached its maximum in 1902, contributing 3,683,792 long tons; and the Vermilion range also showed its maximum output of 2,057,532 long tons in 1902.

The following cargo analyses of Lake Superior iron ores shipped in 1902 were supplied through the courtesy of the Lake Superior Iron Ore Association:

Ibok Obes.

Complete average cargo analyses of Lake Superior iron oreSf season of 190g,

Gogebic Range.

[The upper line of figures opposite each ore Tepreaents its analysiB when dried at 212° Fahrenheit; the lower line, when in its natural condition.]

Ore.

Iron.

Phoephorus.

Silica.

Mangacneae.

Alumina.

Lime.

Sulphur.

Loss by ignition.

Moisture.

Ashla.nd .

Anvil.

Anvil special a.

Argos.

Atlantic .

Aurora.

Bonnie.

Buckeye .

Cary.

Gary Empire . Chicago

f60.7

r60.9

Chicago Soft a... Colby Beasemer .

Hennepin

Iron Belt

Iron ton

LAwrenoe

Lyona

Melrosea

HelroeeNo. 2a.. Meteor

Peret.

f52.00

[56.26 [58.67 [51.48 r60.02 [54.7963 (57.93 [52.2876 p. 0000 [54.7499 (61.60 [56.580

Perct.

'040

Perct. 4.1B14

Perct.

Perct.

Perd.

Perd.

Perct.

.0U6

Perct,

a Expected analysis for the season ol 1906.

Iv:

Mineral Be80Ubge8.

Complete average cargo analyses of Lake Superior iron ores, season of 190X — Gontinaed.

I Lom

Ore.

Iron.

Mikado.

Montreal.

Montrose a.

Nelson .

New Eraa.,

New Era No. 2a..

Newport a.

Norrie .

Norden .

Ottawa.

Ottawa Mang . . .

Palms 4 .

Rand .

Rowe .

Sunday Lake a.. Taylor

Tilden .

Upson.

Winona .

Wisconsin

Yale.

Abbotfiford. Alford

E

Is-

Phosphorus.

Silica.

Perct.

.04698&#x27; .080 I .081 I .0880 &#x27;

Per el.

Manganese.

Perct.

Alumina.

Perct.

Lime.

Perct.

ne3i.

Perct.

Sulphur.

by ignition.

Perct.

Moisture.

Per cL

M.A.Rqcette Range.

a Expected analysis for the season of 1903.

'

Ic

Ibon Ores.

Complete average cargo analyses of Lake Superior iron ores, season of MARQUETTE RANQE-Gontlnued.

Ore.

Iron.

Phosphorus.

Manganese.

Alumina.

Lime.

n'Sfi:

Sulphur.

Loss

Moisture.

Peret.

Perd.

Per el.

Perct.

Peret.

Perd.

Peret.

Para.

Angeline, hard ..

ADgenline hematite

AngeUne,South..

A vfrhart

Banowo

Banwai

Beaufort

Beade

Bell

Bedford

Bereafoid

Bigelowa

Bnffalo , . .

Oambriaa

Oambxldge

Cain¥>o ,

Outlefoid

Champion No. 1, cnuhedo

atitea

CShatfotda

Chester No. la...

Chester No. 2

Cliffs Shaft, crush-

Cliffs Shaft, lump iTomntde

New York..

aExpected analysis for the season of 1908.

Digitized

M B 1902 1

Mineral Besouboes.

Complete average cargo analyses of LaJx Superior iron oreSy season of 190£ — Continued. MARQUETTE RANQK-ConUnued.

Ore.

Iron.

Phosphorus.

Silica.

Manganese.

Alumina.

Lime.

n'Se:

Sulphur.

by ignition.

Moifitnre.

,

Per a.

Perd.

.

.

Perct.

Pa-eu

Imperiala

Jackson, South...

Lake

n.99

Lilliea

Michigamme

Mitchell

Negaunee

NMfaunee non- Becsemera

Norfolk Bess, cilisheda

Norfolk non-Bess, crashed

Princeton No. la.

Princeton No. 2..

Republic crushed

netic

Republic specular

Richmond

Rosea

Salisbury

Tilden Silica

.W8

a Expected analysis for the season of 1908.

Ibon Obe8.

CbmpUie average cargo analyses of Lake Superior iron ores, season of 190S — Continaed.

Menominee Range.

Ore.

Iron. Per at.

Phosphorus.

Silica.

Manganese.

Alumina.

Lime.

nefl&.

Sulphur.

Loss by ignition.

Moisture.

Perd,

Perd.

Perd.

Perd.

Perd.

Perd.

'8.2668

Atfleld

Armenia

Aiax

Baltic

p. 5000

Barfield

Barton

Bristol

p. 65

p. 0065

p. 50

Clearfield a

Cliffords

p. 60

Crystal FftllH

p. 600

Davidson

p. 75

Davy

p. 885

Florence

p645

Qenfi0ep'>

p. 100

Granada

Oray

Groveland

Great Western...

pioo

Hemlock

Hiawatha

eetedanc

ilysisfof

the seal

ion of 19

Jigitized

,v5§le

Mineral Besouboes.

Complete average cargo analyses of Lake Superior iron ores, season of 190£ — Continaed. MENOMINEE RANGE— Continued.

Ore.

Kimball a.

Lamont.

Lerida.

Lincoln .

Loretto .

Manganate No. 1.

ManianatQ No. 2.

Monongahela, Non-BesB.a

Michigan No. 1...

MUUe .

Northwestern..

Paint Rivera.

Pewablc .

Pewablc Genoa .

Iron.

Fa-cl.

f67. [62. f58.85 ' 154. 189 fSl.lO r52.88 (58. fl

r60.02

Phosphorus.

Rosena .

Russell.

San Jose .

Tobln .

Toledo .

Tyrone.

Verona.

Vivian a.

Walpole.

f56.80

f64.75

r59.050

f56.06

f58.48

r59.24

Perct.

.Too

Silica.

Perct.

Manganese.

Perct.

Alumina.

Perct.

Lime.

Perct.

Perct.

Sulphur.

Loss by Ignition.

Perct.

Perct.

Moisture.

L14eO

a Expected analysis for the season of 1908.

U

nCON ORES.

ChmpUte average cargo analyses of Lake Superior iron or, season of 1902 — Continued.

Mesabi Range.

Ore.

Iron.

Phosphorus.

Silica.

Manganese.

Ala- .

Lime.

Sulphur.

Loss by ignition.

Perct.

Moisture.

Perct.

Per el.

Perct,

Perct.

Perct,

Adams

Adams No. 2

Admiral a

Aunewa

Albanya

Audrey No. 2

Beaver i . .

BiwabikNo.2a..

Butler

Chisholm

dairtona

Commodorea

Columbian

Cofdca

.Wo

Crosbya

Cioxton

Cyproso

Dalley

Dulath

Elba

a£xpected analysis for the season of 1908.

Ic

Mineral Bjbsouboes.

Complete average cargo analyses of Lake Superior iron ores, season of ij?— Continaed.

MESABI RANGE— Continued.

Ore.

Iron.

Manga, nese.

Alumlna.

Lime.

Sulphur.

Losb

ture.

Perct, .0S09

Beret.

Perct,

Gtenoa

Giant

Island

Johnfltona

Jordan

Hale-Kanawha ..

Hawklnsa

Laurao

lift Roe o

Leetonia Bessemero

Leetonia Non- Bessemer

Leonardo

Lincoln

Longyeara

Mahoning

Malta

Minoicaa

Morrow Beasemera.. ..rr

Morrow Non-Besgemer

Mountain

Mountain Special

Oliver

a Expected analysis for the season of 1903.

Ic

Ibok Ores.

CompUU average cargo analyaes of Lake Superior iron ores, season of 1909 — Continued.

MESABI RANQ£--Gontinned.

Ore.

Iron.

Phofr phone.

SUica.

Manganese.

mina.

Tilme.

Sul. pbur.

Loss by ignition.

Moisture.

Peret. (60.68 (62.4946 (68.8920 (00.4280 (58.20 (61.00 (61.9418 (64.00 (62.06 (62.58 (67.6689

Per a.

Perct.

Perct,

Pillflbarv

Pillsbury No. 2...

Roberts

Saontiya

Shenangod

gnarta

SpraoeNo. 2a

Stephensa

geese

Stevcxuioii.

Thompson

ITOy a

Tnlial

Union

victona

Voicaii

Winlfredrt

a Expected analysis for the season of 1908.

Hinebal Be8Oub0Es.

Complete cmerage cargo analyses of Lake Superior iron ores, season of 19ttP— Continued.

Vermilion Bange.

Ore.

Jura

Pioneer .

PUot.

Red Lake.

Savoy.

fCl.i

" 167.'

'1610

r66.C

'l65.€

f52.

Soudan aillclous. . L.

m.

Soudan

Iron.

Phoephorufl.

Per a.

Zenith

Perct.

Silica.

Manganese.

Perct.

Ala-

Per dm

Lime.

Perct.

Perct.

Sulphur.

Low

Perct.

Perct.

Moisture.

Per ct.

Michipicoten Range.

Helen .

Distribution Of Iron-Ore Production In 1902, By

States.

Following custom, a rsum of the quantities and character of iron ores mined in 1902 in the various States is presented, the data being arranged in the order of importance of the States as producers.

Minnesota. — The mines which are at present developed in the State of Minnesota are all found on the Mesabi and Vermilion ranges; they produced in the year 1902 16,1375650 long tons of iron ore, valued at $23,989,227, or an average of $1.68 per ton. This is an increase over the 1901 production (11,109,537 long tons) of 4,028,113 tons, or 36 percent. This is certainly a phenomenal record; for it represents a larger quantity' of iron ore than was mined in the whole of the United States prior to the year 1890; it also exceeds the quantities mined in 1891, 1893, and 1894. All of this ore was of the red hematite variety, giving Minnesota first rank in this class of ore, with 50 per cent of the total for the United States. It is probable that there has been more active exploitation in the year 1902 in Minnesota than in any of the other States, and a number of mines have been added to the producing list, some of which will be important contributors in of

ntoN ORES. 57

the new exploitations furnish ore of a grade which, until the late abnonnal demand, was deemed undesirable, no available market formerly existing for it.

Michigan. — Although the iron-ore production in the State of Michigan in the year 1902 (11,135,216 long tons) did not entitle it to first position, the production showed an increase of 1,481,148 tons over the 1901 output of 9,654,067 long tons. Of the output in 1902, 11,079,124 long tons were of the red hematite variety, in which Michigan took second place, and 56,091 tons were magnetite, giving it fifth rank among the producers of this class of ore.

Alabama. — Alabama occupies third position as an iron-ore producer, with a total output in 1902 of 3,574,474 long tons, of which 2,665,635 tons, or 72 per cent, were of the red hematite variety, and 1,008,839 long tons, or 28 per cent, were brown hematite, giving the State third and first ranks, respectively, as a producer of these classes of ores.

Virginia and West Virginia. — Statistics of the State of West Virginia have been included with those of Virginia in order to follow the practice of the United States Geological Survey of holding individual mine statistics confidential. The former State contributed but a small quota to the country's supply.

The total quantity furnished by these two States in the year 1902 was 987,958 long tons, an increase of 62,664 long tons, or 7 per cent, over the 1901 total of 925,394 long tons of ore. Of this amount 953,128 tons, or about 96.6 per cent, was of the brown hematite variety, 31,677 tons, or 3. 2 per cent, red hematite, and 3,153 tons, or 0.3 per cent, magnetite. The two States combined occupy second position as producers of brown hematite ore, eleventh position in the red hematite class, and seventh in the magnetite class.

During the year 1902 a considerable amount of ore was brought into Virginia from the Lake Superior region and used to supplement the local ore supply.

Tennessee. — Tennessee increased its output from 789,494 long tons in 1901 to 874,542 long tons in 1902, a gain of 85,048 long tons, or 10.8 per cent. The greater part of this output, 603,899 tons, was of the brown hematite variety, and the remainder, 370,643 tons, was red hematite. The State occupied fifth position as a producer in 1902.

Pennsylvania. — Pennsylvania has fallen from fourth to sixth position as a producer of iron ore, owing mainly to the reduced output of one of the large producing mines. The total for the year 1902 was 822,932 long tons, a decrease of 217,752 tons from the 1901 production of 1,040,684 long tons. This State contributed three classes of ore; 616,645 tons were of the magnetite variety, 185,846 tons of the brown hematite variety, and 20,441 tons were red hematite. Consequently Pennsylvania ranks first, sixth, and twelfth, respectively, in the production of magnetite, brown hematite, and red hematite ores. i

Wwcondn. — Wisconsin occupies seventh position as a producer, with a total of 783,996 long tons of iron ore, an increase of 45,128 long tons over the 1901 production of 738,868 long tons. Of this total, 758,316 long tons, or 96.7 per cent, were of the red hematite variety, and 25,680 tons, or 3.3 per cent, of the brown hematite variety.

JPeio York. — In the year 1902 New York contributed 555,321 long tons of iron ore, an increase of 135,103 long tons, or 32 per cent, over the 1901 total of 420,218 long tons. The greater portion of this, 451,570 tons, was of the magnetite variety, obtained from the Lake Champlain district; 91,075 tons of the remainder were of the red hematite class, and 12,676 tons were brown hematite.

J/ew Jersey. — The production of the New Jersey iron-ore mines in the year 1902 was 441,879 long tons, an increase of 39,890 long tons, or 9.9 per cent, over the 1901 output of 401,989 long tons. All of this ore was of the magnetite variety, in which class New Jersey occupies third position. There was considerable exploitation in 1902 of a number of iron-ore deposits formerly worked, which accounts for the augmented output.

Georgia cmd North Carolina. — These two States have been combined, but North Carolina's contribution is comparatively small. The total amount mined in 1902 was 364,890 long tons, of which 216,242 tons were brown hematite, 117,812 tons red hematite, and 30,836 tons magnetite.

Colorado. — Colorado holds twelfth rank as a producer of iron ore, having in the year 1902 contributed 293,297 tons of iron ore, which was used in the production of pig iron and as a flux in the smelters. This shows a falling off of 110,740 tons from the 1901 output of 404,037 tons. With the exception of 4,375 tons of red hematite, all of this ore was of the brown hematite variety. The ore which was sent to the smelters contained a mixture of iron and manganese, and often also a small percentage of silver. As the silver was insufficient to make it valuable as a precious-metal ore, it is classed as iron ore.

In the western States and Territories there has been a marked increase in the production of iron ore in order to supply the demands of the growing iron industry in Colorado and the demands of the smelters for argentiferous iron ores used as a flux in the production of the precious metals.

In the year 1902, Montana, New Mexico, Utah, and Wyoming produced a total of 362,034 long tons, of which 255,269 tons were of the red hematite variety, 88,686 tons were magnetite, and 18,079 tons of the brown hematite class.

Other Stages. — Kentucky and Missouri contributed both red and brown hematite, Maryland brown hematite and carbonate ore, and the

ntoK OB1C8. 59

New England States brown hematite. Ohio's output was of the carbonate variety, in which class this State occupies first position. Texas contributed a small quantity of brown hematite.

PBOMnSTENT IBON-OKB PEODTTCBBS.

During the year ending December 31, 1902, 126 iron-ore operations in the United States each produced 50,000 or more long tons of iron ore, the total for the 126 mines being 31,661,628 long tons, or 88.8 per cent of the production for the country.

Of these larger mining operations reported in the year 1902, 102 produced 28,584,023 long tons of red hematite; 14 contributed 1,303,484 long tons of brown hematite; 7 supplied 1,255,358 long tons of magnetite; 2 mines furnished a mixture of 330,439 long tons of red hematite and magnetite, and 1 mine a mixture of 88,324 long tons of red and brown hematite.

Of these larger mining operations 46 are in Michigan, 35 in Minnesota, 15 in Alabama, 7 in Tennessee, 5 in Wisconsin, 4 each in New Jersey and Virginia, 3 in New York, 2 each in Colorado and Georgia, and 1 each in Pennsylvania, Wyoming, and New Mexico.

Of these 126 operations 1 contributed over 1,800,000 long tons, 1 over 1,600,000 tons, 1 over 1,400,000 tons, 2 over 1,200,000 tons, 1 over 1,000,000 tons, 2 over 900,000 tons, 1 over 700,000 tons, 8 over 600,000 tons, 5 over 500,000 tons, 3 over 400,000 tons, 7 over 300,000 tons, 16 over 200,000 tons, 32 over 100,000 tons, and 52 between 50,000 and 100,000 long tons.

The following table gives a list of the larger mining operations of the United States in the year 1902, together with the States in which they are located and the quantity produced by each, except 15 mines producing 1,663,277 long tons, the managers of which objected to publication; but the totals of these unidentified mines have been ouped and placed at the end of the table:

Prominent ironrore mines of the United States, with their production in 190$,

Long tons.

Fayal, Minn 1,863,863

Mountain Iron and Bathbun, Minn 1,629,577

Stevenson, Minn 1,434,719

Adams, Mich 1,245,006

Bed Moontain Group, Ala.:

Moflcado 454,057

Mahoning No. 8, Minn 1,035,216

Ghapin, Micli 932,468

Nome Group, Mich 923,352

Lake Superior, Mich 757,959

Pioneer, Minn 669,746

Ic

Long tons.

Biwabik,Minn 623,045

Aragon, Mich : 611,181

Cornwall, Pa 594,177

Chandler, Mum 593,750

Cleveland Iron Mining Company, Mich. :

Cleveland Lake 484,432

Cleveland Hard Ore 74,743

Pewabic, Mich 538,497

Spruce Mining Company, Minn 535, 021

Aarora and Vaughn, Mich 492, 940

Tilden, Mich 441,123

Hull, Minn 409,259

Buffalo, South Buffalo, Prince of Wales, and Queen, Mich 381, 879

Genoa, Minn 380,238

Lake Angeline, Mich 376,600

Clark, Minn 348,518

Savoy-Sibley, Minn 324,865

Ashland, Mich 314,720

Minnesota Iron Company, Minn 307, 166

Cliffs Shaft, Mich 280,193

Penn Iron Mining Company, Mich 263, 069

Sauntry-Alpena, Minn 249,382

Newport and Bonnie, Mich 239, 506

Riverton Group, Mich 231,512

Rust, Minn 228,953

Elba, Minn 227,465

Sharon, Minn 221,835

Malta, Minn 220,587

Brown Mining Company, Tenn 219, 173

Sparta, Minn 212,310

Sunrise, Wyo 209,272

Chisholm, Minn 204,292

Champion, Mich 197,499

Crystal Falls, Mich 195,289

Sellers, Minn 193,650

Pillsbury, Minn 190,200

Cundy, Mich 183,052

Negaunee, Mich 180,516

Old Bed, N. Y 179,934

Salisbury, Mich 179,066

Carey, Wis 176,180

Penobscot, Minn 171, 756

Atlantic, Wis 166,009

Zenith, Minn 162,006

Jordan, Minn 148,013

Duluth, Minn 142,952

Montreal and Ottawa, Wis 142,886

Sunday Lake, Mich 142,315

Hemlock River, Mich 135,010

Fierro, N, Mex 132,940

Winthrop, Mich 129,496

Ibon Obes.

Long tons.

Port Henry No. 21, N. Y 119,467

Republic and West Republic, Mich 117,628

Mikado, Mich 112,014

Raimund, Ala 111,425

Clifford, Mich 110,506

Princeton, Mich 108,986

Oriskany, Va 108,610

Lincohi, Minn 106,158

Union, Minn 104,481

Armenia, Mich 102,623

Richards, N. J 100,656

Orient, Colo 99,165

Wharton Hibemia, N. J 97,596

Loretto, Mich 97, 409

Baltic, Mich 96,618

Anvil, Mich 93,424

Rich Patch, Va 90,000

Chateaugay, N. Y 89,993

Volunteer, Mich 89,111

Franklin, Minn 88,102

Columbia, Mich 86,452

Mansfield, Mich 81,493

Hiawatha, Mich 80,000

Liilie, Mich 78,452

Corsica, Minn 74, 818

Burt, Minn 74,716

Wood and De Camp, N.J 73,535

Tobinand Genesee, Mich 73,246

Grace's Gap, Ala 71,587

Quinnesec, Mich 70, 095

Tannehill, Ala 68,921

Iron Belt, Wis 68,015

E8telle,Ga 64,422

Great Western, Mich 62,900

Hammond Brothers & Co., Ala 61, 290

Cambria, Mich 59,926

Agnew, Minn 58, 500

Mannie, Tenn 58,216

Minorca, Minn 57, 799

Lone Pine 1, 2, and 3, Ala 57,749

Kawanee, Ala 57, 192

Pearce, Minn 54,950

Lamont, Mich 64,266

Brotherton, Mich 53,971

Hilhnan, Ala 63,478

Grant, Minn 53,270

Commonwealth, Wis 52, 015

Helen-Bess, Ala 51,794

Inman, Tenn v 60, 365

Total 29,898,351

Fifteen mines not reported by name 1, 663, 277

Total ,661,628"

No other country can equal this record of large producers. The table shows 10,272,780 long tons obtained from eight mines, and 16,248,270 long tons from 18 mines, all of which, with two exceptions, have their shipping operations limited by climatic conditions to about two hundred days annually.

Transportation Of Otxeb.

A large proportion of the iron ore which is mined in the United States is transported long distances to points of consumption. The greater part of the iron ore mined in the Lake Superior region is sent by rail and boat to furnaces located in Michigan, Wisconsin, Illinois, Ohio, Pennsylvania, New York, New Jersey, Virginia, Kentucky, and Missouri. From Wyoming and New Mexico the ores are hauled by rail to the furnaces in Colorado, and the Lake Champlain magnetites are sent to Pennsylvania iron and steel works. From the ore deposits in the Lake Superior region that are located farthest from points of consumption, the ore is shipped by comparatively short hauls, from 15 to 90 miles, by rail to the upper Lake shipping ports, being forwarded thence by vessel to lower Lake receiving ports and there distributed by rail. The ores of the Vermilion Range are usually shipped from Two Harbors, in Minnesota; those of the Mesabi Kange from Duluth and Two Harbors, in Minnesota, and Superior, in Wisconsin; those of the Gogebic Range from the ports of Ashland, in Wisconsin, and Escanaba, in Michigan; those of the Marquette Range from Marquette and Escanaba, both in the State of Michigan; and the ore from the Menominee Range is transported by Escanaba and Gladstone, Mich. The various railroads shipping the iron ore have extensive iron-ore docks at these shipping ports, and the following table, prepared by Mr. R. Angst, chief engineer of the Duluth and Iron Range Railroad, as revised to May 1, 1903, shows the number of these docks, their storage capacity, together with various details in regard to length and width of the docks, height from water to deck, angle of pockets, and length of spouts.

Ic

Ibon Obes.

t

o S ;$ :$ 9 ii S 9 SS S S S S 9 9 !9 S S SS !3 9 ? S

s§i§§i§§igssggg§i§§§§g§ §

O O O O Od O O

OCNOOOOOOOOOOOOOOOOOOaOOOaOOO cT c

io S So SS So 9 $ 9 9 9 9 9 9 9 S % S S $ @ S So §S S

fl

H

a

a

s s 8 U §§ a §" s s 8 5f s § sf a s §" ss §" :s g

Si§i§igiis|§ii§giiiii§s

-a

r-IOIr-(OICO-iOi-lC4eOiH'r-4rC4eOfHiH i-t r-(

O O Q O S O

"d -o -o p -o "O

g i

it

a

®

-a 3-22 5JS-3

S o

S ► c

tH

I 5l I I

Mineral Resources.

In the year 1902 the total amount of iron ore sent forward from Two Harbors was 5,605,185 long tons, an increase over 1901 of 586,988 long tons. Duluth was a close second, with 5,598,408 long tons; Escanaba was third, with 5,413,704 long tons; Superior fourth, with 4,180,578 long tons; Ashland fifth, shipping 3,553,119 tons; Marquette sixth, with 2,595,010 tons; and Gladstone occupied seventh position, shipping 92,375 long tons.

The total shipments by lake during the year 1902, as reported by the Iron Trade Review, amounted to 27,038,379 long tons. The shipments of iron ore from the different Lake ports, together with the allrail shipments, from 1895 to 1902, inclusive, are given in the following table. The shipments for the year 1902 are the maximum, and show an increase of 6,981,904 tons over the total for 1901:

Lake shipments of iron ore, 1S96-190S,

Shipping? port.

Two Harbors

Escanaba

Duluth

Ashland

Marquette

Superior

Gladstone

Total

All-rail shipments

Grand total .

Longtona. 2,661,465 2,802,121 2,876,064 2,067,637 1,945,519 531,825 341,014

Longtona. 2,693,245 2,803,513 2,685,262 2,391,068 2,245,965 650,403 335,956

Longlmxa. 3,973,733 3,720,218 3,509,965 2,703,447 2,783,596 878,942 881,467

Long tons. 4,007,294 3,436,734 8,888,986 2,633,687 2,661,861 1,522,899 418,864

Long torn, 6,018,197 4,022,668 3,437,955 2,886,262 2,354,284 2,321.077 117,089

Although the greater portion of this iron ore was sent to the lower Lake receiving ports, a considerable quantity went directly to furnaces at Chicago and Milwaukee, and to blast furnaces in the State of Michigan. On the other hand, some iron ore was shipped to lower Lake ports from the Michipicoten Range, in Canada, the ore thus sent forward in 1902 amounting to 207,596 tons. The remainder of the production of this range for 1902, 383,580 tons, was shipped directly to Canadian furnaces at Hamilton and Midland. The quantity of iron ore received at lower Lake ports in the year 1902 amounted to 22,649,424 long tons. In the table given below it will be noted that the ports of Cleveland, Ashtabula, and Conneaut, Ohio, are closely grouped, the three having received in 1902, 13,970,424 long tons, or 62 per cent of the total Lake shipments.

Buffalo and Tonawanda, N. Y., rank next, with 2,256,798 long tons; followed by Erie, Pa., and Fairport, Lorain, Toledo, Huron, and Sandusky, Ohio.

IRON ORES. Iron-are receipts at Lake Erie pi/rtjij 1896-1909,

Port.

ABhtabula,Ohlo...

Cleveland, Ohio

Conneaat, Ohio

WAnda,N.Y

£rie,Pli

Longtona.

Longtona.

Longtona.

Longtona. 2,684,563 2,645,818 1,404,169

Longtona. Longtona. 3,841,526 3.709,486 3,222,682 3,876,644 2,820,696 2,556,631

268,60o| 821,914 87,499 154.542

Longtona. 3,981,170 8,831,060 8.181,019

Longtona, 4,796,806 4,873,818 4,800,301

FUrport,Ohio

Toledo, Ohio

Lorain, Ohio

Huon, Ohio

Sandusky, Ohio

Total

When the ore is received at lower Lake ports it is either loaded directly into iron-ore cars and shipped to the blast furnaces, or it is stocked in immense piles on the docks, and, although the quantity forwarded dii-ectly to furnaces has increased in late years, large quantities are on hand at the various Lake Erie docks at the close of the navigation season to be drawn upon during the winter when transportation on the Great Lakes is prevented by ice.

The stock of ore on hand at lower lake ports on December 1, 1902, b given as 7,074,264 long tons, an increase of 1,214,591 tons over 1901. Ashtabula and Cleveland had nearly one-half of the total stocks of ore on hand December 1, 1902.

The following table shows the stocks of iron ore on hand at lower Lake ports at the close of navigation December 1, 1902, and also at the opening of navigation May 1, 1903, from 1896 to 1902 and 1903, inclusive:

Sloch of iron ore at lower lake porUy 1895-190S,

Port.

At cloae of navigation, December 1—

Aflhtobnla, Ohio... Cleyeland,Ohio

Faizport, Ohio

Brie, Pa

Longtona.

Longtona. 1,441,666 1,419,811 773,905 355,222 231,288 275,800 115,960 200,075 82,267 69,491

Longtona.

Longtona.

Longtona.

Longtona.

Longtona.

Longtona,

Lorain, Ohio

Conneanty Ohio

T6ledo,Ohio

Huron, Ohio

Bnffalo,N.Y

8andiisk7.0hio

Total

M B 1902 5

iC

Slocks of iron ore cU lower lake potttt, 1895-190S — GontiDued.

At opening: of navigation. May 1—

Long tons.

Long tons.

Long tons.

Longtona.

Ashtabula, Ohio...

Cleveland, Ohio

Erie, Pa

Lorain, Ohio

Conneaut, Ohio

69p047

Toledo, Ohio

Huron, Ohio

Bul&ilo,N.Y

Sandusky, Ohio

VAIiUE OF IRON OBES.

The total value at the mines of the 35,554,135 long tons of iron ore produced in the United States during the year ending December 31, 1902, was $65,412, 950, an average of $1.84 per ton, and an increase of 13 cents per ton, or 7.6 per cent, over the 1901 figures, $1.71 per long ton.

This valuation does not correspond to the selling prices of ores, nor is it presented as cost. The query by the United States Geological Survey, submitted to each mine, reads as follows: "Give total value on cars or carts, at the mine, of the iron ore produced during the year, royalty, if any, included, but exclusive of hauling to points of shipment or consumption. The gross commercial value of the ore at the mine, not cost or profit, is asked for."

The selling prices of ores are influenced by their composition, distance from market, etc., and in making up this selling price, cost, royalty, sinking fund, administration, profit, and transportation charges are considered.

The basis for fixing the value of Lake Superior iron ores adopted by the Bessemer Ore Association for the year 1902 was as follows:

Old Range Bessemer ores, basis price $4.50 per long ton, free on board at lower Lake ports, guaranteed to contain 63 per cent of metallic iron, 0.045 per cent of phosphorus, and 10 per cent of moisture when dried at 212 F., equivalent to 56.7 per cent metallic iron in the ore in its natural condition.

Old Range non-Bessemer ores, basis price $3. 60 per ton, free on board at lower Lake ports, guaranteed to contain 60 per cent of iron and 12 per cent of moisture when dried at 212° F., equivalent to 52.8 per cent iron in the natural condition.

Ic

Iron Ores.

Mesabi Hange Bessemer ores, basis price $4 per ton free on board at lower Lake ports, the guarantee of iron, phosphorus, and moisture being the same as for the Old Range Bessemer.

The Mesabi non-Bessemer ores had a basis price of 98.20 per ton free on board at lower Lake ports, and were guaranteed to contain 60 per cent of iron and 12 per cent of moisture. These ores are divided into three classes, accoixling to their physical structure, as determined by sieve tests. The second class basis is 10 cents and the third class 25 cents per ton below the prices placed on the first class.

When the ores contain iron or phosphorus above or below the fixed guaranty the price is adjusted accordingly. The basis price of the Old Range Bessemer oi-e in 1902 was 25 cents per ton above that for 1901.

The reports from the various States show the highest average value per ton in 1902 was in Colorado, $3.52 per ton; but some of this ore contained in addition to iron some manganese and a small amount of precious metals, and had an augmented value as a fluxing medium and because of the relative high cost of labor. The lowest average value reported was in Texas, 99 cents per ton, this value being due to the fact that only a limited amount of ore was mined, principally by convict labor.

The production of iron ore in the United States in 1902, by States, together with the total value at the mines, and the average value per ton in each State, are given in the following table:

QtuxntUy and value of iron ore produced in 190£y by States.

State.

Quantity.

Total value at mines.

Average

value per

ton.

Minnesota

Michigan

Alabama

Virginia and West Virginia

Tenneawe

Fennsyl vania

Wisconsin

New York

New Jersey

Georgia and North Carolina

Montana, New Mexico, Utah, and Wyoming .

Colorado

Kentucky

Missouri

Connecticut, Massachusetts, and Vermont

Maryland

Ohio

Texas

Totol .

Long tons.

Minebal Besouboes.

Stocks Of Obe.

In the States included in the Lake Superior iron-ore region the bulk of the ore mined is transported by water from shipping ports on Lakes Superior and Michigan to the receiving docks on Lake Erie. As traffic on the Great Lakes is suspended during the winter months, the ore which is mined during the time that navigation is closed must be stocked. For this reason, at the end of each calendar year large stocks of ore are reported by the mines in the States of Michigan, Minnesota, and Wisconsin. On December 31, 1902, the total stock for these three States was 3,578,809 tons, or about 93 per cent of the aggregate stock of iron ores for the United States, which amounted to 3,834,717 long tons. This total is 405,106 tons less than the quantity, 4,239,823 long tons, reported on hand December 31, 1901.

The stock of ore reported on hand at all mines represents 10.8 per cent of the production of iron ore in the United States for the year 1902.

The following table illustrates, by States, the stocks of ore on hand at the mines December 31, 1902:

Stocks of iron ore on hand mines December SI, 190S,

State.

Quantity.

State.

Quantity.

Minnesota

Michigan

Alabama

Virginia and West Virginia

Tennessee

Wisconsin

Pennsylvania

New York

New Jersey

Montana, Nevada. New Mexico, Utah, and Wyoming

Longtons, 1,114.197 2,286,105

Long ions.

Colorado t ,

Georgia and North Carolina ,

Kentucky ,

Missouri

Connecticut, Massachusetts, and Vermont

Maryland

Ohio

Texaa

Us

Total .

Imports.

Through the courtesy of the Bureau of Statistics of the Department of Commerce and Labor data have been secured showing the imports and exports of iron ore into and from the United States during the calendar year 1902.

From the table presented it will be seen that 1,166,470 long tons of iron ore were imported, which were valued at $2,583,077, an average value of $2.22 per ton. This is an increase of 198,520 tons, or 21 per cent over the quantity imported in 1901, 966,950 tons. The values of the iron ore, as given in the table, are those at the point of shipment, and do not include transport or duty charges. The high value given in some cases is due to the presence of some other chemical constituent

than iron ore.

Ibon Ores.

The following tables show the quantity and value of iron ores imported into the United States and the countries from which the ores were shipped from 1896 to 1902, inclusive, and also the imports by the domestic ports at which they were received.

Qiumiity and value of iron ores imported into the United States, 1896-190, by countries

Imported from—

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Cuba r

Long tons. 880,551 121,132 79,661 29,882 33,750 20,800 8,150 1,101 4,251

Long tons.

Long tons. 165,623 13,835

Spain

French Africa

Italy

Greece

Newfoundland and I/labrador

United Kingdom

Colombia

Portugal

Other countries

Total

Imported from—

Quantity.

Value.

Quantity.

Long tons.

Value.

Quantity.

Value.

Quantity.

Value.

Cuba

Long tons.

Long tons.

Long tons.

French Africa

Italy

Greece

r 79, 860

Newfoundland and Labrador

United Kingdom

Colombia

British Columbia

Germany

Netherlandu

Quebec, Ontario., etc . .

Venezuela

Sweden and Norway. . .

Belgium

France

Other countries

ft99

Total

a Newfoundland only.

hOl this amount 87 tons, valued at $442, came from Mexico, and 12 tons, valued at $27, from the French West Indies.

Cuba is the most important contributor to the supply of iron ores of the United States, over one-half the total imports, 696,375 tons, having come from that island. The next largest supply, 203,824 tons, came from Canada, the greater portion being obtained from the Mick*

iC

Mineral R£80Ubce8.

ipicoten Bange, in the Province of Ontario, wliich was forwarded to the United States by way of the Great Lakes. There were 153,527 tons imported from Spain and 81,920 tons from Newfoundland, and Algeria (French Africa) supplied 19,167 tons. All of the other countries in the table were unimportant contributors

About one-half of the ore imported was received at the port of Baltimore, Md., and more than one-fourth at Philadelphia, Pa., the total for the two ports being 939,659 tons, or 81 per cent of the total, the same proportion as in 1901.

The figures by customs districts for the years 1898 to 1902, inclusive

, are as follows:

Imparts of iron ore into the United SUUes, 1898-190, by customs districts.

Port.

Quantity.

Value.

Quantity.

Value.

Baltimore.,

Long tons.

Delaware

Philadelphia, Pa

NewYork, N. Y '

Boston, Mass

Newport News, Va ,

Total .

Cape Vincent, N. Y

Buffalo Creek, N. Y

Cuyahoga, Ohio

Champlain, N. Y

Detroit, Mich

Genesee, N. Y

Oswegatchie, N. Y

Vermont

Erie

Miami

Total lake ports

Puget Sound, Wash

San Francisco, Cal '

San Diego, Cal - - - -

Lo6 Angeles, Cal

Total Pacific ports

Pittsburg, Pa

Eyansville, Ind

Total interior ports

Total imports

Isok Ores.

Impcris of iron ore into the OnUed States 1898-190, by customs districts —

Port

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Long tons.

Long tons. 484,066

Ddawftre

PhilAdelphia, Pa

New York. N. Y

Bonton, Man

Newport Newa, Va

Norfolk and Portsmoatli, Va.

Total Atlantic porta. . . .

Cape Vincent, N. Y

2Kr

Coyahoga, Ohio

r!>#mpuin, V. y. ..

Detroit, Mich

Genesee N. Y

Oswegatchie, N. Y

Vermont

Erie

Total lake porta

Puget tionnd, Waah

San Franclwo, Ol

Lot Angeles, Gal

Total Pacific ports

Totol interior porta

Total imports

Exports.

During the year 1902, 88,445 long tons of iron ore, valued at $294,168, were exported, nearly all of which were sent to Canadian blast furnaces to be used in the ore mixtures fed to blast furnaces.

Ic

Motebal Bssouboes.

The following table gives the ports from which the various quantities were exported during the years 1899, 1900, 1901, and 1902:

Exports of iron ore from the United States, 1899-190S.

Customs district.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value,

New York

Long Urns,

Long tons.

Longions.

U,889

Superior

Duluth

Paso del Norte

Saluria

Detroit

Huron

Newport News

Buffalo Creek

2S1

Vermont

Total

Cuba.

Cuban iron ores in the year 1902 were supplied by three producing companies from mines located in the province of Santiago de Cuba, in the southeastern portion of the island, close to the Caribbean Sea. The properties are owned and operated by United States companies, and all of the iron ore produced during the year 1902 was brought to this country. The three producing companies in 1902 were the Juragua Iron Company (Limited), which commenced shipments in the year 1884; the Spanish- American Company, which first shipped ore in 1896, and the Cuban Steel Ore Company, which commenced operations in 1901. The total quantity shipped by the three companies in 1902, 699,734 long tons, was the largest quantity yet forwarded in any one year. The Cuban Steel Ore Company went out of business at the end of te year 1902, and its mines are now closed.

In 1892 the Sigua Iron Company commenced operations, and shipped a few cargoes in that and the following year, after which mining ceased.

Ibok Ores.

The following table, prepared by Mr. Josiah Monroe, shows the annual shipments from the various mines from the time they began operations to the close of the year 1902:

ShipmenU of iron ore from mines in (he province of Santiago de Cuba,

Yeu.

Juiaffua Iron Company, Ltd.

Sigualron Company.

Spanish- American Iron Company.

Steel Ore Total. Company.

Longtont.

Longtona.

Long tont.

Long tons: 25,296

1S66

l206,029

Total

a Of thiB quantity, 5,982 tons were sent to Picton, Nova Scotia. h Of this quantity, 61,587 tons were sent to foreign ports. c Of this quantity, 12,691 tons were sent to foreign ports.

Total 70,160 tons sent to foreign ports.

Ic

Statistics Of The American Iron Trade For 1902.

By James M. Swank,

General Manager of the American Iron and Steel Associaiion,

Brief Review Of The Iron Trade In 1902.

The prosperity of the iron and steel industries of the United States, heretofore referred to, continued through the year 1902 and still continues in May, 1903. There have been, however, two serious checks to this prosperity, but happily these no longer exist, and the outlook for the continued prosperity of the iron trade of this country during the remainder of the present year is all that could be desired. The first of these checks was the anthracite coal strike, which began on May 12, 1902, and lasted until October 23 of the same year, when there was a general resumption of work at the mines. During the interval of twenty-three weeks the scarcity of anthracite coal restricted the operations of Eastern iron and steel manufacturers, but for several months there has been an abundance of anthracite coal for all purposes. The other check to the prosperity of the iron trade was caused by an aggravation in the last six months of 1902 and in the early months of 1903 of a previously existing trouble in the form of inadequate railway transpoiiation. This hindrance to the prompt delivery of raw materials and the prompt removal of finished products has now been practically overcome. Owing to the influences already referred to and to the extraordinary demand for iron and steel, prices advanced somewhat in 1902, but most advances were checked early in 1903. For these combined reasons the imports of iron and steel greatly increased in 1902, and the exports decreased. At the present time the tendency is strongly toward decreased importations in 1903.

IMPORTS OF IRON ANJy STEEIi.

The following table, compiled from the reports of the Bureau of Statistics of the Department of Commerce and Labor, gives the quantities of leading articles of iron and steel and of iron ore and

Mineral Resoitrcks.

nese ore imported into the United States in the four calendar years 1899, 1900, 1901, and 1902.

Imports of iron and gtedy 189190fS.

Article.

Pig iron, spiegeleisen, and ferromanganefle,

Scrap iron and scrap steel

Bar iron ,

Iron and steel rails

Hoop, band, or scroll iron and steel ,

Steel ingots, billets, structural steel, etc . . . Sbeet, plate, and taggers' iron and steel ...

Tin plates

Wire rods, iron and steel

Wire, and articles made from ivlre

Anvils

Chains

Total

Iron ore

Manganese ore

law.

Long tons.

Long Urns.

Longtont.

The total imports of iron and steel; including machinery, cutlery, firearms, etc., for which weights are not obtainable, amounted in foreign value to $41,468,826 in the calendar year 1902, against $20,395,015 in 1901, $20,443,911 in 1900, and $15,800,579 in 1899, an increase in 1902 as compared with 1901 of $21,073,811, or over 100 per cent.

Of the pig iron imported in recent years a large part was spiegeleisen and ferromanganese, which pay duty as pig iron, but in 1902 there was a great increase in the importations of foundry and Bessemer pig iron,

BXPOBTS OF IRON AND STBBIi.

The following table, also compiled from the reports of the Bureau of Statistics of the Department of CJommerce and Labor, 'gives the exports of leading articles of iron and steel and of iron ore and locomotives in the calendar years 1899, 1900, 1901, and 1902.

Exports of iron and sled, 1899-190S.

Article.

Longions.Long Um.

Longtons.

Pig iron

Scrap and old, for remanoiacture . .

Bar iron

Band, hoop, or scroll iron and steel Bars or rods of steel not wire rods. .

Steel wire rods

Billets, ingots, and blooms

Cut nails and spikes

Wiie nails

Longtons.

AMERICAN IRON TRADE FOR 1902. Exports of iron and steel, 1899-190 — Contmaed.

Article.

All other nails, Including tacks

Iron plates and sheets

Steel plates and sheets

Iron calls

Steel rails

.Stractoral iron and steel

Wire

Total

Iron ore

Locomotives number..

' 2,076

Long ions.

Long Urns. 2,244 8,434 67,455 58,869 97,848

The total exports of iron and steel, which include locomotives, car wheels, machinery, castings, hardware, saws and tools, sewing machines, stoves, printing presses, boilers, etc. , amounted in the calendar year 1902 to 197,892,036, against 1102,534,575 in 1901, $129,633,480 in 1900, $105,690,047 in 1899, $82,771,550 in 1898, and $62,737,250 in 1897. The exports of iron and steel more than doubled in value from 1897 to 1900, but there was a shrinkage in 1901 as compared with 1900 of $27,098,905, or over 20 per cent In 1902 there was a further shrinkage, but it was not so pronounced as in 1901, owing to the advance in prices.

EXPORTS OF AGRICUIiTURAIi IMPIjEMENTS.

The exports of agricultural implements, which are not included above, amounted in the calendar year 1902 to $17,981,597, against $16,714,308 in 1901, $15,979,909 in 1900, $13,594,524 in 1899, $9,073,384 in 1898, and $5,302,807 in 1897.

Imports Op Iron Orb.

The following table, taken from the reports of the Bureau of Statistics of the Department of Commerce and Labor, gives the quantities and values of iron ore imported into the United States during the calendar years 1900, 1901, and 1902, by customs districts.

Imports of iron ore, by customs districtSy 1900-1909,

District.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Baltimore

Longtont. 448,660 25,878 414,064

Long tons.

Long tons.

Piiffet Somid . a .a

Vermont

All other

Total

The imports of iron ore in 1902 were almost 200,000 tons larger than in 1901, the increase being wholly due to increased imports from Cuba and Canada. Mr. Josiah Monroe, secretary and treasurer of the Juragua Iron Company, Limited, has kindly furnished the following detailed report of the shipments to the United States of Cuban iron ore in 1902, all the producing mines being located in the province of Santiago de Cuba.

The following companies shipped iron ore to the United States in 1902: The Juragua Iron Company, Limited, 221,039 long tons; the Spanish-American Iron Company, 455,105 tons; the Cuban Steel Ore Company, 23,590 tons; total shipments, 699,734 tons. The Cuban Steel Ore Company went out of business at the end of the year and its mines are closed. No iron ore was shipped from Cuba in 1902 to any other country than the United States.

Mr. Monroe also furnishes the following statistics of the total shipments of iron ore from Cuba from the beginning of shipments in 1884 to the close of 1902: By the Juragua Iron Company, Limited, 3,911,795 long tons; by the Sigua Iron Company, 20,438 tons; by the Spanish- American Iron Company, 1,777,118 tons, and by the Cuban Steel Ore Company, 41,241 tons; total, 5,750,692 tons.

liAKB SUPERIOR IRON-ORE SHIPMENTS.

The Iron Trade Review gives full details of the shipments oi iron ore from the Lake Superior region in 1902 and in preceding years. Its figures show that the total shipments by water and by all-rail routes in 1902 amounted to 27,571,121 long tons, against 20,589,237 tons in 1901, an increase of 6,981,884 tons, or 33.9 per cent. The shipments in 1902 from the Helen mine, on the Canadian side, 298,420 tons, are not included. If added, we find that 27,776,619 tons of Lake Superior iron ore were shipped last year.

The Beview says that 133 mines on the five Lake Superior ranges shipped iron ore last year, against 104 mines in 1901. The distribution is as follows: Marquette, 19; Menominee, 34; Gogebic, 27; Vermilion, 5; Mesabi, 48. The great gain was on the Mesabi range, where 17 new active mines appear. Strictly speaking, says the Review, more than 133 mines shipped iron ore last year, as the Cleveland-Cliffs Iron Company's mines on the Marquette range are considered as though they were one mine. There are other similar cases.

The shipments from the United States Steel Corporation's mines in 1902 amounted to 16,136,787 tons, or 58.5 per cent of the whole. This is apart from one-half of the 530,291 tons shipped from the Pewabic mine, in which the Carnegie Steel Company has a one-half interest, and also omitting the 28,106 tons shipped from the Iron Ridge mine in Wisconsin, belonging to the Illinois Steel Company. This mine is

Ic

Amekican Iboi9 Tbade For 1902.

remote from the Lake Superior ranges and has never been included in Lake Superior statistics.

In the following tables the shipments of Lake Superior iron ore in the last four years are given by ranges and by ports and by all-rail routes. Shipments to local furnaces are included.

Shipments ojltake Superior iron ore by ranges, 1899-1 90£.

Range.

If aiquette range . Menominee range Gogebic range ... Vermilion range . Meaabi range

Total

Long tons. 3,757,010 8,801,052 2,795,856 1,771,602 6,626,884

Long tons. 8,457,522 3,261,221 2,875,296 1,655,820 7,809,585

Longton8, 3,254,680 3,605,449 2,988,155 1,786,063 9,004,890

Long tons. 3,853,010 4,627,524 3,663,484 2,084,263 13,342,840

The Marquette range is wholly in Michigan, the Menominee and Gogebic ranges are partly in Michigan and partly in Wisconsin, and the Vermilion and Mesabi ranges are in Minnesota.

ShipTnents of Lake Superior iron ore by lake ports and aUraU routes 1899-1902.

Port

EBcanaba — Marqnette . . .

Ashland

Two Harbors Gladstone ...

Superior

Duluth

AUrall

Total..

Long tons. 3,436,734 2,661,861 2,633,687 4,007,294

Long tons. 4,022,668 2,854,284 2,886,252 5,018,197

Long tons. 5,413,704 2,595,010 8,553,919 5.605,185 92,375 4,180,568 5,598,408 531,952

RECEIPTS OF IRON ORB AT liAKE ERIE PORTS.

The Iron Trade Review annually publishes full statistics of the receipts of Lake Superior iron ore at Cleveland, Ashtabula, Buffalo, Conneaut, and other ports on Lake Erie, the principal receipts being at Ashtabula, Cleveland, and Conneaut; also the quantity left on the docks at the close of navigation. From these statistics the following statement for the years 1889 to 1902 is compiled:

Beceipls of Lake Superior iron ore at Lake Erie ports, 1889-1909,

Year.

Receipts.

dock.

Year.

Receipts.

On dock.

Long tons. 5,866,344 6,874,664 4,939,684 6,660,734 6,833,061 6,850,825 8,112,228

Long tons. 2,607,106 3,893,487 3,508,489 4,149,451 4,070,710 4,884,247 4,415,712

Long tons. 8,025,432 10,120,906 11,028,821 15,222,187 16,797,787 17,014,076 22,649,424

Long tons. 4,964,984

The receipts of Lake Superior iron ore at the ports of Buffalo (including Tonawanda), Erie, and CJonneaut in the last seven years ai-e given by the Review, as follows:

Receipts of Lake Superior iron ore at Buffalo, Erie, and Conneautf 1896-1902.

Port.

Buffalo

Long tons. 645,101 847,849 327,623

Long tons.

Long tons. 1,075,976 1,092,364 1,404,169

Long tons. 1,580,016 1,809,961 2,820,696

Long tons. 1,616,919 1,240,715 2,666,631

Long tons. 1,475,886 1, 379, 377 3,181,019

Longtons. 2,266,798

Erie

Conneaut

Total

liABGEST SHIPPERS OF IAKE SUPERIOR IRON ORE.

The. Lake Superior mines which shipped the largest quantities of iron ore in 1902 were the f oUowing: The Norrie, in the Gogebic range, 1,080,032 tons; Tilden, in the Gogebic range, 468,672 tons; Aurora, in the Gogebic range, 402,981 tons; Chandler, in the Vermilion range, 645,786 tons; Savoy, in the Vemiilion range, 322,241 tons; Minnesota, in the Vermilion range, 275,168 tons; Pioneer, in the Vermilion range, 673,863 tons; Aragon, in the Menominee range, 646,203 tons; Chapin, in the Menominee range, 956,812 tons; Pewabic, in the Menominee range, 530,291 tons; Lake Angeline, in the Marquette range, 304,125 tons; Queen, in the Marquette range, 418,044 tons; Lake Superior, in the Marquette range, 832,796 tons; Cleveland-Cliffs, in the Marquette range, 1,104,864 tons; Mountain Iron, in the Mesabi range, 1,421,456 tons; Fayal, in the Mesabi range, 1,919,172 tons; Mahoning, in the Mesabi range, 1,038,645 tons; Adams, in the Mesabi range, 1,242,923 tons; and Stevenson, in the same range, 1,434,681 tons.

Imports And Exports Of Coal Ani&gt; Cob33.

The exports of anthracite coal from this country in the calendar year 1899 amounted to 1,707,796 long tons, in 1900 to 1,654,610 tons, in 1901 to 1,993,307 tons, and in 1902 to 907,977 tons. The exports of bituminous coal in 1899 amounted to 4,044,354 long tons, in 1900 to 6,262,909 tons, in 1901 to 5,390,086 tons, and in 1902 to 5,218,969 tons. The imports of anthracite coal into this country in 1899

American Ibon Tbade Fob 1902. 81

amounted to 61 tons, in 1900 to 118 tons, in 1901 to 286 tons, and in 1902 to 73,006 tons. The imports of bituminous coal in 1899 amounted to 1,400,461 tons, in 1900 to 1,909,258 tons, in 1901 to 1,919,962 tons, and in 1902 to 2,478,375 tons. The exports of coke in 1899 amounted to 280,196 tons, in 1900 to 376,999 tons, in 1901 to 384,330 tons, and in 1902 to 392,491 tons. These figures are obtained from the reports of the Bureau of Statistics of the Treasury Department.

Mr. H. P. Snyder, the editor of the Connellsville Courier, furnishes the following information with regard to the shipments of Connellsville coke: The total shipments of Connellsville coke in 1902, including the shipments from the Lower Connellsville region, amounted to 14,138,740 short tons of 2,000 pounds, against 12,609,949 tons in 1901, 10,166,234 tons in 1900, and 10,129,764 tons in 1899. Mr. Snyder says that the shipments from the Connellsville region proper in 1902 were practically the same as in the previous year. Of the shipments for 1902 over 2,000,000 tons came from the Lower Connellsville region. Coke shipments must not be confounded with coke production. The increased shipments of coke from the entire Connellsville region in 1902 over 1901 amounted to 1,528,791 tons. The shipments in 1902 would have been still further increased if transportation facilities had been equal to the demand for coke. Over 100,000 tons of coke were in stock piles at the end of the year awaiting shipment.

Concerning the prices paid for Connellsville coke during 1902 the Courier says that a careful estimate of the average price places it at $2.87 per short ton, at which rate the gross revenue of the region in that year was $33,508,714. The Courier adds:

The price of coke during the greater part of the year was almost anythmg the operators chose to ask for it. Their contracts, of course, were filled at the contract prices. It would be impossible to give the monthly range of prices. Quotations were practically withdrawn the latter part of the year. Orders went begging. Furnace men with empty coke bins offered as much as |15 per ton for a few cars of quick-delivery coke. During the month of January there were actual sales as low as $L75 ton, but these were on contract. The transient price was in the neighborhood of 12.50. During February and March it rose to $3 and during April and May it went back to |2.50. After that time, as stated above, it commanded almost any price. During the last quarter of the year there were a number of sales at 17.50 to $11 per ton.

Very little coke has been sold in 1903 below $4 a ton, and none was sold below this price in the closing months of 1902. During the second half of this year the price is likely to be $4.

The shipments of anthracite coal from the Pennsylvania mines in 1902 amounted to 31,200,890 gross tons, against 63,668,601 tons in 1901 and 46,107,484 tons in 1900. These figures are furnished by W. W. Ruley, the anthracite coal statistician. ooIp

The shipments of Pocahontas Flat Top coke in 1902, the figures foP M R 1902 6

Mineral Re80Itbgb8.

which have been furnished by Mr. A. J. Hemphill, secretary of the Norfolk and Western Railway Company, amounted to 1,191,436 net tons, against 1,279,949 tons in 1901, 1,341,444 tons in 1900, and 1,317,246 tons in 1899.

Theshipments of Cumberland coal from the mines of western Maryland and West Virginia in 1902 amounted to 6,288,867 gross tons, against 6,139,329 tons in 1901, 6,171,916 tons in 1900, and 6,131,461 tons in 1899.

AVERAGE MONTHIiY PRICES OF IRON ANT> STEEIi AT PHIIiADEIiPHIA AND PITTSBURG IN 1901 AND 1902.

In the following table are given the average monthly prices of various leading articles of iron and steel at Philadelphia and Pittsburg in 1901 and 1902. The prices named are per ton of 2,240 pounds, except for bar iron, which is quoted by the 100 pounds. At Philadelphia prices of bar iron are quoted from store, but at Pittsburg from mill. Prices of No. 1 anthracite foundry pig iron at Philadelphia are preserved for comparison with former years, this grade of pig iron having been the standard grade from 1842 until the present time.

Monthly prices of iron and steel at Philadelphia and PHtsburg in 1901 and 1902,

Month.

January

February

March

April

May

June

July

Auguiit

September...

October

November... December . . .

January

February —

March

May

June

July

August

September. . .

October

November . . . December . . .

Old Iron

T railsat

Philadel

phia.

Perlong ton.

Nol foundry pig iron atPhlladelphia.

At Philadelphia.

Perlong Urn.

Gray forge pig iron—

Per long ton.

At Pittsburg.

Perlong ton.

Bessemer

pigiron

burg.

Steel rails at mills in Pennsylvania.

Perlong ton.

PerUmg ton.

steel billets at

mills at Pittsburg.

At Philadelphia.

PerUmg ton.

Best refined bar iron —

Per 100 pounds.

At

Per 100 pound*.

American Iron Trade For 1902.

AVERAGE MONTHIiY PRICES OF CUT NAIIiS AT PHIIiA-

The following table gives the average monthly base prices of cut nails, per keg of 100 pounds, from store at Philadelphia, since 1895, as reported by the Duncannon Iron Company:

Average monthly prices of cut naiU at Philadelphia 1896-1909.

Month.

January . . . February . .

March

April

May

June

July

August

September.

October

NoTember . December .

SI. 00 .9b

Average .

a 1.70

Si. 60

Si. 35

Si. 40

S2.80

S2.25

S2.30

a Early in 1893 the base price and schedule of extras of cut nails were changed to correspond with the wire-nail schedule, and in December, 1896, the schedule of extras was again changed to correspond with the new wire-nail schedule.

AVERAGE MONTHIjY PRICES OF WIRE ISAIIjS AT CHICAGO.

The following table, compiled from quotations in the Iron Age, gives the average monthly base prices of standard sizes of wire nails, per keg of 100 pounds, in carload lots, free on board at Chicago, from 1895 to 1902:

Average monthly prices of tire nails at Chicago, 1896-190.

Month.

Si. 55

Si. 59

January

February

March

April

May

June

July

August

September

October

November

December

Average

So. 95

al.60

Si. 50

S2.35

&#x27;I

S2.16

o A new nail card was adopted in December, 1896. The average price given for wire nails in December, 1896. on the new card, S1.60 per keg, would be equivalent to Sl.lO per keg on the old card, showing a very great decrease in prices. , ii ii f i i-

Vic

Mineral Resouboes.

AVERAGE MONTHIiY PRICES OF STBEIi BARS AT

The following table, compiled from weekly quotations in the American Manufacturer, gives the average monthly prices of steel bars per 100 pounds at mills in Pittsburg from 1896 to 1902:

Average monthly prices of steel bars at Pittsburg, 1896-190$.

Month.

January

February

March

April

May

June

July

August

September

October

November

December

Average

n.20

Si. 07

Si. 00

The lowest quoted price at which steel bars were sold at Pittsburg within the last seven years was 90 cents per 100 pounds, this price prevailing in June, July, and August, 1897.

AVERAGE YEARIiY PRICES OF IRON AND STEEIi.

The following table gives the average yearly prices of leading articles of iron and steel in Pennsylvania, also of wire nails at Chicago, from 1898 to 1902. These prices are obtained by averaging monthly quotations, and these have in turn been averaged from weekly quotations. The prices given are per ton of 2,240 pounds, except for bar iron and steel and for cut and wire nails, which are quoted by the 100 pounds and in 100-pound kegs:

Average yearly prices of leading articles of iron ajid steel, 1898-190$,

Article.

Old iron T rails at Philadelphia per long ton..

No. 1 foundry pig iron at Philadelphia do —

Gray forge pig iron:

At Philadelphia do

AtPittaburg do

Bessemer pig iron at Pittsburg do —

Steel rails at mills in Pennsylvania do —

Steel billets at mills at Pittsburg do

Best bar iron:

From store at Philadelphia per 100 pounds. .

At mills at Pittsburg do —

Steel bars at mills at Pittsburg do —

Cut nails from store at Philadelphia per keg. .

Wire nails, base price, at Chicago do —

m.39

S19.32

ul.67

Amebioak Ibok Tbade Fob 1902.

AVERAGE MONTHIiY PRICES OF TIN PIRATES.

In late years foreign tin plates have not been regularly quoted at New York. For this reason foreign prices subsequent to 1898 will not be found in the following table, which gives the average monthly prices of American Bessemer tin plates, I. C, 14 by 20, per box of 100 pounds, at mills in Pennsylvania, from January, 1899, to December 1902, and which has been compiled for this report by Mr. W. P. Beaver, auditor of the American Tin Plate Company.

Average monthly

f prices

of tin plates, 1899-19m.

Month.

Price.

Month.

Price.

Month.

Price.

Month.

Price.

January

February

Max€h

January

February

March

January

February

March

January

February

March

April

April

April

April 4.00

May 4.00

June ' 4.00

May

May

June.

Jnne

June

July

July

July

July ! 4.00

August ! 4.00

September 4.00

October 4.oo

August

August

September

October

November

December

Average..

August

September

October

November

December

Average..

September

October

December

November

December

Average . .

Average..

On March 1, 1903, the price of tin plates was advanced to $3.80 per box, owing to the increased cost of raw materials.

Foreign tin plates are imported only by the oil and canning interests in order that the benefit of the drawback system may be secured in the export trade.

Production Of Pig Iron,

Twenty -two States made pig iron in 1902, against 21 in 1899 and 1900, and 20 in 1901. The total production of pig iron in 1902 was 17,821,307 long tons, against 16,878,364 tons in 1901, 13,789,242 tons in 1900, 13,620,703 tons in 1899, 11,773,934 tons in 1898, and 9,662,680 tons in 1897. The production in 1902 was 1,942,963 tons more than in 1901. The following table gives the half-yearly production in the la8t six years:

Half-yearly production of pig iron, 1897-1902,

Period.

First half... Second half

Total.

Long tons. 4,403,476 6,249,204

Long tons. 5,869,703 5,904,281

Long tons. 6,289,167 7,381,636

Long tons. 7,642,569 6,146,678

Long tons. 7,674,613 8,208,741

Long tons. 8,808,574 9,012,783

hy V":

Mineral Kes0Ubck8.

The following table gives the half-yearly production of pig iron by States in 1902, arranged according to geographical position:

Half -yearly production of pig iron, by States, 190£.

state.

Connecticut

New York

New Jersey

Pennsylvania —

Maryland

Virginia

North Carolina

Georgia

Alalsama

Texas

West Virginia

First half.

Tong tons.

Second half.

State.

Kentucky.. Tennessee. .

Ohio

Ulinois

Michigan . . Wisconsin.. Minnesota . Missouri ... Colorado... Washington

Total.

First half.

L€ngUm.

Second half.

Longtoru. 59,686 206,419 1,856,892 09,562

The following table gives the production of pig iron by States in 1901 and 1902, in the order of their prominence in 1902:

Production of pig iron by States, 1901-2, by rank of production in 1902,

state.

Pennsylvania

Ohio

niinois

Alabama

Virginia

New York . . . .

Tennessee

Maryland . . . .

Wisconsin

Minnesota

Missouri

Colorado

Washington . .

New Jersey

West Virginia..

Michigan

Kentucky

North Carolina

Georgia

Connecticut

Massachusetts . Texas

Total

Long tons. 156,746 166,597 170,762

Jjongtons. 191,880 183,005 155,213 110,725

All the above States, with the exception of Massachusetts and Michigan, made more pig iron in 1902 than in 1901.

The grouping of some of the States in the above tables and in some other tables is due to the fact that all statistics are received by the American Iron and Steel Association in strict confidence, making it necessary in some instances to resort to grouping to avoid disclosing the production of individual works.

AMERICAN IBOK TBAD£ FOB l902.

PBOBUCnON OP PIG IRON ACCORDING TO FUEIi USED,

The production of pig iron in 1902, classified according to the fuel used, was as follows, compared with the four preceding years:

Production of pig iron according to fuel uscdf 1898-190iS,

Fuel used.

IHtnnilnoiiii, chiefly coke

Long ton*.

Long tons.

Long tons.

Long Ions.

Long Urns. 16, 315, 801

AnthrBrCite and ooke

Anthracite alone

Charooal

Charcoal and coke

Total

The following table gives the production of bituminous pig iron by States in 1901 and 1902, according to their prominence in 1902:

ProdiuHon of bUummous pig iron by States, 1901-, according to rank in 190S,

State.

Ohto

nilnoia

Alabama

Viijflnia

North Carolina .

Tennessee

New York

New Jeney

Long tons. 5,819,961 8,316,858 1,696, 860 1,172,202 446,188

:!l

Long tons. 7,193,796 3,620,690 1,730,220 1,411,677

i 636, 174

State.

Maryland

Wifloonsin

Colorado

West Virginia.

Kentucky

Minnesota

Missouri

Long tons. 7S7,826 172,278 165,664 166,697 68,462

Total.

Long totu. 301,601 233,286 210, 147 183,006 110, ?25

The table below gives the production of anthracite and mixed anthracite and coke pig iron by States from 1897 to 1902:

Production of anthracite and mixed anthracite and coke pig iron by States, 1897-190S.

State.

Pennsylvania . New Jersey —

New York

Maryland

Total

Long tons.

Long tons.

Long tons. 1,420,618

Long tons.

Longtotis.

Ic

Minebal Bes0Urce8.

The following table gives the production of charcoal pig iron by- States in 1901 and 1902, according to their prominence in 1902:

Production of charcoal pig iron by States, 1901-2, ojccording to rank in 1902.

State.

Michigan... Alabama . . . Wisconsin . . MlABOuri — WashingtO]! New York . .

Geoiigia

Connecticut Ohio

Long tons. 170,762 53,010

Long tons. 155,213 60,534

State.

Tennessee

Texaa

Maryland

Virgrlnia

Pennsylvania . MaasachusettA.

Long tons. 5,190

Total.

Lortons. 6,293

There were also produced in 1902 in Tennessee 11,665 tons of pig iron with mixed charcoal and coke, against 23,294: tons in 1901.

Probuction Of Besssmsb Pig Iron.

The following table gives the production of Bessemer pig iron by- States in each year from 1897 to 1902, in long tons. Bessemer pig iron made with charcoal as fuel is included. Low-phosphorus pig iron is included in the statistics for 1901 and 1902.

Production of Beasetner pig iron, by Staies, 1897'-190B.

State.

Long ions.

Pennsylvania 3,434,930

Ohio 1,027.897

Illinois ' 1,017,991

Maryland 151,105

West Virginia ' 132,907

North Carolina

Colorado

Missooii

Kentucky and Tennessee

Wisconsin

Michigan

Ml nnesota

New Jersey !

New York I

Long ions.

Long tons. 4,473,493 1,852,965 1,830,169 210,670 187,868

Total 6,796,584

Long tons. 4,242,397 1,898,663 1,178,241

i 169,802

Long Urns. 4,885,877 2,637,091 1,894,430 297,149

Long Urns.

Of the total production of Bessemer pig iron in Pennsylvania in 1902 the Lehigh Valley made 115,615 tons; the Schuylkill Valley, 54,220 tons; the Upper Susquehanna Valley, 3,147 tons; the Lower Susquehanna Valley and the Juniata Valley, 404,656 tons; Allegheny County,

American Iron Trade For 1902.

3,123,832 tons; the Shenango Valley, 891,776 tons; and the remainder of the State, 536,976 tons; total, 5,130,022 tons.

In Ohio in 1902 the Mahoning Valley produced 1,093,242 tons of Bessemer pig iron; the Hanging Bock bituminous district, 112,603 tons; the lake counties, 819,107 tons; and the remainder of the State, 902,653 tons; total, 2,927,605 tons.

Production Op Basic Pig Iron.

The production of basic pig iron in 1896 was 336,403 tons; in 1897 it was 556,391 tons; in 1898 it was 785,444 tons; in 1899 it was 986,033 tons; in 1900 it was 1,072,376 tons; in 1901 it was 1,448,850 tons; and in 1902 it was 2,038,590 tons. The production by States since 1898 has been as follows:

ProductUm of basic pig iron, by States 1898-19018,

state.

New York

Long tons.

Long tons.

Long tons. 4,929

Long tons. 84,820

Long tons. 90,786

New Jeraey

Allerbeny County

Other counties

Maryland

Virginia., ,

Tennenee

Ohio

niinoifl

Total

Maryland, Tennessee, Illimois, and Wisconsin did not make basic pig iron in 1901 or 1902, as in previous years. The production of basic pig iron made rapid progress in 1901 and 1902.

rBODUCTION OF SPIEGEIjEISBN AND FBRBOMANGANBSE.

The production of spiegeleisen and f erromanganese in 1902, included in the total production of pig iron, was 212,981 tons, against 291,461 tons in 1901 and 256,977 tons in 1900. The spiegeleisen and ferromanganese produced in 1902 were made in New Jersey, Pennsylvania, Alabama, Illinois, and Colorado. Included in the total production for 1902 is a small quantity of ferrophosphorus, made in Alabama

Production Of Pig Iron In Pennsti.Vania, By

Districts.

The production of pig iron in Pennsylvania by districts in 1902 was asfoUows: Lehigh Valley, 517,950 long tons; Schuylkill VltefvO, 597

tons; Upper Susquehanna Valley, 3,147 tons; Lower Susquehanna Valley, 527,794 tons; Juniata Valley, 198,571 tons; Shenango Valley, 1,254,933 tons; Allegheny County, 4,260,769 tons; western Pennsylvania, except Allegheny County and the Shenango Valley, 829,809 tons; charcoal (whole State), 4,230 tons; total, 8,117,800 tons. In 1902 only three charcoal furnaces in Pennsylvania were in operation, namely, Glen Iron, at Glen Iron, Union County; Eagle, at Roland, Center County, and Greenwood, at Greenwood Furnace post-office, Huntingdon County.

In 1901 Pennsylvania made 46.2 per cent of the country's total production of pig iron, and in 1902 it made 46.5 per cent.

In 1902 the Shenango Valley increased its production 275,058 tons over 1901; Allegheny County increased its production 570,758 tons, almost identically the same increase that it made in 1901 over 1900, which was 571,250 tons; western Pennsylvania, outside of Allegheny County and the Shenango Valley, gained 41,950 tons; the Lehigh Valley gained 26,676 tons; the Schuylkill Valley gained 16,528 tons; the Upper Susquehanna Valley lost 77,095 tons; the Lower Susquehanna Valley lost 125,683 tons; the Juniata Valley gained 46,882 tons; charcoal lost 531 tons.

Allegheny County produced more than one-half the pig iron made in Pennsylvania in 1897 and 1898 and more than one-fourth of the country's production in each year, but in 1899 it made slightly less than one-half the production of Pennsylvania in that year, and considerably less than one-fourth the country's production. In 1900 it again made less than one-half the production of Pennsylvania and less than one-fourth the country's total production. In 1901 and again in 1902 Allegheny County made more than one-half the production of Pennsylvania, but less than one-fourth the country's total production.

Production Of Pig Iron Tn Ohio, By Districts.

The production of pig iron in Ohio in 1902, by districts, was as follows: Mahoning Valley, including the Leetonia furnaces, 1,438,087 long tons; Hocking Valley, 36,194 tons; Lake counties, 860,371 tons; miscellaneous bituminous, 969,372 tons; Hanging Bock bituminous, 316,566 tons; Hanging Rock charcoal, 10,798 tons; total, 3,631,388 tons.

The increase in production in the Mahoning Valley, including the Leetonia furnaces, in 1902 over 1901 was 33,230 tons; in the Lake counties the increase was 76,881 tons; in the miscellaneous bituminous district the increase was 175,662 tons; in the Hanging Bock bituminous district the increase was 17,265 tons; in the Hanging Bock charcoal district the increase was 731 tons, and in the Hocking Valley there was an increase of 1,194 tons.

American Ibon Trade For 1902.

PRODUCTION OF PIG IRON IN THE 8HBNANGO AND MAHONING VAIiliBYS.

The production of pig iron in the Mahoning Valley in Ohio, including the Leetonia furnaces, and in the Shenango Valley in Pennsylvania in 1898 was almost exactly the same, the former producing 769,334 tons and the latter 769,677 tons. In 1899 the Mahoning Valley made 932,165 tons and the Shenango Valley made 937,216 tons. In 1900 the Mahoning Valley went away ahead of its rival, making 1,002,362 tons, against 800,214 tons in the Shenango Valley. In 1901 the Mahoning Valley further increased its lead, producing 1 ,404,857 tons, against 979,875 tons in the Shenango Valley. In 1902 the Mahoning Valley, as already stated, increased its production over 1901 only 33,230 tons, while the Shenango Valley increased its production 275,058 tons, showing a comparative gain of 241,828 tons in favor of tihe Shenango Valley in 1902.

STOCKS OF UNSOIiD PIG IBON.

The statistics of stocks of unsold pig iron do not include pig iron made by the owners of rolling mills or steel works for their own use, but only pig iron made for sale which has not been sold. The stocks of pig iron which were unsold in the hands of manufacturers or which were under their control at the close of 1902, and were not intended for their own consumption, amounted to 49,961 tons, against 70,647 tons at the close of 1901 and 442,370 tons at the close of 1900. The American Pig Iron Storage Warrant Company held no pig iron whatever in any of its yards on December 31, 1902. This is the first time since its organization in 1889 that the company has not held at least a small quantity of pig iron in its yards at the close of a calendar year. At the end of 1901 it had 3,000 tons, and at the end of 1900 it had 16,400 tons.

ANNUAIi CONSUMPTION OF PIG IRON.

The consumption of pig iron in the last five years is approximately shown in the following table, the comparatively small quantity of foreign pig iron held in bonded warehouses not being considered. Warrant stocks are included in unsold stocks:

Anmud coTUumpUon of pig iron in the United StaieSf 1898-190S.

Pig Iron.

Domestic production

Imported

8tock£ unsold Jan. 1

Total supply

Deduct stocks Dec. 31

Alflo exports

Approximate consomption

Long tons.

Long ions.

Long tons.

Mineral Besouboes.

It will be observed that while the increased production of pig iron in 1902 over 1901 was 1,942,963 tons, the increased consumption was 2,207,453 tons. The increased consumption in 1901 over 1900 was 3,066,037 tons, but the consumption in 1900 was actually less than in

DUMBER OF FURNACES EN" BIiAST.

The whole number of furnaces which were in blast at the close of 1902 was 307, against 266 at the close of 1901 and 232 at the close of 1900. The following classified table shows the number of furnaces in blast at the close of each year since 1897:

Number of furnaces in Uast at close of each year, 1897-1909,

Fuel used.

Bituminous coal and coke

Anthracite and anthiacite and coke

CharwMil and charcoal and coif ft

Total

The number of furnaces out of blast at the close of 1902 was 105. Many of these furnaces were only temporarily banked because of the inability of their owners to obtain a supply of fuel. At the close of 1901 there were 140 furnaces out of blast.

Umestone Consumed In Making Pig Iron.

The limestone consumed for fluxing purposes by the blast furnaces of the United States in the production of 17,821,307 tons of pig iron in 1902 amounted to 9,490,090 tons. The average consumption of limestone per ton of all kinds of pig iron produced was 1,192.8 pounds. The consumption by the anthracite and bituminous furnaces was 1,207.7 pounds per ton of pig iron made, and by the charcoal and mixed charcoal and coke furnaces it was 527.9 pounds. Oyster shells are regularly used by Muirkirk (charcoal) furnace, in Maryland, for fluxing purposes to the entire exclusion of limestone.

PRODUCTION OF BESSEMER STEEIi INGOTS AND STEEIi

Ratls.

Below are presented complete statistics, received directly from the manufacturers, of the production of Bessemer steel in the United States in 1902, also of Bessemer steel rails by the producers of Bessemer steel ingots. Neither the production of Bessemer ingots nor the production of Bessemer rails kept pace in 1902 with the marvelous growth in that year of the iron and steel industries taken as a whole, which was owing entirely to the fact that the Jron and

American Ibon Tbade Fob 1902.

Steel Company dismantled its Bessemer plants and its rail mills, as well as its remaining blast furnace, at Scranton, early in the year, preparatory to the erection at Buffalo by the Lackawanna Steel Company of new and more extensive works, which are not yet entirely completed. The north works of the company at Scranton made their last rails on January 16, 1902, and the south works made their last rails on February 26, 1902.

Ingots and castings. — The total production of Bessemer steel ingots and castings in 1902 was 9,138,363 long tons, against 8,713,302 tons in 1901, an increase of 425,061 tons, or 4.8 per cent. The increase in 1901 over 1900 amounted to 2,028,532 tons, or over 30 per cent. The production of 1902 was the largest in our history. The f oUowing table gives the production of Bessemer steel ingots and castings in the last six years. Of the production last year 12,548 tons wei'e steel castings, against a production of 6,764 tons in 1901.

Production of Bessemer steel ingots and ccuHngs in the United Stales 1897-190 f.

Year.

BeflBemer ingots.

Year.

BeflBemer ingots.

Longtont. 6,475,816 6,609,017 7,686,864

Longtana. 6,684,770 8,713.302

Uk

The production of Bessemer ingots and castings in the United States during the last five years was as follows:

Production of Bessemer steel ingots and castings by States, 189S-190S,

State.

Pennsylyania.

Ohio

Illinois

Other States..

Total...

Long font. 3,968,779 1,679,287 1,211,246 727,092

There were no Clapp-GriflSths works in operation in 1902 and only two Robert-Bessemer plants were active. Five Tropenas plants were at work, as compared with seven in 1901. In addition one Bookwalter converter was running. All these works that were active were engaged in the production of steel castings only.

Rails. — The production of all kinds of Bessemer steel rails by the producers of Bessemer steel ingots in 1902 was 2,876,293 long tons, against a similar production in 1901 of 2,836,273 tons, in 1900 of 2,361,921 tons, and in 1899 of 2,240,767 tons. The maximum produc-

Digitized by"

Mineral Bes0T7Bges.

tion of Bessemer steel rails by the producei's of Bessemer steel ingots was reached in 1902, but the increase in that year over 1901 amounted to only 40,020 tons, or 1.4 per cent. As compared with 1887, fifteen years ago, the increase in 1902 in the production of Bessemer rails amounted to only 831,474 tons, or 40 per cent, while during the same period the increase in the production of Bessemer ingots amounted to 6,370,438 tons, or almost 217 per cent. The following table shows the production by States of Bessemer steel rails by the producers of Bessemer steel ingots in the last six years. The figures do not include a small quantity of rails made each year from purchased blooms or from reroUed steel rails, statistics for both of which products for 1902 are not yet available.

Frodudion of Bessemer steel rails, by Stales, 1897-1902,

state.

Pennfiylyania

Long torn.

Long tons.

Long tons. 1,224,807 1,015,960

Long tons. 1,195,255 1,166,666

Long tons. 1,406,008 1,430,265

Long ions, 1,148,425 1,727.868

Other States

Total

In 1897, at the request of the manufacturers, the statistics of the production of rails weighing 45 pounds and less than 85 pounds to the yard were separated from those of rails weighing less than 45 pounds and over 85 pounds to the yard. This separation is continued for 1902. The small quantity of Bessemer rails made from purchased ingots or from rerolled rails is not included in the following table.

Production of Bessemer sted rails, by iveigJU per yard, by States, in 190S,

State.

Under 45 pounds.

45 pounds and less than 85.

85 pounds and over.

Total.

Pennsylvania

other States

Total for 1902

Total forl901

Total for 1900

Long tons. 53,964 173,104

Long tons.

Long tons. 827,894 317,268

Long ions. 1,148,425 1,727,868

It will be noticed that there was a considerable decline in 1901 in the production of Bessemer steel rails weighing 86 pounds and over as compared with 1900, but that in 1902 there was an increase over 190O and a very large increase over 1901. The production of rails weighing between 45 and 85 pounds shows a slight decrease in 1902 as compared with 1901.

The total production of rails in 1902 will include rails made from open-hearth steel, rails rolled from purchased Bessemer blooms.

Ic

American Ikon Trade For 1902.

reroUed rails, and ii*on rails. The total production from all these sources in 1901 amounted to 38,366 tons.

With the exception of the Lackawanna plant at Scranton, all our Bessemer rail mills were operated nearly to their full cf pacity in 1902, the demand for steel rails being greater than the supply all through the year. Some interruption to the utmost possible activity of the Bessemer rail mills in 1902 was also caused by the inability of the railroads to deliver raw materials to the blast furnaces promptly.

Notwithstanding the large production of rails last year there were impoi'ted 63,522 tons of iron and steel rails, but to balance this importation there were exported 67,666 tons of iron and steel rails. In 1901 318,966 tons of rails were exported and only 1,905 tons imported. Virtually all the rails imported and exported are steel rails.

PROBUCnON OP OPBN-HEARTII STEEIi IN 1902.

The total production of open-hearth steel ingots and castings in the United States in 1902 was 5,687,729 long tons, against 4,656,309 tons in 1901, an increase of 1,031,420 tons, or over 22 per cent. As compared with 1898, five years ago, when the production of open-hearth steel amounted to 2,230,292 tons, there was an increase in 1902 of 3,457,437 tons, or over 155 per cent. The following table gives the production of open-hearth steel ingots and castings, by States, since 1899:

Production of operirhearth sUel ingots and castings, by States, 1899- J 902.

State.

New England

New York and New Jersey

Pennsylvania

Ohio

niinob

OUier States

Total

Long tons.

Long tons.

Long tons. 170,876 82,986

Long tons. 179,923 92,763 4,375,864 278,854 486,461 326,364

The open-hearth steel made in 1902 was produced by 98 works in 16 States — Massachusetts, Connecticut, Rhode Island, New York, New Jersey, Pennsylvania, Delaware, Maryland, Tennessee, Alabama, Ohio, Indiana, Illinois, Michigan, Wisconsin, and Missouri. Ninety works in 14 States made open-hearth steel in 1901. The States which have furnaces, but which did not produce steel by this process in 1902, were Kentucky and Minnesota. The erection of a large openhearth steel plant was commenced in Colorado in 1902, but open-hearth steel had not been made down to the close of the year. This State

Minebal Besouboes.

will, however, probably make open-hearth steel during the year 1903. Maryland and Michigan again made open-hearth steel in 1902.

In 1901 3,618,993 tons of open-hearth steel were made by the basic process and 1,037,316 tons were made by the acid process, while in 1902 the production by the basic process amounted to 4,496,533 tons and by the acid process to 1,191,196 tons. In the following table the production by States of both acid and basic steel in 1902 is given: Production of acid and banc steel in 190£y by States.

states.

Basic open- I Acid openhearth steel, hearth steel.

Total.

New England

New York and New Jersey

Pennsylvania

Ohio

niinois

other States

Total

Long tons.

Longtont.

Long tons.

The increase in the production of acid steel in 1902 as compared with 1901 was 153,880 tons, or almost 15 per cent, while the increase in the production of basic steel was 877,540 tons, or over 24 per cent.

The total production of open-hearth steel castings in 1902, included above, amounted to 367,879 long tons, of which 112,404 tons were made by the basic process and 255,475 tons were made by the acid process. In 1901 the production of open-hearth steel castings amounted to 301,622 tons, of which 94,941 tons were made by the basic process and 206,681 tons by the acid process. The following table gives the production of open-hearth steel castings by the acid and basic processes in 1902, by States, in long tons: ProdxjLction of open-hearth steel coatings by the add and basic processes in 190£f by States,

states.

Add castings.

Bade' castings.

Total.

New England, New York, and New Jersey

Pennsylvania

Ohio, Illinois, and other States

Total

Long tons. 88,158 141,385 80,982

Long tons. 8,888 11,014

Long tons. 152,399 178,439

IRON AND STEEIi SHIPBUIIiDrN-Q.

In the fiscal year ending June 30, 1900, there were built in the United States 90 steel vessels, and in the fiscal year 1901 there were built 119 steel vessels and 1 iron vessel. The gross tonnage of the vessels built in the fiscal year 1900 was 196,851 tons, and the gross tonnage of the vessels built in the fiscal year 1901 was 262,699 tons. In the fiscal year 1902 there were built 106 steel vessels and 1 iron vessel, with a gross tonnage of 280,362 tons. The iron vessel was built

AMEBIOAN IBON TBADi; FOB 19Q2.

at Wilmington and was of 193 tons' capacity. Of the 107 vessels built in the last fiscal year referred to, 49 were built at ports on the Great Lakes, their tonnage amounting to 161,930 gross tons out of a total tonnage of 280,362 tons. Vessels for the U. S. Navy are not included in the figures given, which have been furnished by the Hon. Eugene T. Chamberlain, Commissioner of Navigation, of the Treasury Department.

The Commissioner also furnishes the following details of steel vessels built in the United States in the first nine months of the present fiscal year, ending March 31, 1903: Number of sailing vessels built, 3, with a total tonnage of 7,731 tons; number of steam vessels built, 62, With a total tonnage of 140,319 tons; total number of steel vessels built in the nine months, 65; total tonnage, 148,050 tons. These figures and those given above show a very great increase in the last few years in the building of steel vessels in this country, not including, as already mentioned, the large number of vessels built and building for the U. S. Navy. On January 1, 1903, there were 72 yards in this country which were equipped for building all kinds of iron and steel vessels, and in addition 4 shipbuilding yards were being built.

Production Op Pig Iron In Canaba.

The statistics of the production of pig iron in Canada in 1902 have been received from the manufacturers by the American Iron and Steel Association. They show an increase of 74,581 long tons, or over 30 per cent, as compared with the production in 1901.

The total production in 1902 amounted to 319,557 long tons, against 244,976 tons in 1901 and 86,090 tons in 1900. In the first half of 1902 the production was 157,804 tons and in the second half it was 161,753 tons, a gain of only 3,949 tons. Of the total product in 1902, 302,712 tons were made with coke and 16,845 tons with charcoal. A little over one-third of the total product was basic pig iron, namely, 107,315 tons. The Bessemer pig iron made amounted to about 9,000 tons. Spiegeleisen and ferromanganese have not been made since 1899.

The following table gives the total production of all kinds of pig iron in Canada from 1894 to 1902, the statistics for each year having been received directly from the manufacturers. Prior to 1894 the statistics of pig iron production in Canada were not collected by the American Iron and Steel Association:

Total production of all kinds of pig iron in Canada 1894190£.

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

Longtoru, 44,791 87,829 60,080

Long ions. 58,796 68,766 94,077

Long tons. 86,090 244,976 819,667 Q

u B 1902 7

On December 31, 1902, the unsold stocks of pig iron in Canada amounted to about 20,000 long tons, a£i compared with 59,472 tons at the close of 1901 and 12,465 tons at the close of 1900. Of the unsold pig iron on hand on December 31, over 19,000 tons were coke pig iron.

On December 31, 1902, Canada had 14 completed blast furnaces, of which 7 were in blast and 7 were idle. Of this total, 9 were equipped to use coke for fuel, 4 to use charcoal, and 1 to use mixed charcoal and coke. In addition, 4 coke and 2 charcoal furnaces were being built or were partly erected on December 31, but work on some of these furnaces was suspended.

The Aloma Steel Company, Limited, of Sault Ste. Marie, Ontario, one of the constituent companies of the Consolidated Lake Superior Company, commenced the erection of 2 charcoal and 2 coke furnaces at Sault Ste. Marie in 1901. The charcoal furnaces were to be 70 by - 14 feet and the coke furnaces 90 by 21 feet. Subsequently work on the coke furnaces was suspended, and one of the building charcoal furnaces was converted into a coke furnace, the size being changed from 70 by 14 feet to 80 by 15-feet. The company now expects to have its charcoal furnace ready for blast in June and its coke furnace in July.

The Cramp Steel Company, Limited, has put in the foundations for a blast furnace at Collingwood, Simcoc County, Ontario. The company expects to have the furnace ready for operation in the fall of 1903. Coke will be used. Its daily capacity will be about 250 long tons.

The Nova Scotia Steel and Coal Company, Limited, of New Glasgow, Nova Scotia, broke ground in June, 1902, for a new furnace at Sydney Mines, Cape Breton, Nova Scotia. The furnace will be 85 by 17 feet, and will have a daily capacity of about 200 tons of basic and foundry pig iron. Coke will be used, and red and brown hematite ore will be obtained from Nova Scotia and Newfoundland. It is expected that the furnace will be completed in September, 1903. The company now has a furnace at Ferrona, with an annual capacity of 33,000 long tons.

The Londonderry Iron and Mining Company, Limited, of Londonderry, Nova Scotia, is rebuilding Furnace A, at Acadia Iron Mines, ard expects to blow it in in May, 1903. The furnace will be 75 by 17 feet, and will have an annual capacity of 48,000 tons of foundry iron. The company does not contemplate blowing in Furnace B in the near future, but may rebuild it later on.

PRODUCTION OF STEEIj IN CANADA.

The total production of steel ingots and castings in Canada in 1902 was 182,037 long tons, against 26,084 tons in 1901, an increase of

Ic

American Ibok Tbade Fob 1902.

155,953 tons. Bessemer and open-hearth steel ingots and castings were made in each year. Almost all of the open-hearth steel reported in 1902 was made by the basic process.

The following table gives the production of all kinds of steel ingots and castings in Canada from 1894 to 1902, in long tons.

Production of ail kind8 of steel ingots and castings in Canada, I894-190£.

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

18M

Long tons.

Long Urns,

Long tons.

The large increase in the production of steel in Canada in 1902 over 1901 was caused by the starting up of the new open-hearth steel plant of the Dominion Iron and Steel Company, Limited, at Sydney, Cape Breton, Nova Scotia, which first produced steel on December 31, 1901, and of the new Bessemer plant of the Algoma Steel Company, Limited, at Sault Ste. Marie, Ontario, at which steel was first made on February 18, 1902. The latter company has two 6-long-ton Bessemer converters, which were operated for a few months in 1902, producing in all 44,537 long tons of ingots. The company has also a rail mill which first made Bessemer steel rails on May 5, 1902, and which also ran for a few months in that year, producing 32,878 long tons. In addition this company also produced 1,236 long tons of other rolled products in 1902. The Dominion Iron and Steel Company produced 99,425 long tons of basic open-hearth steel ingots and castings and 86,424 tons of blooms, billets, and slabs. It did not make steel rails.

Statistics Of Iron And Steel, Iron Ore, And Coal, To 1901, Inclusive.

By James M. Swank,

General Manager of the American Iron and Steel AasocicUion,

In the following tables, beginning in most cases as far back as authentic statistics are available, are presented complete statistics of the production of iron and steel, iron ore, and coal in the United States, Great Britain, Germany, France, and Belgium to the close of 1901, and also the production of iron ore in Algeria. There are added also the United States statistics of the production of coke and of the shipments of Connellsyille and Pocahontas Flat Top coke to the close of 1901; also statistics of the shipments of Lake Superior iron ore and of Cuban iron ore to the same date; also complete statistics of the imports of iron ore into the United States to the close of 1901.

The tables have been compiled to show the progress that has been made by the countries mentioned in the manufacture of iron and steel and coke and in the mining of iron ore and coal in the first year of the twentieth century. Iron ore and coal and coke are raw materials in the manufacture of iron and steel. In one instance statistics for 1902 are included.

United States.

Production Of

The following table gives the production of all kinds of coal in the United States, in long tons, in the census years 1870 and 1880, ending on the 31st day of May of each year; in the census year 1889, ending on the 81st day of December of that year; and in the calendar years from 1881 to 1888, and from 1890 to 1901. Authentic statistics for earlier years are not available. Credit is due to the Census Bureau for the statistics for census years, and to the Division of Mining and Mineral Resources of the United States Geological Survey for the statistics for other years.

Digitized by i?JuOgle

MINERAL BESOURCEfl.

Production of coal in the VniUd States, 1870-1901,

Year.

Pennaylvftnia

anthiacite

.

Bituminous and all other.

Total.

Long tons. 13,978,460 25,572,160 28,500.016 31,858,264 84,886,469 83,175,766 84,228,548 84,858,077 37,578,747 41,624,611 40,665,152 41.489,858 45,286,992 46,860,460 48,185,306 46,858,144 51,785,122 48.523,287 46,974,714 47,663,075 58,944,647 51,221,858 60,242,560

Long tons. 29,342,580

18S7

The maximum production of both anthracite and bituminous coal was attained in 1901.

FRODUOnON OP COKE.

The following table, compiled from the reports of the United States Geological Survey, gives the total production of coke in the United States from 1880 to 1901, in short tons of 2,000 pounds.

Ptodwition of coke in the United States, 1880-1901.

Year.

Year.

Quantity.

Year.

Quantity.

Short Umt. 8,540,080 10,258,022 11,508,021 10,362,688 12,010,829 9,477,580 9,208,682 18,388.714

ShoHtons, 11,788,773 13.288.9M 16.047.209 19,668,569 20,533,348 21,796,883

The maximum production of coke in the United States was reached in 1901.

Ibon And Steel, Iron Oke, And Coal, To 1901. 103

Shipbcents Of Connellsville Coke.

The following table, compiled from statistics furnished by Mr. H. P. Snyder, editor of the Connellsville Courier, gives the shipments of coke from the Connellsville region in Pennsylvania from 1880 to 1901, in short tons of 2,000 pounds. Statistics for earlier yeai*s are not available.

Shipments of Connellsville cokey 1880-1901.

Year,

Quantity.

Year.

Quantity.

Year.

Quantity.

Short tons. 2,206,946 2,689,002 8,013,894 8,562,402 8,192,106 8,096,012 4,180,521 4,146,989

Short tons. 4,965,668 5,930,428 6,464,156 4,760,665 6,329,452 4,805,623 6,454,451 8,244,438

Short tons, 5,411,602

1W6

The maximum shipments of coke from the Connellsville region were reached in 1901.

Shipments Of Pocahontas Flat Top Coke.

The following table gives the shipments of Pocahontas Flat Top coke from 1883 to 1901, in short tons of 2,000 pounds:

Shipments of Pocahontas Flat Top coke, 1883-1901,

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

Short torn. 499,148 466,016 499,777 539,548 866,684 707,697 999,667

Short tons. 865,766

1S85

The maximum shipments of Pocahontas Flat Top coke were reached in 1900.

Production Of Iron Ore.

Previous to 1870 no iron ore statistics for the United States are complete. The figures for 1870 and 1880 are for census years ending on May 31 of those years. For 1889 (census year) and subsequent years they are for calendar years. Since 1889 the statistics given have been compiled by the United States Geological Survey.

MINERAL RESOURCES. Production of iron ore in the United States, 1S70-1901,

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

Long tons. 8,031,891 7,120,362 14,618,041 16,086,043 14,691,178

Long tons. 16,296,666 11,687,629 11,879,679 15,957,614 16,005,449

Long tons. 17,518,046

The maximum production of iron ore in the United States was reached in 1901.

Production Of Cornwall Iron Ore.

The following table gives the production of iron ore by the Cornwall mines, in Pennsylvania, from 1864 to 1901. The production from 1740 to February, 1864, amounted to 2,524,908 tons. The figures for 1864 are for eleven months Only:

Production of OomwaU iron ore, 1864-1901.

Year.

Quantity.

Longiont. 165,916 114,803 216,660 202,755 166,843 178,429 174,408 176,056 198,317 166,782 112,429 98,925 187,902

Year.

Quantity.

Long tons. 171,689 179,299 268,488 231,173 249,060 809,681 863,143 412,320 606,864 688,054 667,210 722,917 769,020

Year.

Quantity.

Long tana, 686,302 663,755 634,714 499,705 871,710 614,596 463,059 419,878 684,342 763,162 558,713 747,012

The maximum production of iron ore by the Cornwall mines was reached in 1889.

Shipments Of Lake Superior Iron Ore.

Three States — Michigan, Wisconsin, and Minnesota — now comprise the Lake Superior iron-ore region, which was originally confined to Michigan alone. Minnesota now leads her sister States in production. The following table gives the shipments of iron ore from the Lake

Ibok And Steel, Iron Ore, And Coal, To 1901.

Superior region from 1854 to 1901. The word " shipments " is not synonymous with " production " in this table:

ShipmenU of iron ore from (he Lake Superior reffUm 1864-1901.

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

Long tons. 8,000 1,449 86,343 25,646 . 15,876 68,882 114,401 49,909 124,109 206,065 248,127 286,206 278,796 478,667 491,449 617,444

Long tons.

Long tons. 8,668,022

18S6

18S6

M67

1ffi9

Ims

The maximum shipments of iron ore from the Lake Superior region were reached in 1901, but shipments were greatly increased in 1902.

Imports Of Iron Ore.

The following table gives the total imports of iron ore into the United States in the fiscal years from June 30, 1871, to June 30, 1879, and the imports in the calendar years from January 1, 1879, to December 31, 1901. In 1879 this country for the first time imported iron ore largely from Europe. Prior to that year such iron ore as was imported came chiefly from Canada, more than one-half of the total imports coming from that country in the calendar years 1873, 1874, and 1875.

Imports of iron ore into the Dniied States, 187S-1901.

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

Long Urns, 28,788 45,961 67,967 66,665 17,264 80,609 28,212 160,197 264,141 498,406 782,867

Long tons.

Long tons. 526,-951 166,541 524,158

18

Ifl59a

a Fiscal yean end.

h calendar yean bertized by GoOglc

Mineral Besoubces.

The maximum imports of iron ore into the United States were reached in 1890.

Shipments Of Iron Ore From Cuba.

The first shipment of iron ore from the province of Santiago, Cuba, to the United States was made by the Juragua Iron Company in August, 1884. In October, 1892, the Sigua Iron Company first commenced to ship iron ore to the United States, and in 1895 the Spanish- American Iron Company first commenced shipping iron ore to the United States. The Cuban Steel Ore Company for the first time commenced to ship iron ore in 1901. For the following complete details of the shipments of iron ore from Cuba we are indebted to Mr. Josiah Monroe, the secretary of the Juragua Iron Company. The figures given include a few lost cargoes, approximating 16,000 tons. They embrace all shipments since 1884.

Shipments of iron ore from Cuba, 18841901.

Juragaa Iron Co.

Sigaa Iron

Co. a to the

United

States.

Spanlsh-Amerioan Iron Co.

Year.

To the United States.

Xo other countriefl.

To the United States.

To other oonntrles.

Total.

Longtofu.

Longtona.

Long Urns. 25.295

Total

Long tons.

Total shipments to the United States 4,980,698

Total shipment to other countries 70,160

a This company met with financial disaster, and the mines that it operated in 1892 and 1893 are now idle.

Mncluding 17,651 tons shipped to the United States In 1901 by the Cuban Steel Ore Company, which has quit btislnoss.

Ic

Iron And Steel, Ibon Ore, And Coal, To 1901.

Produc5Tion Of Pig Ibon.

The total production of pig iron in the United States in the last ninety-two years is shown in the following table. Prior to 1854 the statistics given were compiled by various Government and other statistical agencies. For 1854 and all succeeding years the statistics were gathered by the American Iron and Steel Association. The statistics for 1810, 1840, and 1850 are census figures. The figures for 1820 and 1830 are estimates made by early statisticians. Census statistics for these years are wanting.

Production of pig iron in the United States, 1810-1901.

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

Langiona. 63,908 20,000 180,000 142,000 165,000 191,000 200,000 286,903 215,000 766,000 800,000 800,000 660,000 663,755 600,000 667,337 700,169 788,515 712,640 629,548 750,660

1W0 ...

i8n

18S7

1Bb9

Average Yearly Friges Of Pig Iron.

The following table shows the average yearly prices of pig iron in the United States from 1842 to 1902, inclusive:

Mineral Besouboes.

Average yearly prices of pig mm in the Vniied Stales, ISJ-lOOf,

Year.

No.l

foundry pig iron at

Philadelphia

.

Gray forge

pig iron at Philar

delphia.

Gray

iron, lake ore, at Pittsburg.

Beaseironat

Pittsburg.

Year.

No.l

foundry pig iron at

Philadelphia

.

Gray forge

, pig iron at Philadelphia.

Gray

ore, at Pittsburg.

Benemerpig iron at Pittsburg.

Ibm

iai7

PBODUCnON OF BESSEMEB STEEL.

The following table gives the production of Bessemer steel in the United States, in long tons, from 1867 to 1901, inclusive: Production of Bessemer steel in the United States, 1867-1901.

Year.

Quantity.

Year. 1 Quantity.

Year.

Quantity.

Long Urns.

Long tons. 829,439 1,074,262 1,374,247 1,514,687 1,477,345 1,875,581 1,519,430 2,269,190 2,936,033 2,511,161 2,980,204 3,688,871

Jigitized by

Iron And Steel, Iron Ore, And Coal, To 1901. 109

PBODUOnON OF OPEN-HEABTH STEEL.

The following table gives the production of open-hearth steel in the United States, in long tons, from 1869 to 1901, inclusive:

Production of open-hearik tted in the VniUd SUUes, 1869-1901.

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

M70

Total Steel Production.

The production of steel in the United States in the census year 1810 is returned at 917 long tons. We have no further steel statistics until the census year 1860, when 11,888 long tons are reported to have been made. No additional statistics are of record until 1863, when the production fell to 8,075 tons. From 1867 until 1901 the production of all kinds of crude steel, including-steel castings, is shown in the following table:

Total Oed production in the United States, 1867-1901.

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

Long tons. 8,904,240 4,927,581 4,019.996 4,412,082 6,114,884 5,281,689 7,166,957 8.982,857 10.689,857 10,188,329 18,473,695

Mineral Besoubges.

PBODUCnON AND PBIGES OF BESSEMEB STEEL BAILS.

The following table gives the annual production in long tons of Bessemer steel rails in the United States from 1869 to 1901, together with their average annual price at works in Pennsylvania and the rates of duty imposed on foreign steel rails. The prices given are all in currency. The premium on gold is not considered.

Production and prices of Bessemer steel rails in the United States, 1869-1901.

Year.

Quantity.

Price.

Duty.

Longtont.

46 per cent ad valorem to Jan. 1, 1871.

$28 per ton from Jan. 1, 1871, to Aug. 1, 1872; 825.20 from Aug. 1, 1872, to Mar. 3, 1875; 928 from Mar. 8, 1875, to July 1,

fl7 per ton from July 1, 1883, to Oct. 6, 1890.

$18.44 per ton from Oct, 6, 1890, to Aug. 28,1894.

.84 per ton from Aug. 28, 1894.

GREAT BRTTArN.

Pboduction Of Pig Ibon.

. The following table gives the official Government statistics of the production of pig iron in the United Kingdom from 1740 to 1901. As there has been no iron industry in Ireland since about 1740 the figures given relate solely to the production of pig iron hy and Wales:

Ibon And Steel, Ibon Obe, Akd Goal, To 1901.

Production

of pig iron in Orec

rf Britain

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

Long tona.

Long tona. 3,586,377 3,659,447 3,456,064 3,712,904 8,826,752 3,712,390 8,943,469 4,510,040 4,767,951 4,825,251 4,523,897 4,761,023 4,970,206 5,445,757 5,963,515 6,627,179 6,741,929 6,566,451 5,991,408 6,365,462 6,555,997 6,608,664 6,381,051

Long tona. 5,995,387

' 1872

ISbi

Great Britain's maximum production of pig iron was reached in 1899.

Production Of Coal.

Great Britain has not been dependent upon any other country for any part of her supply of mineral fuel; she is, indeed, an exporter of coal in large quantities. The following table, compiled from the reports of His Majesty's inspectors of mines, gives the official statistics of the production of coal in Great Britain from 1854 to 1901: Production of coal in Great Britain 1864-1901,

Year.

VSbi. 1S64.

Quantity.

Year.

Quantity.

Long tona, 110,431,192 117,352,028 123,497,316 128,680,131 126,590,108 133,806,485 134,125,166 184,179,968 182,612,063 183,720,898 146,969,409 154,184,800 156,499,977 163,737,827 160,757,779 159,351,418

Year.

Jigitized b*j

Quantity.

Long tona. 157,518,482 162,119,812 169,935,219 176,916,724 181,614,288 185,479,126 181,786,871 164,325,795 188,277,526 189,661,862 196,861,260 202,129,931 202,054,516 220,094,781 225,181,300 219,046,945

Mineral Resources.

The maximum production of coal in Great Britain was reached in 1900.

Production Of Iron Ore.

The foUovdng table of the production of iron ore in the United Kingdom from 1865 to 1901 has been compiled from Mr. Richard Meade's Coal and Iron Industries of the United Kingdon (London, 1882) and from the Mineral Statistics of His Majesty's inspectors of

mines:

Production of iron ore in Great Britain 1866-1901.

Year.

Quantity.

Year.

Quantity.

Year.

Long torn. 16,834,888 15,584,857 15,577,499 14,844,936 15,821,060 16,841,584 16,692,802 15,726,870 14,379,785 18,026,050 17,446,065 18,031,967 17,383,046 16,187,887 15,417,982 14,110,013

Long Urns. 18,098,041

The maximum production of iron ore in Great Britain was reached in 1882. Great Britain is a large importer of iron ore, chiefly from Spain.

Production Of Bessemer Steel Ingots.

The statistics of the production of Bessemer and open-hearth steel ingots in Great Britain have been collected by Mr. J. S. Jeans, secretary of the British Iron Trade Association. The production of Bessemer steel ingots from 1868 to 1901 has been as follows, in long tons. There are no trustworthy statistics for earlier years.

Production of Bessemer steel ingots in Great Britain 1868-1901.

Year.

Quantity.

Long tons. 110,000

Year.

Quantity.

Long tons. 1,044,882 1,441,719 1,673,649 1,658,880 1,299,676 1,804,127 1,670.620 2,089,403 2,082,794 2,140,791 2,014,848 1,642,006

Year.

Jigitized by Vj

odgl

Quantity.

Long tons. 1,500,810 1,493,454 1,535,884 1,636,225 1.815,842 1,884,165 1.759,386 1,825,074 1,745,004 1,606,258

IRON AND STEEL, IKON ORE, AND COAL, TO 1901. PRODUCTION OF OPEN-HEARTH STEEL INGOTS.

The production of open-hearth steel ingots in Great Britain from 1873 to 1901 has been as follows. Authentic statistics for earlier years are wanting. In 1894 the production of open-hearth steel first exceeded that of Bessemer steel:

Prodvction of openrhearlh sted ingotit

in Great Britain, 187S-1901.

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

Longtont. 1,466,809 1.576,318 1,764.737 2,817,565 2,601,806 2,806,600 8,060,251 3,156,050 8,297,791

inw

Total Production Of Steel.

The following table, compiled from statistics published by the British Iron Trade Association, gives the production of all kinds of crude steel in Great Britain from 1873 to 1901. We have added to the production of Bessemer and open-hearth ingots an estimated production of crucible ingots and other steel. Steel castings are not included.

Toted production of sted in Great Britain, 187S-1901,

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

Ig75

Great Britain's maximum production of all kinds of steel was attained in 1900.

Gbbmaxy.

Production Op Iron Ore.

In his admirable and unequaled volume on coal and iron in all countries, prepared for the Paris Universal Exposition of 1878, Johann Pechar gives the production of iron ore in Germany and the Grand M B 1902 8

Mineral Resources.

Duchy of Luxemburg at various periods prior to 1869 follows: 1848, 693,725 metric tons; 1853, 903,236 tons; 1857, 1962,054 tons; 1862, 2,216,023 tons; 1866, 2,996,148 tons; 1867, 3,264,464 tons; 1868, 3,634,302 tons. The production of iron ore in Germany and Luxemburg from 1869 to 1901 is given by Dr. H. Rentzsch as follows, in metric tons. Germany imports iron ore from neighboring countries.

Produdion of iron ore in Germany and Luxemburg , 1869-1901.

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

Metric Urns. 7,238,640 7,573,772 8,263,254 8,756,617 9,005,796 9,157,869 8,485,758 9,351,106 10,664,307 11,002,187 11,406,132

Metric ioM, 10,657,521

The maximum production of iron ore in Germany and Luxemburg was reached in 1900.

Production Of Pig Iron.

The production of pig iron in Germany and Luxemburg in 1844 m said by Dr. Wedding to have amounted to only 171,000 metric tons, and Herr Pechar says that in 1848 it amounted to 205,342 tons. It was not until 1866 that the production reached 1,000,000 tons, in which year it is said by Dr. Wedding to have amounted to 1,046,954 tons. Since 1869 it has been as follows, in metric tons, according to Dr. Rentzsch, of Dresden-Blasewitz, the statistician of the Verein Deutsche r Eisen und Stahl Industrieller, who has verified the figures in the table.

Production of pig iron in Germany and Luxemburg 1869-1901.

Year.

Quantity.

Metric toTUi. 1,409,429 1,391,124 1,563,682 1,988,395 2,240,575 1,906,263 2,029,889 1,846,345 1,781,989 2,147,641 2,226,587

Year.

Quantity. !

Metric toM. 2,729,038 2,914,009 8,380,806 3,469,719 3,600,612 3,687,434 3,528,667 4,023,963 4,337,121 4,524,558 4,658,450 j

Year.

Quantity.

Metric tons. 4,641,217 4,937,461 4,966,006 5,380,039 5,464,601 6,372,575 6,881,466 7,312,766 8,143,132 8,520,541

Iron And Steel, Iron Ore, And Coal, To 1901.

Germany's maximum production of pig iron was reached in 1900.

Adding the production of pig iron by Great Britain in 1901 to that of Germany and Luxemburg, and reducing metric tons in the above table to long tons, gives us a total production of pig iron by both countries in 1901 of 15,665,810 long tons, or 213,044 tons less than the production of 15,878,354 tons of pig iron by the United States in that year.

Production Of Coal And Lignite.

The following table, for the details of which we are indebted for the earlier years to Dr. Hermann Wedding and for later years to Dr. H. Bentzsch, gives the aggregate production of coal and lignite in Germany and Luxemburg from 1848 to 1901 in metric tons. About onefourth of the annual production of coal in Germany and Luxemburg is brown coal, or lignite.

Production of coal and lignite in Germany and Luxemburg , 1848-1901.

Year.

Quantity.

1 Year.

Quantity.

Year.

Quantity.

Metric toM. 42,324,467 46,145,194 46,658,145 47,804,054 49,560,461 48,229,882 50,519,899 53,470,716 59,118,086 61,540,485 65,878,211 70,442,648 72,113,820 73,675,515 73,682,584

Metric tons, 76,232,618 81,960,088 84,978,280 89,290,884 94,262,278 92,544,090 95,426,158 96,805,702 106,957,689 112,471,106 120,474,485 127,968,560

'- 1878

' 1879

18Ot

18To

Of the total production of coal and lignite in Germany and Luxemburg in 1900 there were 40,498,019 tons of brown coal, or lignite, and of the total production in 1901 there were 44,211,902 tons of brown coal. The maximum production of coal and lignite in Germany and Luxemburg was reached in 1901.

Production Of Finished Steel.

The following table gives the production of all kinds of finished steel in Germany and Luxemburg from 1866 to 1901 in metric tons. We are indebted to Dr. Bentzsch for a verification of this table. Statistics

iC

Mineral Resources.

of Bessemer and open-hearth steel ingots for early years are not available. Steel castings are included in the table.

Production of finished steel in Germany and Luxemburg, 1866-1901,

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

Metric Urns,

Metricians.

Metric Urns. 1,613,788 1.841,063 1.976,785 2,281,873 2,608,718 2,831,818 8,462,736 8,863,469 4,352,881 4,820,275 4,825,587 4,562,952

Germany's maximum production of all kinds of finished steel was attained in 1900.

The production of Bessemer and open-hearth steel ingots and castings in Germany and Luxemburg in 1901 was 6,394,222 metric tons. Assuming that the production of crucible steel in Great Britain in 1901 amounted to 95,956 long tons, that countr's total production of crude steel in that year would be exactly 5,000,000 tons. Adding Great Britain's production to that of Germany and Luxemburg gives us for both countries a total production in 1901 of 11,293,170 long tons, or 2,180,425 tons less than the production of 13,473,595 tons by the United States in 1901.

France.

Production Of Iron Ore.

The statistical tables for this country which we shall present have been compiled in part from statistics furnished by M. Pinget, of Paris, secretary of the Comit6 des Forges de France, and in part from official Government statistics. The production of iron ore in France from 1860 to 1901 (not including Algeria, which appears hereafter) has been as follows, in metric tons:

IBON AND 8TEEL, IBOK ORE, AND COAL, TO 1901. Il7

Production of iron ore in France, 1860-1901,

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

Metric Umg. 8,604.638 8,656,464 3,790,168 3,279,895 3,005,094 3,461,672 2.899,598 2,099,706 8,081,026 3,051,124 2,616,548 2.505,870 2,398,340

Metric Urns. 2,426,278 2,469,958 2,271,173 2,874.263 3,032,070 3,467,251 8,297,858 2,976,948 2,818,104 2,285.648 2,679,465 2,841,757 3,070,389

Metric Urns. 3,471,718

The maximum production of iron ore in France was reached in 1900.

Production Of Finished Steel.

M. Pinget states that complete statistics of the production of Bessemer, open-hearth, and other steel in the form of ingots are not of record for the early years of this table, and that only the statistics of finished steel, including castings, are obtainable for those years. The following table gives the production of all kinds of finished steel in France from 1860 to 1901, in metric tons, including direct steel castings:

Production of finished steel in France, 1860-1901.

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

Metric Una. 29,848

,m

Metric tons. 256,808 269,181 833,266 388,894 468,238 621,820 602,906 668,839 464,000 498,294

Metric Urns. 617,294

The maximum production of finished steel in France was reached in

MINERAL BBdOUBOBd.

Production Of Bessemer And Open-Hearth Steel Ingots.

The production of Bessemer and open-hearth steel ingots and castings in France from 1888 to 1901 is given in the following table, in metric tons. This table has been revised by M. Pinget. About 20,000 tons of steel castings are made annually.

Production of Bessemer and open-hearth steel ingots in France, 1888-1901,

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

Metric tons. 591,807 626,282 683,858 744,484 825,486

Metric Urns.

Metric Urns. 1,433,717 1,499,026

1S96

j 1900

Production Op Coal Akd Lignite.

The production of coal and lignite in France from 1787 to 1901 has been as follows, in metric tons, about 1 ton in 50 being lignite. France is a large importer of coal from Great Britain and other countries. It also imports coke.

Production of coal and lignite in France, 1787-1901.

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

Metric tons.

Metric tons, 21,287,669 22,602,894 24,803,509

18T7

The maximum production of coal and lignite in France was reached in 1900.

IBON AND STEEL, IBON ORE, AND COAL, TO 1901. PBODUCnON OF PIG IRON IN FRANCE.

The production of pig iron in France from 1819 tx) 1901 has been as follows, in metric tons:

Production of pig iron in France 1819-1901,

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

IMelrictons. 1,178,114 869,641 1,217,838 1,381,626 1,415,897 1,448,272 1,435,212 1,606,827 1,621,274 1,400.286 1.725,298 1,886,360 2,069,067 2,069,430 1,871,687 1,680,648

Metric tons, 1,516,674

I860 r -

Production Of Iron Ore In Algeria.

The production of iron ore in Algeria, which is now regarded as a part of the French Republic, was as foUows from 1873 to 1901, in metric tons. All the iron ore mined in Algeria is exported. The figures given below are not included in the production of iron ore in France, already given:

ProdtuHon of iron ore in Algeria 1S7S-1901,

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

Metric tons. 444,718 684,624 667,286 511,669 875,838 417,858 614,146 656,646 567,119

Metric tons. 666,980 492,986 419,174 482,761 487,643 383,968 361,800 474,682 404,964 462,606

Metric Urns. 393,921 343,880 318,416 874,476 441,467 473,569 560,941 601,788 514,473

iar7... .

Mineral Be8Oub0E8.

Production Of Iron Ore.

The statistics of the mining and metallurgical industries of Belgium which we shall present are official Government statistics. This country is a large importer of iron ore, but it is a large producer and exporter of coal. The imports of iron ore into Belgium in recent years have amounted annually to about 2,500,000 tons. Its exports of coal and coke aggregate about 6,000,000 tons annually. The production of iron ore from 1840 to 1901 has been as follows, in metric tons: Production of iron ore in Belgium 1840-1901,

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

Metric toM. 894,644 299,272 862,184 809,176 1,018,281 886,641 602,829 619,740 628,046 654,882 697,272 749,781 508,666

Metric Urns. 527,050 865,044 269,206 234,127 207,167 195,212 258,499 228,412 208,867 215, 670 176,005 187,118 162,508 172,486

Metric toM. 186,542

18B4

The maximum production of iron ore in Belgium was reached in

PRODUCTION or PIG IRON.

The production of pig iron in Belgium from 1845 to 1901 has been as follows, in metric tons:

Production of pig iron in Belgiumy 1846-1901.

Year.

Quantity.

Year.

Quantity.

Year. Quantity.

I Metric tons.

I 755,781

' 746,264

I 829,234

I 1,086,087

' 979,755

j 1,024,576

Ibon And 8Teel, Tbon Obe, And Coal, To 1901. 121

PBODUCnON OF STEEL INGOTS.

The production of steel ingots in Belgium from 1865 to 1901 has been as follows, in metric tons:

Production ofsted ingots in Belgium, 1866-1901.

Year.

Quantity.

Year.

Quantity.

Metric tons. 155,169 216,186 281,847 254,897 221,296 221,918 280,087 273,118 405,661

Year.

Quantity.

Metric tons. 4,321 54,420 132,062 141,640 182,627 179,489 185,916 156,012

Metric tons. 407,684 598,974 616,604 658,180 781,249 655,199 515,780

18M

PBODUCnON OF FINISHED STEEL.

The following table gives the production of finished steel in Belgium, including steel rails, in metric tons:

Production of finished steel in Belgium, 1866-1901.

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

Metricians. 1,420 1,857 2,826 4,062 6,622 12,889 18,683 80,932 45,686 64,543 90,646

Metric tons. 102,259 88,962 102,772 119,287 151,291 156,801 153,999 125,461 137,771 191,445 185,417 214,661 201,817

Metric tons. 206,806 206,281 224,922 841,318 867,947 519,311 527,617 567,728 683,960 568,589 489,640

Mot

MIKSBAL BESOUBOBS. PBODUCnON OF

The following table gives the production of coal in Belgium from 1830 to 1901, in metric tons. The production of lignite is not included:

ProducUon of ooal in Belgium 1830-1901,

Year.

Quantity.

Year.

Quantity.

Year.

Metric UyM. 2,568,064 2,638,731 8,929,962 4,919,156 5,820,588 8,409,880 9,610,895 11,840,703 12,774,662 12,755,822 12,298,589 12,943,994 18,697,118 13,733,176 15,658,948

Metric UmB. 15,778,401 14,669,029 15,011,381 14,829,578 13,609,077 14,899,175 15,447,292 16,886,698 16,873,951 17,690,989 18,177,754 18,051,499 17,437,603 17,285,548 18,378,624

Metric ton*. 19,218,481 19,869,980 20,865,960 19,675,644 19,683,178

Gold And Silver.

By George E. Robebts,

Dvrector of the MvaL

Production.

The statistics of the production of gold and silver are furnished, as heretofore, by the Director of the Mint, to whom the statistics collected from the gold and silver mines have also been submitted.

During the calendar year 1902 the United States produced 3,870,000 fine ounces of gold, valued at $80,000,000, an increase of $1,333,300, or 1.69 per cent as compared with the yield of 1901.

Eight of the nineteen States and Territories yielding gold showed an increased production, Alaska leading with $1,460,100, an increase most marked in the quartz mines. Colorado showed an increase of $775,200. It may be stated that the general values of the ores mined throughout the State were lower than formerly, yet the tonnage has, in almost every instance, been greater. South Dakota also made a gain of $485,900; South Carolina, $75,200; North Carolina, $35,200; Wyoming, $26,100; Arizona, $29,300, and Maryland, $2,520.

The greatest decrease, amounting to $394,300, was in Idaho ; this was due to the lack of water and to the shortness of the season. Montana also showed a decrease of $370,500, due to the steady decline which has taken place for years in the productivity of the placers. Other decreases were: New Mexico, $157,300 ; California, $99,300; Utah, $95,700 ; Nevada, $68,500.

The silver yield for 1902 amounted to 55,500,000 ounces, of the commercial value of $29,415,000, an increase of 286,000 ounces, or 0.51 per cent. The greatest gain, 1,933,700 ounces, was in Nevada, due chiefly to developments in the rich Tonopah district in Nye County. Idaho, Washington, South Dakota, Arizona, and Montana also made substantial gains. The production of Colorado, owing to the decline in the grade of ores extracted, fell off 2,761,800 fine ounces ; the yield of New Mexico diminished 106,200 ounces ; Oregon, 66,800 ; Texas, 26,200 ; California, 24,800, and Wyoming, 16,400.

The total value of the precious metals produced by the United States in 1902 (silver at commercial value), amounted to $109,415,000, which was $2,380,100, or 2.17 per cent less than the yield for 1901. .

iC

Mineral Bb80Ubce8.

The following table shows the production of gold and silver in the United States from 1792 to 1902, inclusive:

Production of gold and sUver in the United States from 179if,

[The estimatefl for 17V2 to 1878 are by Dr. R. W. Raymond, United States mining comminioner, and since by the Director of the Mint.]

Year.

Total.

Gold.

AprU 2, 1792, to July SI, 1884 July SI, 1884, to Dec. 81, 1844

Mint

Census

Small.

Gold Axd Silver.

Produdion of gold and silver in the United Slnlefrom 1792 — Continued.

Year.

18M.

Total.

9106,800,64ft 106,501,666 116,000,160 118,626,757 108,500,000 118,661,000 129,157,286 127,000,172 134,847,485 141,860,026 168,704,495 160,054,600 151,758,000

Gold.

The following table shows the production of gold in the United States in 1901 and 1902 and the increase or decrease in 1902, by States and Territories:

Production of gold in the several States and Territories in 1901 and 1901S and the increase or decrease of the production of each in the latter year.

State or Territory.

Alabama.

Arizona

Colorado

Georgia

Idaho

Maryland

Michigan

Montana

Nevada

New Mexico

North Carolina

Oregon

South Carolina

Sooth Dakota

Texas

Utah

Virginia

Washington

Wyoming

Total

Net increase .

Value.

Increase. Decrease,

Mineral Resources.

The following table shows the production of silver in the United States in 1901 and 1902 and the increase or decrease in 1902, by States and Territories:

Production of silver in Die several SUUes and Territories in 1901 and 1902 , and the increase or decrease of the production of each in the latter year.

State or Territory.

Weight.

Increase. Decrease.

A.labama

Alaska

Arizona

California

Colorado

Georgia

Idaho

Michigan

Montana

Nevada

New Mexico

North Carolina .

Oregon

South Carolina. . South Dakota . . .

Tennessee

Texas

UUh

Washington

Wyoming

Fme

2,

ounces.

Total

Net increase .

Fine ounces.

fine ounces.

Fine ounces.

a55,500,000

Commercial value, t29,415,000; coining value, $71,757,575.

The following table shows the approximate distribution of the production, by States and Territories, of gold and silver in the United States in 1902:

Approximate distribution of the production of gold and silver in the United States for the calendar year 1909 by producing States and Territories.

[As estimated by the Director of the Mint.]

state or Territory.

Alabama . . Alaska Arizona ... Calilomia . Colorado . . Oeorgia

Idaho

Maryland . Michigan..

Gold.

Fine dunces. Value.

Silver.

tl29

S53

:ecl 'oy

Gold And Hilvkb.

ApproximaU disbrihuiion of the prodtictUm of gold and tilver, etc. — Continued.

Gold.

Silver.

StaUj or Territory.

Fine ounces.

Value.

Fine ounces.

Coining value.

Commercial value.

Montana

ft AAA

Nevada

New Mexico

North Carolina

Oregon

South Carolina

South Dakota

Tenneaeeo

Utah

Viiglnia

Washington

Wyoming

Total

The following table shows and silver in 1902 according

the distribution of the production of gold to sources of production:

DiMribuHon of the production of gold and gilver in the United States for tJie calendar year 190S ae to sources of production.

[As reported by mint officers and agents.]

state or Territory.

Gold.

Quarto.

Silver.

Quarts.

PUcer.

Copper ores.

Fineounces.

Fineouneea.

Flneouneet,

Ftiteounca.

Ari ina

a 12, 324, 766

California

Coloiado

Geoigia

Idaho

Michigan

If

Nevada

New Mexico

North

Oregon

South Carolina

South Dakota

Tennessee

Texss

Utah

' Virginia

Wajifington T , . -,

Wyoming

Total

a Lead and copper ores.

Minebal Resources.

The following table shows the production of gold in the famous Cripple Creek district of Colorado for the eleven years from 1892 to 1902, inclusive:

Production of gold in Cripple Creek district, Ootorado, 1892-1902.

Total.. 111,447,234

The following table shows the production of gold in the United States in 1900 and 1901, and the increase or decrease in 1901, by States and Territories:

ProdxMtion of gold in the United States in 1900 and 1901, and the increase or decrease in 1901, by States and Territories.

State or Territory.

Alaska

Arizona

California

Colorado

Georgria

Idaho

Michigan

Montana

Nevada

New Mexico

North Carolina .

Oregon

South Carolina . South Dakota...

Texas

Utah

Washington — Wyoming

Alabama . . .

Maryland ..

Missouri —

Tennessee . .

Virginia

Total

Net decrease .

1F6,885,700

J 79,171,000 I

Increase.

Decrease.

T

Gold And Silver.

The following table shows the production of silver in the United States in 1900 and 1901, and the increase or decrease in 1901, by States and Territories:

Production of silver in the Mited States in 1900 and 190 ly and the increase or decrease in 1901 f by States and Territories,

state or Territory.

Weight.

Increase.

Decrease.

Alabama

Alaska

Arizona

Colorado

Idaho

Michigan

Montana

Nevada

New Mexico

North Carolina .

Oregon

South Carolina . South Dakota . .

Texas

Utah

Washington

Wyoming

Fine

%

ounces.

Total

Net decrease.

Fine ounces.

Fine ounces. Fine ounces.

a 55, 214, 000

a Commercial value. 938,128.400; coining value. 971,887,800.

The following table shows the distribution of the production of gold and silver in the United States in 1900, by producing States and Territories:

Approximate distribution of the production of gold and sUver in the United Slates for the calendar year 1900, by producing States and Territories.

[As estimated by the Director of the Mint.]

State or Territory.

AUkbama . . Alaska Arizona ... CaUfomia . Colorado . . Georgia —

Idaho

Maryland . Michigan.. Missouri...

Gtold.

Quantity. Value,

Fine ounces.

n,900

Silver.

Quantity.

Fine ounces.

Coining value.

29

Commercial value.

62

Total value

commercial

Jigitized by

M R 1902

Approximate distribiUion of the prodttdion of gold and silveTf etc. — Continued.

State or Territory.

Montana

Nevada

New Mexico... North Carolina

Oregon

South Carolina South Dakota .

Tennessee

Texas

Utah

Washington . . . Wyoming

Total

Gold.

Quantity. Value.

Fine ounces. 227,266 97,060 40,292 1,179 81,980 296,842 192,165 84,748 .1,655

Silver.

Quantity.

Fine ounces.

Coining value.

Commercial value.

Total value

commercial

value.

The following table shows the distribution of the production of gold and silver in the United States in 1901, by producing States and Territories:

ApproxitnaJte distribiUion of the production of gold and silver in the United States for the calendar year 1901 , by producing States and Territories.

[As estimated by the Director of the Mint.]

State or Territory.

Gold.

Quantity. Value.

Silver.

Quantity.

Coining Commervalue. cial value.

Total value

commercial

Alabama

Alaska

Arizona

California

Colorado

Georgia

Idaho

Michigan

Montana

Nevada

New Mexico

North Carolina .

Oregon

South Carolina . South Dakota . .

Texas

Utah

Virginia

Washington — Wyoming

Fine ounces.

Fifie ounces

Total 8,805,600 78,666,700 65,214,000 71,387,800 33,128,400

Gold And Silver.

The following table shows the distribution of the production of gold and silver in 1901 according to sources of production:

Distribution of the production of gold and silver in the United States for the calendar year 1901, as to sources of prod4;tion.

[As reported by offlcera and agents of the Mint.]

State or Territory.

Gold.

Quartz.

Placer.

surer.

Quarts.

Lead ores. Copper ores.

Alabama

Alaska

Arizona

California

Colorado

Georgia

Idaho

Maryland

Michigan

Montana

Nevada

Sew Mexico

North Carolina.

Oregon

. Boath Carolina . South Dakota . .

Tennessee

Texas

Utah

Virginia

Washington

Wyoming

Total.

JFilUi ounces.

Ftneouncei.

Fine ounces.

Fine ounces.

Ftneounoes.

a 13, 917, 801

a Lead and copper ores.

Ic

Manganese Ores.

By John Bikkinbine.

Production.

Summary Op Production And Value.

The quantity of manganese ore produced in the United States in the year 1902 was 16,477 long tons, valued at $177,911. This is an increase of 4,482 long tons and $61,189 over the 1901 production of 11,995 long tons, valued at $116,722, and is the largest amount mined since the year 1891.

The following table presents by States the production, total valuation, and average value per ton at the mine of the manganese ores produced in the United States for the years from 1896 to 1902, inclusive:

Production and value ofmanganege ores in the United States 1896-190S,

State.

Quantity.

Value.

Average

value

per ton.

Quantity.

Value,

Average

value

per ton.

Quantity.

Value.

Average

value

per ton.

Aii>.bAinA

a $143

a$6.60

Arkanrnw

Georgia

Michigan

North Carolina

Pennsylvania

IVnncaiino . . . ,

Viiginia

Wort Virginia

Total

afigtimated.

38

Ic

Minebal Besouboes.

Production and value of manganese ores in the United States, 1896-1902 — Oontinned.

State.

Quantity.

Value.

Average

value

per ton.

Quantity.

Value.

Average

value

per ton.

S10.62

California

Georgia

Montana

North Carolina

Tennessee

Virginia

West Virginia

Total

State.

Quantity.

Value.

Average

value

per ton.

Quantity.

Value.

Average

value per ton.

nil

California . .'

Qeorgla

Missouri

Montana

South Carolina

Tennessee

Utah

Virginia

Total

Six States contributed to the 1902 total. Alabama, Missouri, Tennessee, and Utah, which supplied ore in 1901, reported no manganese ores mined in 1902, while South Carolina contributed a sample shipment of 8 tons. Montana is also added to the list of contributors, but none of this ore was shipped, it being stocked at the mine. This State, a new contributor, with a reported output of 9,000 tons, takes first rank. The other prominent contributing States, with the exception of California, show a reduction in the amount of ore produced; and had it not been for reported production in the State of Montana, the industry would have shown a considerable decline in 1902. Montana, Virginia, and Georgia contributed a total of 15,541 long tons, or 94 per cent of the total for the United States. Omitting the 9,000 tons reported for Montana as mined and not shipped, Georgia furnished 47 per cent and Virginia 41 per cent of the product of domestic manganese ore.

The following table shows the production and total valuation of

manganese ores in the United States from 1880

the

Manganese Ores.

quantities mined in the States of Virginia, Georgia, and Arkansas, which have heretofore been the largest contributors:

ProduUion of manganese ores in the United States, 18S0-190S, [Maxima are given in italics.]

Year.

Viixlnia.

Georgia.

Arkansas.

Other States.

Total production.

Total value.

Long ions.

i,aoo

Longiont.

Long tons.

$U,6tU

2,580 6,041 9,0ik 5,568 5,208 8,575 1,277 8,866 4,085 8,882 6,689 8,089 8,447 8,600

5S5,aa

Total for 28 yean

Production Op Manganiferous Iron Ores.

As in previous annual statements, the amount of manganiferous iron ores produced in the United States is included in the report on iron ores, but it is also noted here as a matter of interest in connection with manganese ores.

In the Lake Superior iron district many of the iron ores carry small percentages of manganese, but in the greater number of such ores this does not exceed 1 per cent. Some of the manganiferous iron ores mined in Colorado, and also some of the Lake Superior ores, were used in the manufacture of spiegeleisen, but the larger portion of the Colorado production was utilized as a flux by the smelters.

The production, approximate percentages of manganese, and reported total and average values of manganiferous iron ores produced in the United States in 1902 are as follows:

Mineral Bbsoubges.

Production, percentage of manganese, and total and average value of manganiferous iron

ores in 190S,

Locality.

Quantity.

Percentage of manga-

Reported total Yalae at mines.

Avenge

value per

ton.

Coloiado

Lake Superior region Virginia

Total

Not given.

lto32

The annual production, valuation, and average value per ton of manganiferous iron ores mined from 1889 to 1902, inclusive, are presented in the following table:

Production of manganiferous iron ores in the United States, 1889-190S. [Maxima in italics.]

Year.

Quantity.

Value.

Average

value per

ton.

Long tons. 83,434 61,863 182,511 117,782 205,488 126,729 338,712 202,304 287,810 761,845 377,577 574,489 901, iU

g,00l,6t6

S3. 26

S.7U

Production Op Manganiperous Silver Orbs.

In mining the precious metals a considerable amount of manganiferous iron ore is obtained which carries an insufficient percentage of the precious metal to make it valuable on that account, but it is used as a flux by the smelters. This is particularly time in the State of Colorado.

The ores which are obtained at Leadville, Colo., and vicinity are classed generally as carbonates, sulphides, oxides, and siliceous ores. The first refers to ores having as their chief value carbonates of lead and silver; the second, to iron or lead sulphide ores; the third, to an ore carrying either carbonate, oxide, or sulphide minerals, but in which silica is in excess of iron in the ore; and the fourth, to manganiferous iron oxide.

Manganese Ores.

The three first-named classes are primarily dependent tor their value upon the contents of metals other than iron and manganese. The fourth may or may not be dependent on these elements, but the ores are considered in this statement as argentiferous manganiferous iron ores unless their value for smelting purposes as represented by other metals is above what may be considered the normal mining and smelting charges, aggregating in the neighborhood of $12 per ton. Owing to the difficulty of segi'egation in every case, and to the fact that some mines produce several of the above varieties, the subdivision can not be exact. In other words, a considerable part of the production of the Leadville, Colo., district is properly classed as argentiferous manganese or iron ores, which would be supplied to smelters as a fluxing medium.

This ore was also included in the report on iron ores, the amount

mined from 1889 to 1902, together with the total and average values,

being as follows:

Production of manganiferous silver ores in the United States, 1889-190S,

Yeac

Quantity.

Value.

Average

value per

ton.

Long tonf.

a 55, 962

ft 31, 687

Ig95

a Including 1,500 tons from Montana, for which no value is given, ft Including 1,049 tons from Montana, for which no value Is given.

Production Of Manganiferous Zinc Ores.

In northern New Jersey zinc ores are obtained which carry varying percentages of iron and manganese, and the cHnker resulting from the ti*eatment of the ores to obtain the zinc content is used in the production of spiegeleisen. The amount of this character of ore produced in the year 1902 was 65,246 long tons, valued nominally at per ton. The production of this class of ore clinker in the United States from 1889 to 1902, inclusive, together with the total and average value per ton, is given below.

Ic

Production of manganiferou8 zinc ore renduum in the UniUd States, 1889-190.

Year.

Value.

Average

value per

ton.

a26,676 82,605 84,844 62,811 66,246

I.Oo

a BsU mated. PRODUCTION OF MANGANESE AND MANGANIPEROUS ORES.

The following table shows the production of ores containing manganese in various percentages which were produced in the United States in the years 1901 and 1902, together with the total and average value per long ton:

Production of manganese and manffaniferous ores in the United States in 1901 and 190iS,

Kind of ore.

Quantity.

Value.

Average

value per

ion.

Quantity.

Value.

Average

value per

ton.

Manganese ores

Long Ions.

Long tons.

Manganiferous iron ores

Manganlferous silver ores

Manganiferous sine reslduuma..

Total

a As this is a by-product in the treatment of zinc ores, the value given to it is nominal.

Production Op Manganese Ores By States.

The contributions made to the total output of manganese ores by various States are summarized in the following statements:

Arkansas.

From 1885 to 1898, inclusive, Arkan.sas was an important contributor of manganese ore, but since the last date the amontnuned

jigi izea oy g

Manganese Ores.

been small, the total for 1902 being but 82 tons, valued at $422, all of which came from the Batesville district. This State has a number of manganese deposits, but, owing either to lack of transportation or high phosphorus content, few have been worked. The total amount of ore produced by the Batesville district from its opening, in 1850, to 1902 is 49,974 tons. The yearly productions are shown in the following table:

Production of manganese in the BatemUe district of Arkansas from 1860 to 1900 inclusive.

Year.

Authority

Quantity.

'&rtlniatwl. . . .

Long lone.

del

Railroad reports of shipments

do

do

do .

Mineral Resources of the United States

do

do

do

Eleventh Census

Mineral Resources of the United States

do

do

do

do

do

do

do

do

do

do

do

do !

Total

California.

Manganese ores have been exploited at various times in a number of localities in California, but during the year 1902 only deposits in Alameda, San Joaquin, Santa Clara, and Stanislaus counties were operated. The quantity obtained in 1902, 846 tons, valued at $10,175, is the maximum production for the State. The total quantity mined from 1874 to the close of 1902, 11,358 tons, and the annual outputs appear in the following table:

Total production of manganese ores in Calif omia lS7jhl909'

Quantity.

Year.

Quantity.

Long ions,

Tntal

1R96

Colorado.

In this State considerable quantities of argentiferous and manganiferous iron ores are mined, which are used either in the production of spiegeleisen in the steel works or as a flux by the smelters. These ores, except those which are used in the production of spiegeleisen, are all accounted for in the iron ore report, but are mentioned here as they contain varying percentages of manganese.

Any ore worth as much as $12 or over per ton, although it may contain desirable percentages of iron and manganese, is not considered in this class, as the high valuation is due to the amount of precious metal contained in the ore.

The production of argentiferous and manganiferous iron ore in Colorado from 1889 to 1902, inclusive, is as follows:

Production of manganiferous ores in (Morado, 1889-1902.

Ore.

Manganiferooa iron ores used for producing spiegeleisen . .

Manganiferous silver ores

Longtons.

Longtons.

Longtons.

Longtons.

Longtons.

Longtons. 13,464

Total

Ore.

Manganiferous iron ores used Manganiferous silver ores

Long tons.

Longtons.

Longtons.

Longtons.

Longtons.

Longtons.

Longtons.

Total

Qeoroia.

In the year 1902 the production of manganese ore in this State amounted to 3,500 tons, valued at $20,830, a falling off jofidMdons

Manganese Ores.

from the 190i production of 4,074 long tons. The total production to the close of the year 1902 is 91,694 long tons.

The following table shows the quantities mined each year from 1866 to 1902, inclusive:

Prodiuiion of manganese ores in Georgia 1866-1902,

Year.

Quantity.

Year.

Long Unit. 5,550 2,400 2,400 2,400 2,400 2,400 2,400 1,800 1,200 1,000

Total

a None reported.

There are two manganese-producing districts in this State, one in the vicinity of Cartersville, Bartow County, and the Cave Spring district in Floyd and Polk counties. Ores have also been reported in other sections of the State, but none have as yet developed commercial importance. The mines in the Cartersville district only were active in 1902.

Montana.

in previous years this State has been comparatively unimportant as far as the production of manganese is concerned, but 9,000 tons of ore were reported as mined in 1902 from two deposits, and stocked at the mines. Analysis of the ore is said to show 45 per cent and over of manganese.

If this ore is not high in phosphorus and silica it should command a ready market, provided the freight rates to steel works be not prohibitory, and it would also be valuable as a flux.

Nevada.

Mr. Daniel Boneili reports a number of manganese claims situated in the St. Thomas mining district, Lincoln County, Nev., lying at the foot of a range of basic eruptive masses, and fonning one side of the Boulder Canyon, below Rioville. "They are largely

inNEBAL BESOUBOES.

says are quite extensive, and contain all the ores of mannese from rhodocrosate to pyrolusite. The ore is claimed to yield from 18 to 48 per cent metallic manganese, but as there are no railroads in the vicinity, it is doubtful whether these deposits will be exploited in the immediate future.

South Carolina.

A small quantity of manganese ore, 8 tons, was shipped in 1902 as a sample from a deposit located near Greenwood, S. C.

Virginia.

This State was formerly the most impoi'tant contributor of manganese ore in the United States, the bulk of the mineral won coming from the Crimora mine, located near the railroad station of the same name. A company has taken hold of this old mine and is at present engaged in exploring it, in the hope of being able again to resume operations on a profitable scale. If this venture proves successful, it is probable that in the future this State will show an augmented out put. The amount mined in 1902, however, was but 3,041 long tons valued at $29,444, giving Virginia third position as a producer. It shows a falling oflF of 1,234 tons from the 1901 output of 4,275 tons.

The annual production in this State from 1880 to 1902 is given in the following table, the total output for twenty-three years being 191,067 long tons:

Production of manganese ores in Virginia 1S80-190. [Maximum in italics.]

Year.

Quantity.

Year.

to, 667

Long tons. 4,092 1,797 1,715 2,018 8,650 5,662 6,228

Total

Uses Of Maxganesf. Ores In The Steel Industry.

The manganese ore mined in the United States, and also that imported from foreign countries, is chiefly used in the production either of spiegeleisen or of ferro-manganese. The quantity of metallic manganese used in this form, or present in the metal prepared, varies, per ton of steel ingots, according to the practice of the works in different

Manganese Ores.

sections of the country, but an investigation shows that the following closely represent the average consumption for various classes of steel:

Open-hearth steel, 13.5 pounds of metallic manganese per long ton of ingots.

Soft Bessemer steel, 16.5 pounds of metallic manganese per long ton of ingots.

Bessemer rail steel, 29 pounds of metallic manganese per long ton of ingots.

These averages have been obtained from a number of plants, whose practice in open-hearth steel varies from the use of 9 pounds of metallic manganese per long ton of ingots to 37 pounds per ton, in the latter case the steel being used for special purposes. In soft Bessemer steel the variation is not so marked, running from 14 to 17 pounds. In Bessemer rail steel, however, the range is from 25 to 31 pounds of metallic manganese per ton of ingots, and in the manufacture of high carbon or high manganese rails even more than 31 pounds of metallic manganese per long ton of ingots are used.

Imports.

The United States is a large consumer of manganese ores, and owing to the insuflScient supply of satisfactory native ores large quantities are imported from various foreign countries, the quantity brought in during the year 1902 being 235,576 long tons, valued at $1,931,282, or $8.20 per ton. Brazil, with a total of 102,550 tons, was the principal contributor, retaining the first place, taken from Russia in 1901. The other impoi-tant contributors were India, Cuba, Turkey, and Spain, in the order named, and smaller amounts were imported from Russia, Japan, Germany, and the United States of Colombia— the present Republic of Panama.

The table below shows the imports of manganese ores into the United States during the calendar years 1899 to 1902, inclusive, by countries, together with the valuations of the ores:

Imports of manganese ores into the United States during the calendar years 1899, 1900, 1901, and 190S, by countries.

Country.

Quantity. Value. Quantity. Value.

Bnudl

Russia, Black Sea. . . British East Indies..

Cuba

Chile

Colombia

Turkey In Asia

Turkey in Europe... Japan

Long Urns.

Long ton*.

Quantity. Value.

Long ions.

Quantity. Value.

Long tons.

Ic

Imports of manganese ores inio the United States, etc, — Continued.

Country.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

France

Long tons.

Long tons.

Lotigtons.

Long tons.

Germany

r6,827 10,568

S68,241 10,814

United Kingdom ... French West Indies.

Greece

Quebec, Ontario, etc .

Noya Scotia, New Brunswlclc, etc ...

Aufitiia-Hun£ry . . .

Spain

Netherlands

Belgium

Total

The importations in 1902, by customs districts, indicate that 85 per cent, or 200,434 tons, were received at the port of Baltimore and 12 per cent at Gulf ports, the remainder being scattered among a number of ports, situated principally on the Atlantic seaboard.

The following table presents the quantity and value of the manganese ore imported into the United States during the calendar years 1899 to 1902, inclusive, by customs districts:

Manganese ore imported into the United Stales during tht calendar years 1899, 1900, 1901, and 190i, by customs districts.

Customs district.

Quantity.

Value.

Quantity.

Value.

Quantity. Value.

Quantity.

Value.

Philadelphia, Pa

Baltimore, Md

New York, N.Y

Norfolk. Va

Long tons.

Long tons.

Long ions.

Long tans.

Pittsburg, Pa

Newport News, Va.. Chicago 111

Boston, Mass

Passamaquodd y , Me . Pensacola. Fla

10S

Mobile, Ala

Huron Mich

Champlain, N. Y Ail others

Total

The relative quantities of domestic manganese ore produced and of foreign manganese ore imported indicate that the importations have, as a rule, showed an almost constant increase from 1889, with the exception of six years, and that the domestic production JPllSPff-

Manganese Ores.

The average for the last fourteen years is 14,130 long tons of manganese ore produced in the United States, valued at $129,497, while the amount of imported ore for the same period shows an annual average of 102,639 long tons, valued at $930,602.

The following table illustrates the relative quantities and values of domestic and imported manganese ores from 1889 to 1902, inclusive:

BdfOxot ruantdtef (md values of domestic and imported manganese ores, lS89-190iS,

Year.

Domestic production.

Quantity. Value.

Imports.

Quantity. Value.

lan

ms

T6tal for 14 yean ... Avemge for 14 years

PRODUCnOK OP MAIGANESE ORE IN FOREIGN COUK-

Trie8.

As the importations of manganese ore are so prominently in excess of the domestic production, data concerning some of the sources of foreign manganese ores appear in the following pages. Because of the present close geographical and the future commercial relationship of the two countries to the United States, the manganese deposits of Cuba and Panama receive special attention.

Canada.

Exploited manganese deposits in Canada are found in the Provinces of Nova Scotia and New Brunswick, but in the year 1902 only those in the former province were active. The production for that year, as reported by the Canadian Geological Survey, was 84 tons, valued at $2,774, but the exports during the same period were 172 tons, valued at $4,062. The Geological Survey of Canada explains that these figures would seem to show that there are other producers of manganese ore, but so far these have not been located. The amount of ore mined in Canada from 1886 to 1900, inclusive, together with the total and the average value per ton, also the exports by provinces from 1873 to 1902, inclusive, are given in the following tables: .r>

&#x27; &#x27; Vic

M B 1902 10

Mineral Resouboes.

Production of manganem ore in Canada 1886-1900.

Year.

Quantity.

Value.

Short tons.

S41,499

Value' per ton.

1896a. 1897a. 1899b. 1900e.

a Exports.

ft Nova Scotia mined 63 tons. New Brunswick'n product was 1,518 tons.

t'Nova Scotia mined 10 tons and New Brunswick 20 tons.

Exports of manganese ore from Oanaday 1878-190.

Year.

Nova Scotia.

Quantity. Value.

New Brunswick.

Quantity. Value.

Total.

Quantity. Value.

Short ton*.

a441

Short tons. 1,031

Short tons.

a 1,818

lA

a250 tons should be more correctly clawed under the heading of mineral pigments.

mowing to changes in compiling customs returns, exports can no longer be given by provinces.

Manganese Obes.

Cuba.

Two companies are actively engaged in mining manganese ores in Cuba, the Ponupo Mining and Transportation Company and the Standard Manganese Company, the total shipments from the port of Santiago de Cuba in 1902 amounting to 39,628 long tons.

The Ponupo manganese ore is obtained from mines located near La Maya, about 16 miles northeast of El Cristo, the ore shipped having about 47 per cent of metallic manganese. A description of this deposit appeared in the report for 1899.

The Standard Manganese Company's property, known as the Boston mine, is located about three miles southeast of the town of £1 Cristo. The mine is worked open-cut, across the crest of the hill, through mixed sandstone and manganese. The ore occurs in pockets, the bulk being in wash dirt; but by picking some good manganese ore is obtained which does not require washing. When ready for shipment the ore is reported to carry about 50 per cent metallic manganese and from 1 to 3 per cent of iron.

In a report on the mineral resources of Cuba, prepared by H. C. Brown under the direction of Dr. David T. Day, which appeared in the civil report of the military governor of Cuba, Volume V, Part 11, is a detailed description of the manganese mines of Cuba.

Exports Of Cuban Manganese Ore.

The following table gives the Cuban exports from 1888 to 1902, inclusive, the shipments in 1902 being the maximum annual production:

Exports of manganese ore from Santiago distridy Ouhaj 1S88-1909,

Year.

Quantity.

Year.

Quantity.

Long torn. 1,942 21,810 18,751 10,640

LongUmg. None

None

Panama.

The following excerpts are from a paper by Mr. E. G. Williams on the "Manganese industry of the Department of Panama, Republic of Colombia."

Manganese ore has been found on the Isthmus of Panama throughout a region of nearly 300 square miles, over the greater part of which, however, it is found in small bodies without commercial value.

Only six mines, controlled by two companies, have actually shipped ore, although a large area has been taken up in mining claims.

The ore-bearing region extends along the coast of the Caribbean Sea, beginning on the west near Puerto Bello and continuing easterly about 35 miles toward Point San Bias. Ore has been discovered in the interior, at a maximum distance of about 10 miles from the coast.

The first shipments from the region were made in 1871, from the village of Viento Frio. This early mining was primitive, and consisted in breaking up surface bowlders near the sea and packing the ore to the coast upon men's backs. Probably 1,000 tons of ore were shipped in small vessels, mostly to England, between 1871 and 1875, when the loss of a schooner near Viento Frio caused the abandonment of the work.

The discovery in 1890, about 6 miles south of Viento Frio, of large bowlders of high-grade ore upon the surface, which had been unknown to the early miners, caused a revival of interest in manganese mining in the locality, and led to the formation of the Caribbean Manganese Company, which in 1894 and 1895 constructed from the shipping port of Nombre de Dios to the base of the range upon which its principal mine was located a 3-foot gauge railroad, 9 miles in length, with maximum grades of 6 per cent in favor of the traffic and maximum curves of 40.

Except this company, the only shipper from the region has been the firm of Brandon, Arias & Fillippi. The Caribbean Manganese Company has shipped ore from four properties, the Viento Frio, the Carano, the Conccpci6n, and the Soledad. The firm has shipped from the La Guaca and the Culebra mines. All the mines mentioned are near the railroad except the Culebra, which is on a small island about 12 miles east of Nombre de Dios. Some ore has been mined at Meamar, about midway between Nombre de Dios and Culebra, but none has been shipped.

The total production of the region to date has exceeded 60,000 tons

All of the ore deposits are upon the Atlantic slope of the Cordilleras, The manganese deposits occur upon the comparatively low lands near the sea as well as upon the summits of the hills in the interior, and the Culebra mine is, as stated, upon an island, a remnant of the mountain spur which here approaches the sea.

The rocks immediately associated with the manganese deposits are all of sedimentary origin, probably originally shales, but so greatly decomposed as to leave their original character doubtful. In the vicinity of some of the ore deposits the rocks have been metamorphosed into a jasper, and thus preserved.

The surface clays are usually light yellow. Where associated with ore in place, however, the clay is generally bright red, but it is found in all shades from red to white, the colors resulting from the various

&#x27; U U V Ivc

Manganese Ores.

stages of oxidation and hydration of the manganese and iron contained in the clay.

The ore occurs as oxides. The principal variety, furnishing the greater part of the commercial ore, is psilomelane. Pyrolusite and braunite also occur. The psilomelane and pyrolusite are intimately associated, one oxide blending into the other without visible lines of separation. In massive psilomelane small cavities may be filled with pyrolusite, and clusters of pyrolusite crystals have been found radiating from a base of psilomelane. The psilomelane is massive and very hard.

Samples of the purest ore of the Soledad mine anal'zed by Prof. S. L. Penfield, of Yale University, gave the following result:

Ancdygis of manganese ore from Soledad mine Panama,

Constituent.

Per cent.

Constituent.

Per cent

1.S2

Total

Metallic manganese

The Caribbean Manganese Company has reported that no manganese ore was minded during the jear 1902, but the following table will show the shipments of manganese ore from Colombia, as reported to this oflBce, from the year 1896 to 1902, inclusive:

Shipments of manganese ore from Panama, 1896-190.

Calendar year.

Quantity.

Calendar year.

Quantity.

Long Unu. 18,216

Long tons.

None.

a Not reported.

Brazil.

Mr. Herbert Kilbourn Scott, mining engineer, who has made a special study of the manganese ores of Brazil, is authority for the following:

The manganese-ore industry in the State of Minas Geraes continued to expand during the year, the total quantity of mineral exported to consuming countries from this State during the year 1902 amounting to 141,859 tons, which was divided among the principal exporting firms approximately as follows:

Finn.

Location of mine.

Production.

Qoncalyes Ramos & Co

8oci6t6 des Mines de Manganese de Ouro Preto .

Miguel Bumier..

Plquiiy

Longtons. 48,000 60,000 44,000

The output of the Usina Wigg mine was shipped to England, that of the other firms going to United States consumers.

The Usina Wigg mine is now the only one of importance in active operation in the Miguel Bumier district. The mineral of this mine occurs in a bedded deposit about meters in thickness, and work has been continued on it throughout the year, the average production being at the rate of about 4,000 tons per month.

Owing to the high percentage of the moisture in the ore, due to its spongy character, American producers of ferro-manganese have net used this mineral lately, and the total output went to Europe. Attempts to dry or calcine the mineral with 'subsequent briquetting have not been successful by reason of the difficulty of making the briquette sufficiently hard to withstand the repeated handling before they reach the blast furnaces.

At the Sao Goncalo and Piquiry mines in the Lafayette district the mineral occurs as huge lenticular masses and is worked open-cut, the output of the two mines amounting to about 8,000 tons per month. The mineral is of good quality, although more phosphoric than that of Miguel Bumier, and owing to its freedom from moisture and its lumpy character it is preferred by the United States ferro-manganese manufacturers.

Another large deposit of the same character as those of Sao Goncalo and Piquiry, situated in the same district, has lately been opened. It is known as the 'Morro da Mina," and the natural conditions are so favorable for mining the ore, and the lenticular masses so large, that it has been possible within four months after operations were inaugurated to have a regular output of 500 tons per day. The first shipment of this mineral left for Europe in January of 1903, and it is said that the ore analyzed 49 per cent metallic manganese, 0.08 per cent phosphorus, 2 per cent silica, and 2 per cent moisture.

Several cargoes have been shipped during the year from the port of Bahia, nearly the whole of this mineral coming from the Onha mine, near Nazareth. The total amounted to 14,410 tons, but it is doubtful if there is any likelihood of increased exports from this district of Brazil in the future.

The total shipments of manganese ore from Brazil in 1902 were 156,269 long tons.

The manganese ore is transported from the mines in the State of Minas Geraes by the Central Railway of Brazil, the wide gauge of which is being extended to the station of , in order that the mineral from the Piquiry and Sao Goncalo mines can be

Manganese Obes.

reshipment from the narrow-gauge road now running from the mines to the station of Lafayette. Owing to the increased output there may be a possible decrease in the value of the manganese pre, but if a market can be found for the Minas Geraes ores at present prices the production can be considerably increased over that of 1902.

Exports Of Brazilian Manganese Ore.

The importance of Brazil as a producer is exhibited by the following: Exports of Brazilian manganese OTe 1896-190,

Year.

Quantity. :

Year.

Quantity.

Long torn. 14,710 27,110- 62,170

Long tons, a 127, 348

a Europe, 76,910; United States, 51.488.

b Europe, 47,680; United SUtes, 48,080.

Chile.

Manganese ores are found in different portions of Chile, but the commercial mines are confined to the provinces of Atacama and Santiago. Other deposits have been exploited in the provinces of Aconcagua and Coquimbo, and still others -are reported farther south. Practically all of the manganese ore produced is exported, the yearly quantities shipped from 1885 to 1901 being as follows:

Exports of Chilean manganese ores, 188S-1901. .

Year.

Quantity.

Value.

Year.

Quantity.

Value.

Long tons. 4,041 28,928 47,521 18,713 47,986 34,462 50,871 86,162

Long tons. 47,238 25,740 23,156 20,522 40,285 25,319 81,477

J

Minbbal Be80Ubces.

Great Britain.

In Great Britian a limited quantity of manganiferoos iron ore is obtained, the production in 1902 being 1,278 tons, a decrease of S68 tons from the 1901 production of 1,646 tons.

The following table shows the quantity of nianganiferous iron ore mined in the United Kingdom from 1884 to 1902, inclusive, together with the valuation of the same:

Prodiuiion and value of manganiferaus iron ores in the United Kingdom lS84J90t.

Year.

Quantity.

Value.

Year.

Quantity.

Value.

Ss,582 8,828

al,660

18W ,

a Estimated. BELGIUM.

Manganiferous iron ore is mined in Belgium, the amount produced in the year 1900 being 10,820 metric tons, valued at $26,158.

The following table shows the quantity and value of manganiferous iron ores mined in Belgium from 1880 to 1900, inclusive;

. Production of manganiferoui iron ores in Belgium 1880-1900,

Year.

Quantity.

Value.

Year.

Quantity.

Value,

Metric tana.

Metric Umt. 16,775 22,048 22,478 28,265 28,872 16,440 12,120 10,820

France.

Manganese ores are obtained in two departments south of L'Aridge and in the western and central sections of Sadne and Lioire, the Comity des forges de France giving the production in 1901 as 22,300 metric tons. The production for 1902 has not been collated and pub-

Manganese Obe8.

The annual production and value of the manganese ores mined in France from 1886 to 1901, inclusive, is as follows:

ProducUon and value of manganese ores in France, 1886-1901.

Year.

Quantity.

Value.

Value per ton.

Year.

Quantity.

Value.

Value per ton.

18B6

Longtont.

9.W2 15,781 15,101 81,894 87,406

Vsh

um

UBt

ifta

Germany.

The greater portion of the manganese ore produced in Germany comes from the Ejngdom of Prussia, and should be more properly classed as a manganiferous iron ore. A small amount of true manganese ore, however, is obtained from the other German provinces. The total amount of manganiferous iron ore mined in Prussia in 1902 was 48,882 metric tons, valued at 530,000 marks ($126,140), and the production in other portions of Geimany amounted to 930 metric tons (915 long tons), valued at 49,000 marks (111,662).

The production and value of manganese ore mined in Prussia from 1881 to 1902, and in all Germany from 1890 to 1902, were as follows, those for later years being furnished by Mr. E.' Schrodter, secretary of the Verein Deutscher Eisenhiitten Leute and editor of Stahl und Elisen:

ProdwsLion and value of manganese ores in TVumwi, 1881-1902,

Year.

Quantity.

Value.

Year.

Quantity.

Value.

im

Lmig ttnu. 30,892 38,384 41,854 39,266 42,925 44,538 41,565 60,425 57,100 54,984

van

' 1898

fMl

ism

' 1897

laao

tt§i..,..

MINERAL BES0URGE8. Production of manganese ores in Germany, 1890-190S,

Year.

Quantity.

Year.

Quantity.

Italy.

Italy contributed 2,477 metric tons of manganese ore in 1902, and in addition some manganiferous iron ore.

The following table gives the production and value of maganese and manganiferous iron ores in Italy from 1860 to 1902, inclusive.

Production and value of manganese and manganiferous iron ores in

Holy, 1860-1902,

Year.

Manganese ores.

Manganiferous iron ores.

Quantity.

Value.

Quantity.

Varue.;

Long tons.

in nfin

Long tons.

f"

a29,526

a29,526

a 92, 640

a 92, 640

Ores.

Production and value of manganese and mangani/erous iron ores in Italy etc, — Cont'd.

Year.

Manganlferous iron ores.

Quantity.

Value.

Quantity.

Value.

Long ton*. 2,891 1,223 1,860 1,608 2,966 4,287 6,919 2,147 2,488

18M ,

a In original, 80,000 metric tons, valued at 480,000 lire, possibly an estimate.

Spain.

The greater portion of the manganese ores mined in Spain are of the carbonate and silicate varieties, being obtained in the province of Huelva. A small amount of oxide of manganese is also occasionally mined in the provinces of Obideo and Teruel. Mr. Carl Doetsch gives the total production of manganese in the province of Huelva, for the year ending December 31, 1902, as 62,944 metric tons.

The table given below shows the countries to which this ore was exported for the years from 1899 to 1902, inclusive.

Exports of Huelva manganese ores inl899y 1900, 1901, and 190,

Country.

Quantity.

Belgium and Luxemburg.

England

Ftance '

Germany ,

Total

Metric tons.

Metric toni

Metric tOM,

Metric tons.

Production of manganese ores in Spain, 1890-1901,

Year.

Quantity.

Year.

Quantity.

Long Urns.

Long tons. 101,937 136,182 136,583 127,864 0 90,224

a Province of Huelva only.

Mineral Besoubobs.

Portugal.

Manganese ore is mined in Portugal, principally in the district of Beja, in the province of Alentejo, the quantity mined in 1901 being reported as 9,400 metric tons.

Austria-Hunqary.

Mr. Hans Hof er states that the official figures of production of manganese ore in Austria in 1902 are 6,646 metric tons, valued at 97,607 crowns, or $19,814.

The following table shows the quantity of manganese ore mined yearly from 1876 to 1902, inclusive:

Production of manganese ore in Atistriay 1876-19018,

Year.

Quantity.

, Year.

Oenincn, 67,817 78,999 41,836 84,837 88,744 91,097 84,183 98,821 79,423 61,677 98,108 65,541 89,261

Ceninert, 80,068 52,798 46,000 54,000 101,120 a 92, 270 Metric toiu

6,012 6,182 5,411 8,80i 7,796 6,646

alucluding Bosnia.

There were also obtained in the Kingdom of Hungary 7,347 metric tons, and Bosnia and Herzegovina were credited with 6,760 tons in

The annexed tables show the production of manganese ore in Hungary from 1897 to 1902, inclusive, and in Bosnia and Herzegovina from 1892 to 1902, inclusive:

Production of manganese ore in Hungary, 1897-1

Year.

Quantity.

Year.

Quantity.

Metric tons. 3,976 8,065 5,073

Metric tOM, %U1

a Ungariflclies Statistiches Jalirbuch.

Manganese Obes.

ProdtuHan of manganese ore in Bosnia and Herzegovina 189X-190S.

Year.

Quantity.

Year.

Quantity.

Long Urns,

o6,286

Long tons. 6,536 7,818 6,147

aBosnlsches Bureau Montan Abtheilung. SWEDEN.

Sweden has been a constant producer of moderate quantities of maganese ore, the production in the year 1902, according to the official statistics, being 2,850 metric tons, equivalent to 2,805 long tons, valued at 54,959 kroners, or $14,729, which is $5.-25 per ton.

The production and valuation, where known, of the maganese ores produced in Sweden from 1880 to 1902, inclusive, are given in the following table:

Production of manganese ore in Swedeny 1888-1902,

Year.

Quantity.

Value.

Year.

Quantity.

Value.

Long Urns. 9,687 8,S09 10,829 8,936 7,708 6,949 8,906 8,068

Long Urns. 2,023 2,706 2,821 2,581 2,609 2,285 2,806

Russian Empire.

The Russian Empire is the principal contributor of manganese ores, over one-half of the year's production being credited to that country. Although the greater part of this ore still comes from the Caucasus district, there has in late years been a considerable falling off in this product, due it is claimed to the lessened demand for foreign export, as a result of imperfect mining and sorting of the manganese ores. A number of small operators aim to mine in the aggregate a large amount of ore, but by indifference on the part of some to the proper preparation the general average of the ore won is reduced. High freight rates to the Russian shipping ports also have caused the Caucasian ore to be displaced in some of the foreign markets by that obtained from Brazil.

A number of investigations and reports on the subject of bettering the manganese conditions in this district have been prepared14p4$#iC

MINERAL BESOnROES.

being a recommendation for the erection of blast furnaces at Poti and Batoum (near which the mineral is found) for the reduction of the ore to spiegeleisen and ferro-manganese. It was, however, demonstrated by the committee which investigated the subject that unless the Caucasus district received special advantages through export bounties and reduced transport rates Russian ferro-manganese could not successfully compete in foreign markets. The granting of these benefits to the Caucasian industry alone is opposed by the manganese producers of the Nicopal district, which, however, is a comparatively small producer of manganese ore. Requests for reduced transportation rates have been refused by the government, the opinion being that such a reduction would only benefit foreign buyers by causing a decline in the price of the mineral, this being stated to have been the result of the freight reduction made in 1899. It is stated that the stocks of manganese which have been accumulated at Tchiatour, Tchikour, Poti, and Batoum amount to about one year's shipments. In addition to the Caucasus district manganese ore is also mined in the southern portion of Russia, as well as in the Ural Mountains.

The following table gives the production and exportation of manganese ore in Russia from 1885 to 1899, inclusive, the statistics for the southern Russia and Ural districts being included; and the production for 1900 and 1901 is for the Caucasus alone.

Mr. W. R. HoUoway, consul-general of the United States at St. Petei-sburg, states that in 1900 the production of manganese ore was 884,200 tons, the mineral being obtained from 372 mines.

Statistics of manganese ores in Russia {in poods).

Production.

Exports.

Year.

Ural.

Southern Russia.

Caucasus.

Total.

Cauca8UB.

Total.

a One long ton equals 62 poods.

b Exports in Russia not included.

Vic

Manganese Ores.

Turkey.

Manganese ore exists in Macedonia and Asia Minor, but exact statistics are not obtainable. Mr. Hugh Whittall, oif Constantinople, states that the ministry of mines reports the quantity of manganese ore mined and exported in 1901 as 46,000 metric tons, and in 1902 as 50,000 tons.

Greece.

Greece mines manganese ore and also manganiferous iron ore, the quantity of the former iu 1900 being given as 8,050 metric tons, valued 4t $454.70; and in 1901 the production was stated to be 14,166 metric ton, valued at 2,610. INDIA.

The manganese industry in India is of comparatively recent origin, the first exportations of ore being reported in the year 1894, since which time there has been an almost constant growth, although in the year 1902 there was a slight falling off, the output in the year being but 157,780 long tons, as per the report of the under secretary of state for India. The greater portion of this ore is shipped to Great Britain, but a considerable quantity is also sent to the United States, the imports of the latter country in 1902 from India being given as 64,170 long tons, valued at $352,487.

Exports of manganese ore from British India by sea to other countrieSj 1894-190S.

Yeer.

Quantity.

Year.

Quantity.

18M

Long tons, 87,126

Iso, 670

a Production.

Japan.

Manganese ores are obtained in Japan, but the mines are not extensive, and the annual production is, comparatively speaking, small.

The following table, taken from the Financial and Economical Annual of Japan, gives in the first column the production of manganese ores in that country from 1886 to 1901, inclusive; in the second column are the exports of this mineral according to the annual returns of the Enipire of Japan (department of finance) from 1881 to 1902, inclusive, together with the value of the same from 1898 to 1902. As both sets of figures are claimed as official, no attempt at harmonizing is made.

Of the 4,489,392 kin of manganese ore exported during the year 1902, 2,063,606 went to the United States, 1,464,172 to Hongkong,

:nitized Dy VJiJiJy iC

a Kin taken at 1.81 pounds. O

MIIfEBAL RESOUBGES.

869,950 to Gennan} 89,235 to Great Britain, and 2,429 to other countries.

Production and export of manganeae ore Japan, 1881

-i9oe.

Year.

Production.

Exports.

Value Of exports.

Long torn.

Java.

Manganese ore is obtained in the regencies of Pengasih and Mangolaen, the latest reports showing that 1,388 tons were mined in 1899.

New Zealand.

A small amount of manganese ore is obtained from this island, the amount mined in 1901 being 208 long tons, valued at £614, or $2,988.

Australia. New South Wales.

The annual report of the New South Wales geological survey for 1902 states that no manganese ore was mined in that country in 1902, although the mineiul exists there.

Queensland.

Queensland contributes a small quantity of manganese ore, the quantity obtained in 1901 being reported as 218 long tons, valued at £795, or $3,869.

The following table gives the production and value of manganese ores obtained in Queensland from 1881 to 1884 and from 1889 to 1901, inclusive.

Ic

Manganese Ores. 161

Production and value ofmaffanese ores in Queenslandj 1881-1884 and 1889-1901.

Year.

Quantity.

Value.

Year.

Quantity.

Value.

Long tons.

VBBi

South Australia.

In the year 1901 the official reports show that 192 long tons of manganese ore were obtained in South Australia, which were valued at £230 or $1,119.

WORIiI>'8 PRODUCTION OF MANGANESE ORES.

It impossible to secure late contemporaneous data of the production of manganese ore in foreign countries, but in the table given below the latest reliable statistics which were obtainable have been incorporated, together with the year which the figures represent These tons are either long or metric, except in Canada, where the short ton is used.

Worlds 9 produdion of manganese ores.

Country.

North America:

United SUtes

Canadaa

Cnbaa

South America:

Brazil a

Chilea

Europe:

Austria

Bomia and Henegovloa

Hungary

France

Germany

Greece

Italy

Year.

Production.

lyms. 16,477 89,628

Country.

Europe— continued :

Portugal

Russia

Spain a

Sweden

Turkey a

Asia:

India

Japan

Javaa

Oceania:

Queensland

New Zealand...

South Australia

Year. Production.

.

a Exports.

M K 1902 11

Copper.

By Charles Kirghhoff.

GENSRAIi TRADE CONBITIONek

The copper mining industry of the United States suflPered during 1902 from the reaction which followed the unsuccessful attempt during 1901 to maintain the value of the metal at an artificial level. The collapse which came toward the close of 1901 left many producers conmiitted to sales covering a long period, at low prices, with the menace of heavy accumulations of metal constantly over the market. Yet production was heavier during 1902 than it had been in 1901, because some of the important mines were worked to full capacity and because some of the enlargements and improvements previously begun became eflfective during the year. Furthermore, a number of new mining enterprises first produced important quantities of metal. On the other hand, accidents and labor troubles cut down the output of some of the larger undertakings.

Unless unf orseen events cause widespread or prolonged stoppage of operations at the mines, the production of copper in the United States will be considerabty larger in 1903 than it has ever been. The Lake Superior district will yield considerably more copper; Arizona is expected to return a considerably larger product; Utah may reach a total of 35,000,000 pounds; and Wyoming, Nevada, Colorado, New Mexico, and the Southern States will report an increase.

The consumption of copper in the United States has been enormous in 1902, and it has been larger, too, in other leading industrial countries. It may be questioned, however, whether the rate of increase attained in 1902 will be maintained in 1903.

The following table shows the production of copper in the United States since its rise to the dignity of an industry. For the earlier years the best available sources have been drawn upon for the estimates given. Since 1882 the figures are those collected by this office.

Mii7Eral Besoubces.

Production of copper in the United SUUes, 1846-1902. [Long tons.]

Year.

Year.

Total production, United States.

Lake Superior.

Totol production,

Lake Superior.

Percentage of Lake Superior oftotal production.

84

Percentage of

Lake Superior of total

production.

Montana.

Percentage of Montana of total production.

Arizona.

Percentage of Arizona of total production.

Ooppeb.

Production of copper in the United Stales, 1846-1902 — Continued.

Year.

Total production. United States.

Lake Superior.

Percentage of

TAke Superior

of total

product.

Montana.

Percentage of

Montana of total

product.

Arizona.

Percent-

Arizona of total

product.

Previous volumed of Mineral Resources coDtain a detailed statement of the copper production of the United States, territorially, from 1883, when the statistics were first collected by this office, to 1893. Since then the production has been as follows:

Total copper production in the United Stales, 189S-1902, [Pounds.]

Source.

Arizona „

Montana

New Mexico

California

Utah

Colorado, including copper smeltersa

Nevada

MAhn

South Dakota

Maine and New Hampshire

Vermont

Tennessee and Southern States

Middle states

Lead desUTerlzers, etc.

Total domestic copper

From imported pyrites and ores and matte u..x

Total (including copper from imported pyrites)

a Copper smelters in Colorado, purchasing argentiferous copper ores and mattes in the open market, sources not known. The quantity of Montana matte which goes to one of these works has been deducted.

bWoT 1806 the quantity stated covers only that part of the incidental copper product the source of which could not be ascertained. LiiiV VM

o Estimated.

Total copper production in the United Staiee, 189S-1902 — Continued.

.Soarce.

Lake Superior.

Arisona

Montana

New Mexico. . .

California

Utah

Colorado, Including copper smelteraa

Wyoming

Nevada

Idaho

South Dakota

Washington

Maine and New Hampshire

Vermont

Tennessee and Southern States .

Middle States

Lead desilyerizers, etc. &

Total domestic copper. ,

From imported pyrites and ores and matte ,

Total (including copper from imported pydtes)

aCopper smelters in Colorado, purchasing argentiferous copper ores and mattes in the open mar- . ket, sources not known. The quantity of Montana matte which goes to one of these works has been deducted.

ft For 1896 the quantity stated covers only that part of the incidental -copper product the source of which could not be ascertained.

o Estimated.

Since July, 1892, Mr. John Stanton, of New York, has collected monthly, from sworn returns, the following figures showing the production of the leading mines of Lake Superior, Montana, and Arizona. The estimate of outside sources is drawn, particularly recently, from official returns of many of the principal outside mines, large and small:

American production of copper. [Long tons.]

Year.

Reporting mines.

Outside sources.

Total.

Second 6 months of 1892 , r , - , . r , , , -

Ic

Copper.

The monthly reports, in detail, for the years 1892, 1893, and 1894 are published in Mineral Resources for 1895; for the years 1895 and 1896 in Mineral Resources for 1896; and for 1897, 1898, and 1899 in Mineral Resources for 1899. For 1900, 1901, and 1902 the monthly production was as follows:

American production of coppery monthly, 1900, 1901, and 190X. [Long tons.]

Month.

Reporting mines.

Outside sourceB.

Total.

Reporting mines.

Outside sources.

Total.

Reporting mines.

Outside sources.

Total.

Jannaiy

Febroary

March

April

May

17,613 17,497 19,8S3 20,667 19,282 19,285 19,612 17,667 17,986 19,946 19,876 18,724

3,800 3,400 3,700 8,800 4,000 4,000 a2,100 2,100 2,100 2,800 2,300

Jnne

Jnly

Angnat

September...

October

November... December ...

Total..

a The decrease in "outside sources" is caused by the largest of them becoming " reporting mines."

Elarly in 1903 large producing interests withdrew from the association, declining to furnish statistics in the future, so that the monthly compilatious have ceased.

A considerable number of foreign mines, including those of the Peninsula, the Cape, Australasia, Germany, and Mexico, report monthly to a secretary in London since July, 1892. Since then the production of this group, which maintains friendly relations with the American Producers' Association, has been as follows:

Year.

Quantity.

Year.

Quantity.

Second half of 1892

1S95 . ..

Mineral Beb0Ubce8.

According to the careful compilations of Mr. John Stanton the exports of fine copper during recent years have been as follows:

Exports of fine copper from the United States. [Long toiu.]

Year.

Quantity.

Year.

Quantity.

The details of this movement are dealt with elsewhere in this report.

Lake Superior District.

In previous volumes of the Mineral Resources the production of the individual mines has been tabulated from 1884 to 1891, both inclusive. Since that time some of the producers have reported to this office only with the understanding that the returns be regarded as confidential. The production of the majority of the mines is, however, given accurately in the published annual reports to stockholders. From these the following table has been compiled:

Production of some of the leading Lake Superior copper mines, 1896-190fS,

Mine.

mn.

Tamarack

Quincy

Kearsarge

Tamarack, jr

Franklin

Atlantic

Central

Wolverine

Baltic

Champion

Trlmountain

Isle Royal

Mohawk

Maas

,

The annual report of the Calumet and Hecla Mining Company for the fiscal year ending April 30, 1903, shows a production of 38,316 long tons of refined copper, as compared with 39,982 tons for the pre-

Ic

Ooppeb.

ceding fiscal year. The balance sheet for the last four years compares as follows for the fiscal year ending April 30:

Balance $heet of the Calumet and Heda Company for fiscal years ending April SO, 1900,

Cash and copper $6,118,436

Motes and bills reoeiyable I 609,584

Insurance fond...'. I 606,869

Total I 7,284,879

Liabilitikb.

Drafts and bills payable .

Machinery contracts

Set aside

Total

Balance

S3, 950, 576 866,668 149,996

President Agassiz, in his annual report, states that the character of the new openings on the conglomerate belt tributary to the Red Jacket shaft has been unsatisfactory. The six additional heads of stamps in the extension of the Hecla mill are in commission, and the equipment is most satisfactory. The plan is to equip both the mills according to the new system, and it is expected that the remodeling will proceed at the rate of four stamps annually.

The report of the Quincy Mining Company shows that the production of the mine was 26,425,670 pounds of mineral, yielding 18,988,491 pounds of refined copper, for which there was realized the gross sum of $2,276,819.25. Since the running expenses at the mine were $1,477,813.16, the taxes in Michigan were $49,091.54, and the smelting, transportation, and other expenses were $185,887.31, there was left a mining profit of $563,027.24. Adding $18,091.27 realized from interest, and $13,005.62 from Hancock real estate account, and deducting $96,124.08, being construction cost less amount reserved from earnings of 1901, there is a net income for the year 1902 of $498,000.05. The Quincy mined 983,694 tons of rock, hoisted 984,594 tons, and treated in the stamp mills 953,019 tons, which yielded 21,504,860 pounds of mineral. The company is introducing extensively underground electric haulage, is substituting coarse crushing at the stamp mills, and is installing Chilean mills for treating the coarse sands from the roughing jigs.

The copper production of the Tamarack fell off from 18,000,852 pounds fine in 1901 to 15,961,528 pounds in 1902, which was largely due to the fact that the rock coming from the territory tributary to the new No. 5 shaft, which has a depth of 4,938 feet. wi

HTBfEBAL BE80UB0ES

averafse. There were mined in 1902 837,568 tons of rock, as compared with 773,783 tons in 1901, and there were hoisted 763,209 tons, as compared with 668,622 tons. The cost of mining per ton of rock was $1.81 and $1.97, respectively, and the cost of mining per ton of rock stamped was $2.30 and $2.44 in 1902 and 1901, the quantity stamped being 658,720 tons in 1902 and 626,905 tons in 1901. The cost of stamping per ton stamped was 23.299 centiS in 1902 and 24.953 cents in 1901. The costs compared as follows, per pound of refined copper:

Co9t per pound of refined copper ai Tamarack mine in 1901 and 1902,

Atmlifl

, cents. .

do

Smelting, freight, oommiasionB, etc

do

Total

Yield of fine copper per ton stamped

Yield of mineral

pounds..

The income of the company was $1,894,320.75 from 15,961,528 pounds of copper, sold at an average of 11.87 cents, and $47,586.51 from interest receipts. The running expenses at the mine were $1,518,044.60; the smelting charges, $128,098.92; transportation, $47,939.08; conunissions and copper charges, $27,690.05; miscellaneous expenses at Boston, $22,826.32— a total of $1,744,598.97, leaving a mining profit of $197,308.29, from which must be deducted $154,877.74 for construction expenses.

Delays in the receipt of a new compressor plant, ordered in 1901, which retarded production and a threatened cave-in in No. 5 Osceola shaft, made it impossible to attain the increased output for the Osceola mine. The yield in 1902 was, however, 13,416,396 pounds fine copper, 38 compared with 13,723,487 pounds in 1901. The results in 1902 were as follows as compared with 1901: Rock mined, 968,835 tons and 958,272 tons; rock hoisted, 908,264 tons and 892,172 tons; rock stamped, 836,400 tons and 793,207 tons; pounds of mineral obtained, 18,430,012 and 18,807,616; yield of mineral, 72.797 per cent and 72.934 per cent. The cost, compared as follows:

Co9i per pound of refined copper at Osceola mine in 1901 and 1902,

At mine

Constmction

Smelting, freight, selling, etc .

Total.

;igiTi7ftf1 hy VlHIV

The greater part of the rock is now being furnished by the Kearsarge shafts, while a part of the tonnage comes from the old Osceola mine. The Tamarack, jr., branch supplies little rock.

The total income of the Osceola in 1902 was $1,594,453.76, including the receipts from 13,416,396 pounds of copper sold at an average of 11.78 cents per pound. The expenses were $1,493,654.47, leaving a gross profit of $100,799. 29. The construction account was $85,326. 96. It is estimated that when the belated machinery is installed the Osceola will be capable of producing 25,000,000 pounds of copper annually.

The annual report of the Franklin Mining Company shows an increased output, there having been obtained in 1902 from stamping 315,687 tons of rock, 8,362,020 pounds of mineral, or 5,237,460 pounds of copper. In 1901 the production was 3,757,419 pounds. The total receipts for 1902 were $647,964, while the mining expenses were $521,432, and the smelting and transportation costs were $76,838. The cost of stamping was 28.81 cents per ton. The old Franklin mine continues to furnish nearly 10,000 tons pf rock per month, and the Franklin junior conglomerate, which is low in grade, supplies the greater part of the product.

The yield of the rock of the Atlantic mine during the year 1902 was the lowest on record, having been only 0.5547 per cent, and since the average realized was only 11.88 cents per pound, the mine showed a deficiency. The receipts for copper were $588,200. 73, and the expenses were $598,910.18, a deficit of $10,709.45. There was also expended on interest $5,059.79, for cost of exploration $13,175.90, and for improvements $20,441.26. During 1902 there were stamped 446,098 tons of rock, which yielded 6,847,270 pounds of mineral, and 4,949,366 pounds of fine copper. The costs were: 89.14 cents for mining, selecting, and breaking rock and all surface expenses; 5.97 cents for transportation to the mill; 25.03 cents for stamping and separating; 14.11 cents for freight, smelting, and marketing product — a total of mining expenses of $1.3425. During the early part of 1903 the Atlantic rock has shown considerable improvement.

Daring the fiscal year 1902-3 the Wolverine Mining Company hoisted 299,922 tons of rock and stamped 279,011 tons, yielding 11,330,370 pounds of mineral, which at 72.90 per cent gave 8,260,386 pounds of refined copper, sold' at an average of 12.48 cents per pound. The cost of producing the copper, exclusive of construction, was 6.645 cents per pound; inclusive of construction it was 7.105 cents. The total receipts were $1,033,259 and the total expenses were $548,922, leaving a mining profit of $484,337. Construction costs were light, being only $38,014, which left a net profit of $446,323. The new stamp mill on Traverse Bay went partly in commission in August, 1902, and commenced to do full duty from the 1st of September. It is capable of treating fully 1,000 tons per day, so that

Ic

the equipment is now equal to a yearly production of close to 10,000,000 pounds.

The Mass Mining Company produced, during 1902, 2,345,805 pounds of fine copper from 3,273,835 pounds of mineral, obtained from stamping 152,562 tons of rock out of 203,769 tons hoisted. The receipts from copper and from assessments aggregated $509,602, while the expenditures included $302,394 for development, mining, and mill expenses; $39,468 for buildings and equipment at the mine; $75,000 for buildings and machinery at the mill; and $38,581 for smelting, marketing copper, and other expenses.

The production of the Isle Royale Copper Company was 3,569,748 pounds fine in 1902, as compared with 2,171,955 pounds in 1901, the receipts being $425,125.23 from the copper, at an average of 11.91 cents per pound; $8,881.61 from 18,523 ounces of silver, and $66,768.64 from interest receipts and other income. The running expenses at the mine were $400,539.52; the smelting charges, $25,461.83; transportation, $6,403.63; commissions, $11,179.97, and miscellaneous expenses, $17,401.14— a total of $460,986.09, leaving a profit of $39,789.39. From this must be deducted $10,291.56 for construction and $8,657.88 for exploration. Two heads of stamps were operated during the first quarter of 1902, three heads to the end of July, and for the remainder of the year only one.

The Isle Royale and Portage lodes have proven to be bunchy.

The Champion Copper Company is a very important addition to the producing mines of Lake Superior. During 1902 the company had the use of a small head at the Atlantic mill, which crushed 66,257 tons, and also since August, 1902, a larger head at the Baltic mill. From the total of 120,485 tons of rock crushed by these the company obtained 5,575,440 pounds of mineral, or 4,165,784 pounds of ingot. This was sold at 11.823 cents per pound. The Champion Compan}'- completed in December, 1902, a four-stamp mill which is to have a crushing capacity of 2,000 tons of rock per day, which would be equivalent to a yearly production of 20,000,000 pounds of copper. The firet head went into commission during December; the second in February, 1903, and the two others later. During 1903 two additional stamps are to be put in.

The Champion Copper Company was organized in November, 1899, the St. Mary's Mineral Land Company undertaking to provide onehalf of the cost of development and equipment. It was organized with 100,000 shares, $10.25 per share being paid for the land, and $14.75 per share cash in assessments. The mine, however, proved to be larger than expected and the total cash expenditures with a four-head stamp mill completed, and with the mine sufficiently opened to deliver daily 2,000 tons of rock through four fully equipped shafts reached about $1,700,000 over and above the cost of the land.

' ' 11

Coppeb. 178

One-half of the capital stock of the Champion Copper Company is held by the Copper Range Consolidated Company, who control all but 27 shares of the 100,000 shares of the Baltic Mining Company and the Copper Range Railroad. The Baltic hoisted, during 1902, 802,805 tons* of rock, of which 275,175 tons were stamped, producing 8,903,096 pounds of mineral, or 6,285,819 pounds of copper, which sold at 11.872 cents per pound. The Baltic Company has a capacity of about 11,000,000 pounds of copper per annum when its mill is running on its own rock exclusively. During 1902 the running expenses at the mine were $475,289, and the smelting, freight, and marketing $88,224, leaving a mining profit of $182,762. The construction, taxes, and interest, however, aggregated $828,032. The extraordinary construction for the Baltic is now practically completed.

The Trimountain entered the ranks of lake copper producers in

1902 with a total output of 5,730,807 pounds of ingot. This will be largely increased during 1903. The stamp mill of the company, with its three stamps, will be in full commission, a part of the mill having been started in 1902. The Trimountain will also use two of the stamps of the Arcadian mill, so that it is likely, during the second half of 1903, to be producing at the rate of about 18,000,000 pounds per annum.

Owing to delays by the contractors of the mill, the first head of the Mohawk Mining Company did not go into commission until December, 1902, and the second head was not started until January, 1903. The third head is still under construction. During the first two months of

1903 there were stamped 40,473 tons of rock, which gave 993,064 pounds of fine copper, or an average yield of 24i pounds per ton. This indicates a yearly production, when the whole plant is in full operation, of about 9,000,000 pounds. The total receipts were $444,666. 22, including $31,384.67 by balance, $308,026 from assessments, $77,991.23 from sales of " mohawkite," and $26,425.91 from copper. The expenditures were $463,433.02, including $446,070.79 at the mine.

The Winona Copper Company has developed rather rapidly and is expected to produce some copper with a leased head of the Atlantic mill during 1903. The expenses at the mine during 1902 were $48,059 and other expenses were $7,003. The receipts from assessments were $90,744, and there was obtained from the sale of 101,188 pounds of copper the sum of $13,028.

The Michigan Copper Mining Company has continued development work on the Branch, Calico, and Minnesota veins, producing a small amount of copper from the last. An arrangement has been made by which rock will be crushed at the Mass mill. The receipts were $225,876.81, including $13,972.08 by balance and $190,471 from assessments, while the expenditures were $164,944.86, includmg $157,563.65 at the mine.

The Phoenix Consolidated Mining Company has

tions on the St. Clair and West veins, which justified the beginning of the erection of a one-head stamp mill. The receipts were $201,891.50, including $200,000 for assessments Nos. 1 and 2, while the expenses were $93,052.43 for underground work, $43,753.81 forsurface expenses, $16,106.55 for construction, $36,932.06 for railroad, and $39,564. 77 for the mill.

The Adventure Mining Company commenced stamping rock in its stamp mill in September, 1902, over six months later than was expected. The company sold in 1902 606,211 pounds of copper for $70,791, and received from assessments $200,000, from interest $6,741, and from sales of silver $1,181. The expenditures for machinery, supplies, labor, buildings, and .permanent improvements aggregated $703,723, and for organization $15,082. It is expected that the Adventure mine will supply and the two stamp mills will crush 1,000 tons of rock per day, yielding about 1 per cent of ingot copper.

A number of South Range mines and the Stanton group have decided to build a refining plant on the shore of Portage Lake, 3 miles west of Houghton. The smelter, which will be erected by the Michigan Smelting Company, will have five reverberating furnaces and one eupola.

Montana.

The collection of statistics of the production of copper for Montana involves certain difficulties, because some of the smelting works, not having converting plants, or not operating them, ship the mattes produced to other works. There is therefore a danger of duplication which is avoided by the system of securing a statement from those works which treat custom mattes, giving the fine copper contents thereof. It is only natural, however, that the product of the initial plants and of the secondary works do not exactly agree, because the latter may fail to convert all the matte received or may draw on accumulated stocks of matte. In the former case the result may be too low; in the latter it may be excessive. In the long run, of course, the balance must be established, but there may be differences in individual years. It might be possible to arrive at exact figures for each individual year by taking into account the stocks at shipping and at receiving works, but it is believed that this introduces unnecessary complications.

The United Copper Company lost its concentrator by fire in August, 1902, and although a plant at Basin, Mont., was leased at once, the product was reduced for a time, in spite of the fact that the smelter was operated partially on first-class ore. It is expected that the output will be at the rate of 40,000,000 pounds per annum when the new concentrating plant is in commission. The production for the calendar year 1902 is given at 30,374,696 pounds of copper, 919,590 ounces of

Copper. 176

silver, and 11,269 dances of gold, as compared with 30,318,328 pounds of copper, 1,083,474 ounces of silver, and 4,631 ounces of gold in 1901. The properties developed in the Butte district by Franklin Farrel and his associates have been acquired by the Pittsburg and Montana Copper Mining Company, who are building a large smelting plant at Butte, which, it is expected, will begin production in 1903.

Arizona.

The production of Arizona was less in 1902 than it was in 1901, chiefly because some of the larger producers fell off considerably. The greater part of the decline was due to the restriction of output brought about at the United Verde mine at Jerome through a fire and through labor troubles. The Old Dominion and the Copper Queen, too, showed a falling off. On the other hand, the Arizona Copper Company increased over 10,000,000 pounds, the Detroit made a larger product, and there appeared as new contributors to the total the Shannon, the Calumet and Arizona, and the Val Verde.

The prospects are that the year 1903 will again witness a considerable increase, with at least a partial recovery by the United Verde, a full year's production on the part of the new mines of 1902, and with some additions by reason of the completion of plants still under construction.

There has been a great deal of activity in the Bisbee district in the opening up and development of new mines by strong interests from Lake Superior, Pittsburg, and New York. One of these companies, the Calumet and Arizona, reached the producing stage in 1902. Four others, controlled by substantially the same parties, are being vigorously pushed forward. The great mine of the district, the Copper Queen, did not, in 1902, reach the production of 1901. The work of building the new smelting plant at Douglas has been vigorously prosecuted during the year and will be completed during 1903.

A very important producer entered the ranks in 1902, the Qilumet and Arizona Mining Company having started its smelting plant at Douglas on November 15, 1902. The production for the year was 2,066,647 pounds from one furnace. A second furnace and stand of converters will be started in 1903 and a third furnace will be added as a reserve. It is expected that when the plant is in full opei*ation it will produce about 36,000,000 pounds of copper annually. The mines are at Bisbee, the ore going to Douglas, and the converter bars are refined by the Nichols Chemical Company, of New York, the copper being sold by Phelps, Dodge & Co. It is estimated that the mine is developed to furnish ore for a period of at least six years ahead.

In the Clifton district the Arizona Copper Company, limited, added over 10,000,000 pounds to its production in 1902 over 1901. During

Be

the half year ending September 30, 1902, the concentmting mills handled 195,849 tons of crude ore, which yielded 28,806 tons of concentrates. From the leaching of 36,721 tons of tailings 1,532,061 pounds of copper was obtained. These concentrates and richer ores, aggregating 54,486 tons and 1,653,209 pounds of copper derived from the leaching plant, were put through the smelting works and yielded 15,049,065 pounds of ingot copper for the six months. The average yield of all the copper ores treated was 3.37 per cent, and the yield from tiie concentrated ores was 2.76 per cent during the half year under consideration, as compared with 2.95 per cent during the preceding half year. During the year ending September 30, 1902, the accounts show net profits of £183,225 from the mines, and £113,662 from the railroad. The payments were £13,888 for mine administration, £8,306 for railroad administration, £2,506 for the Edinburgh office, and £25,718 for interest. There were placed to reserve £40,000, and there were paid on preference shares £24,531, which left a balance of £181,938. Out of this, dividends of 9s. 6d. per share were paid, absorbing £180,488. The general manager reports that the improvements on the railroad and on the metallurgical works are practically completed, so that the Arizona Copper Company is now in a position to produce annually a little over 30,000,000 pounds of refined copper.

The Shannon Copper Company, which was organized in 1899 to acquire properties then owned by C. M. Shannon, at Clifton, Arizona, began producing in 1902. The capital stock is 13,000,000 in 300,000 shares, of which 185,296 shares have been listed on the Boston Stock Exchange. There ar also $600,000 of 7 per cent bonds on the property, 20 per cent of the net earnings per annum being provided as a sinking fund. The mining property of the company consists of 43 claims over 600 acres in area, one block of which is 4,300 feet in width, and is located at Metcalf, 7 miles south of Clifton, the terminus of the Arizona and New Mexico Railroad. It is adiacent to the producing properties of the Arizona Copper Company and near the Detroit Copper Company's mines. The development consists of about 5 miles of tunnels, cross-cuts, drifts, winzes, and upraises, the various workings being connected with an incline tram, which delivers ore by gravity to the railroad at Metcalf, where it is transported 7 miles to the smelter at Clifton. The reduction plant consists of two 250-ton water-jacketed blast furnaces, one of which was in operation during the latter part of 1902, and made over 2,000,000 pounds of fine copper. There is a 500-ton concentrator, built in two sections of 250 tons each, the first section of which was completed early in 1903. The second furnace was blown in in April, 1903, the capacity of the whole plant being about 1,000,000 pounds of copper per month.

Copper. 177

In this district, Edward H. Strobel, as lessee of the New England Copper Company, of Arizona, is developing a property on a considerable scale. It has not yet, however, been decided to build a smelting plant.

The Producers' Mining and Smelting Company, of Chicago, whose mines are in southern Arizona, is erecting a smelter and is expected to become a producer of copper in September of 1903.

The report of the Old Dominion Copper Mining and Smelting Company shows a decline in the production from 10,004,787 pounds in 1901 to 7,992,550 pounds in 1902. During 1902 there were mined and smelted 68,840 tons of ore, which yielded 5.8 per cent. The product was 7,705,327 pounds of pig copper, averaging 95.95 per cent fine, and 850,078 pounds of matte at 70.52 per cent. The sales of product, including a considerable part of a large stock carried over, yielded $883,378, and the outlays for mining were $392,507; for smelting, $293,670; for handling, selling, and general expense, $130,559, and for construction and development, $47,175. The company is carrying out a comprehensive scheme of improvement, including the sinking of a new shaft and the construction of a new smelter and concentrating mill, so that a considerably larger product at a lower cost will be made. The aggregate freight rates on incoming and outgoing freight amounted to 3i cents per pound of copper produced. Under contracts made this will be reduced by about li cents per pound of copper. It is estimated that when the improvements have been completed the production will be at the rate of 20,000,000 pounds per annum, and that the cost will be reduced to about 8 cents per pound.

A small quantity of matte, containing about 50 per cent of copper and 30 ounces of silver, was produced by the Pride of the West Mining and Milling Company, but the property was closed down in the winter of 1902.

The Black Warrior Copper Company made a small quantity of copper, but it is expected that an output of some magnitude will be maintained during 1903.

The Imperial Copper Company, formerly the Silver Bell Copper Company, of Red Rock, Pinal County, is to start a new smelting plant to produce upward of 2,500,000 pounds fine copper per month. It is not expected, however, that the works will be in operation until the middle of 1904.

During the course of 1903 a new producer is to appear in the George A. Treadwell Mining Company, which controls property in the Verde and Big Bug districts, and proposes to use smelting furnaces in which oil is to be employed as a fuel.

The Valverde Copper Company, at Valverde, shipped a moderate amount of copper in the form of matte, no converting being done at

M R 1902 12 . ... ,.,,r>

Ic

the plant. It is considered probable that the production of 1902 will be doubled in 1903.

Among the mines equipped with smelting works which did not turn out any copper during 1902 were the Rosemont, the Helvetia, and the Azurite.

California.

There was quite a sharp decline in 1902 in the output of copper in California, chiefly because the mines of Shasta County did not make their normal quantity. Mine operations by the principal company, the Mountain Copper Company, were interfered with by a fire, and later in the year a strike of the workmen caused a cessation of operations by both the Mountain and the Bully Hill companies, the yield of the former being reduced altogether about 10,000,000 pounds. The Mountain Copper Company produced 139,903 tons of ore, the Keswick smelter handling 149,787 tons and producing 7,854 tons of Bessemer bars. The refining plant in New Jersey made 8,739 tons of ingots. The profit on sales of copper was £117,846, and the rentals and miscellaneous profits amounted to £8,462.

Utah.

Utah is forging to the front as one of the most important copper producing States, and it is notably in the Bingham camp that development has been most rapid. The largest producers are the Highland Boy Mining Company (controlled by the Utah Consolidated Company), the Bingham Mining Company, and the United States Mining Company, the last having begun production in 1902. In the spring of 1903, these were producing at the rate of 1,200,000 pounds, 700,000 pounds, and 800,000 pounds, respectively, or at the rate of over 36,000,000 pounds per annum. In the same district the Tintic Mining and Development Company is opening the Yampa mine and will build smelting furnaces during the present year. The Boston Consolidated Mining Company has also developed large bodies of ore at depth, but has not yet decided upon the erection of a smelting plant. The Columbia Copper Company, which has been successful with a small concentrating plant, will build a larger mill. The concentrates are sold to the smelters in the district.

The Bingham C-ompany has control of the Binghani and Tintic mines and of the Dalton & Lark and Brooklyn mines, into which the Dalton & Lark tunnel, 7,000 feet long, is being driven in order to unwater them. The smelter possesses four furnaces. The company is also working under an option the Eagle and Blue Bell property at Tintic.

The United States Mining Company reached the stage of active production late in 1902. The company owns the Coiimiemd mines at

igi ize y g

Coppeb. 179

Bingham, and draws its siliceous ores from the Centennial Eureka mine, and extensive development has been undertaken in the Old TelegrvLph. and Jordan mines on the Old Jordan vein. The company has completed a well-equipped smelting plant with five furnaces, which it is expected will reach a production of 1,000,000 pounds per month. Since January 1, 1900, there has been expended $1,706,164, of which $892,987 was for the construction and operation of the smelter and its auxiliary works and $813,177 in the purchase of new properties, in the development and equipment of the mines, and in the payment of interest and general expenses. The total amount received at the date of the report of the voting trustees from the sale of bullion was $382,500, the amount still unpaid upon bullion already shipped being estimated at $69,319.

The Highland Boy Company, controlled by the Utah Consolidated Company, treated in 1902, 167,713 tons of ore, which yielded 11,840,431 pounds of copper, 160,915 ounces of silver, and 19,078 ounces of gold, as compared with a tonnage of 167,823 tons in 1901, yielding, respectively, 9,043,967 pounds of copper, 176,331 ounces of silver, and 13,983 ounces of gold. Having carried over from 1901, 2,163,683 pounds of copper and 62,909 ounces of silver, the company sold 14,004,114 pounds of copper, 223,824 oimces of silver, and 19,083 ounces of gold, the average prices realized being 11.91 cents per pound for copper and 52.62 cents per ounce for silver. The total earnings were $1,992,049, and the expenses were $1,142,049, the net earnings being $850,000. The costs included $242,621 for mining, $497,346 for smelting, $239,968 for freight and refining, $83,891 for ore and matte purchases, $42,249 for development, and $35,979 for general and miscellaneous expenses. After paying $634,000 in dividends and writing off $68,333, the company added $267,667 to a previous balance of $649,469, making a total surplus of $907,136.

Outside of the Bingham camp, several important new enterprises are being undertaken. Among these is the Newhouse mines and smelters, which company is to take over the Cactus properties of Mr. Samuel Newhouse, 7 miles from Frisco, in southern Utah. A main shaft is being driven and a tunnel 5,800 feet long has been begun. It is proposed to erect a concentrating plant capable of handling 1,500 tons of ore per day, and to build a large smelting works. It is esti- " mated that the production of copper will he about 1,000,000 pounds per month.

The Majestic Copper Mining and Smelting Company, of which Mr. W. A. Farish is general manager, is opening a large property in Beaver County, and is building a smelting works which is expected to be in operation during 1903.

The Royal Crold and Copper Company has been organized to develop

Wyoming.

The production of copper in 1902 was lower than in previous years because the principal mines were being developed prior to the enlargement of local works and a much smaller quantity of ore was shipped to distant smelters. The smelting operations at Encampment ceased on February 16, 1902, in order that enlargement of the works might be begun. The North American Copper Company has purchased the Ferris-Haggerty mines and the Boston- Wyoming Smelter, Power and Light Company. In the New Rambler district the Rambler Mining and Smelting Company at Holmes has operated a melting furnace intermittently.

The Tully Copper Mining Company proposes to install a plant in

New Mexico.

The Santa Fe Gold and Copper Mining Company confined work to developing the principal ore body and to prospecting, no smelting operations being carried on. The Silver City works were idle also, so that the ores of the territory were chiefly treated at the El Paso plant of the American Smelting and Refining Company.

Tennessee.

During 1902 the work of modernizing the plant and equipment of the Tennessee Copper Company was brought to a close, and the company is now in a position to produce from 11,000,000 to 12,000,000 pounds of copper per annum. During 1902 there were mined from the Loudon mine, which produces the higher grade of ore, 81,741 tons of sulphide ore and 4,099 tons of siliceous ore. The equipment on the Burra Burra mine was completed, and 105,620 tons of sulphide ore were raised. The Polk County mine yielded 59,109 tons. Extensions of the roast yards were made and are being continued. For the first five months only one blast furnace was in operation, smelting 69,674i tons of ore. Then the second furnace was put into commission, and for the last seven months the two furnaces smelted 151,520 tons, making a total of 221,194 tons. In December, however, the two furnaces handled 26,804 tons of ore. Contracts have been let for a third furnace in order to prevent any delays through accidents. During 1902 a 25-ton refining furnace was built, so that during the latter half of the year a' considerable part of the product was shipped as refined copper. The production was 8,103,534 pounds of fine copper, of which 4,349,487 pounds of pig copper were sold at an average price of 11.35 cents, or, deducting freight and charges, 10.71 cents per pound net. The fine copper from pig copper refined at the Raritan works, 866,079 pounds, was sold at 11.76 cents, netting 10.63 cents, and the copper refined at the Tennessee works, 1,401,293 pounds, sold at 11,73 cents, netting

Coppeb. 181

The total receipts from copper sales were $760,450, and from rentals, etc,, $2,647. The net profit, after deducting working expenses and $71,903 for interest and depreciation, was $231,109.- There were also received $31,050 for iron-ore roj-alty, $17,358 for merchandise department, and $32,198 on toll account. The amount charged to construction was $47,505. During the year there were issued $5,000,000 5-percent bonds in order to pay floating debt and to furnish working capital.

Mr. J. Parke Channing, the consulting engineer, reports that the operating expenses were as follows per ton of ore:

Mining and development $0. S411

Crashing and sorting , 0827

Roasting 3399

Bailroad 1547

Engineering and laboratory 0268

General expenses 0866

Blastfurnace 1.0469

Converting 2172

Refining 1007

Total cost per ton 2.8966

Mr. Channing expresses the belief that by a gradual extension of the roasting and smelting facilities the company will be enabled to produce from 18,000,000 to 20,000,000 pounds of copper per annum, and that this large production will reduce the cost of fine copper at least 0..5 cent per pound.

The Ducktown Sulphur and Copper Company, the second producers in Tennessee, showed an increase in output in 1902 of nearly 500,000 pounds over 1901.

Alaska.

Only small quantities of copper ore have been shipped to Puget Sound smelters, but it is known that large deposits of copper ore exist whose development is being taken seriously in hand.

Oregon.

At Sumpter, Oregon, a plant is being constructed by the Oregon Smelting and Refining Company. It is a copper matte plant, having a capacity of 126 to 150 tons of ore per day. The copper is to be used chiefly as a carrier for the precious metals in the ore.

South Dakota.

The Horseshoe Mining Company, of Rapid City, which controls the National Smelting Company, Incorporated, smelts (in two matte furnaces, using hot blast heated by the escaping gases) ores which come from the Potsdam formation in the Ruby and Bald Mountain districts, Lawrence County. These highly siliceous silver-gold ores are mixed

Mikebal Besoubces.

with Colorado and Montana sulphide ores, the product being a matte which averages 40 ounces of silver, 15 ounces of gold, and 8 per cent of copper.

Imports.

In former volumes of Mineral Resources tables have been published showing the imports from 1867 to 1894, inclusive, of fine copper con-- tained in ores. From 1895 to 1902 only the gross weight of the ore and of the regulus (matte) and of black copper are given. These are presented in the following table:

Copper ore and regrdua and black copper imported and entered /or consumption in the

United SUUes, 1896-190fS.

Ore.

Regulus and black copper.

Total value.

Quantity.

Value.

Quantity.

Value.

Pounds.

Pounds.

The sources of the imports of copper in the form of pigs, bars, old material, etc., are shown in the following table for tlie calendar jears 1900, 1901, and 1902:

Imparts of copper pigs, bars, ingotSy plates, old and other unmanufactured in the calendar

years 1900, 1901, and 190S.

Country.

France

Germany

United Kingdom

Dominion of Canada:

Quebec and Ontario.

British Columbia

West Indlee:

Cuba

British

Santo Domingo

Mexico .'

Japan

British Australasia

All other countries

Total.

Quantity. Value.

Pounds.

Quantity.

Pounds. 1,022,178 3,117,951 43,838,699

Value.

S159,844

Quantity.

Pounds. 848,523 1,245,854 27,762,888

-rgitized by 5Utl-V-B6-

Copper.

A considerable part of the imports from the United Kingdom is blister copper originating in other countries, notably the Australian colonies, which comes to this country for refining. The Mexican copper is almost entirely in the form of converter bars, some American matte going to Mexican works for conversion to be returned to this country for refining.

Probably the imports of foreign mattes will soon cease, since Bessemer plants are being quite generally installed at the smelting works.

Copper imparled and entered for consumption in the United States 1890-190!.

Year ending December 81—

Bars, ingots, and pigs.

Old, fit only for remanufacture.

Quantity.

Value. ' Quantity.

S859

Pounds,

Value.

Ola, taken from bottoms of American ships.abroad.

Quantity.

Pound*.

Value.

Year ending December 31—

Plates rolled, sheets, pipes, etc.

Quantity.

Pounds.

Sheathing metal, in part copper.

Quantity. Value,

Pounds.

Manufactures not otherwise specified.

Value.

Total value.

Minebal B£Soubg£S.

The imports of ore and of matte are shown in the following* table for the calendar years 1900, 1901, and 1902.

Imports of copper ore and maUe, by countries, in the calendar years 1900, 1901, and 1902.

Country.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Germanv

Dmgiona.

Long Urns.

Dominion of Canada:

Quebec and Ontario

British Columbia

Newfoundland and Labrador

Mexico

Chile

All other countries

Total

It is exceedingly difficult to arrive at the copper contents of this material, since it carries from very low-grade ores to high-grade mattes. The greater part of the Canadian tonnage is ore, while the greater part of the Mexican material is matte.

Exports.

The exports of copper in different forms have been printed in former volumes of Mineral Resources for the period beginning June 30, 1863. Below the figures are submitted from 1890:

Copper and copper ore of domestic production exported from the United States, 1890-1902. [. are long hundredweights of 112 pounds.]

Year ending December 31-

Ore and matte.

Pigs, bars, sheets, and old.

Value of manufactured product.

Quantity.

Value.

Quantity.

Value.

Total value.

Pounds.

Copper.

The destination of the exports of copper for a series of years is shown by the following table, the data having been furnished by the Bureau of Statistics:

Exports of copper bars and ingots for 1897, 1898, 1899, 1900, 1901, and 190fS, and countries to which exported.

Goantry.

United Kingdom.

Belgium

Fnmce

Germany

Netherlandii

Italy

Austria

Mexico

British North America .

West Indies

Other countries

Total.

Country.

United Kingdom .

Belgium

Fiance

Germany

Netherlands

Italy

Austria

Mexico

British North America .

West Indies

Other countries

Total.

5,

1,

1,

8,

a Other Europe, including Austria and Russia.

The recovery of the export trade, which followed the collapse of the effort to hold prices up to a high level, is well shown in these figures. Practically all of the metal which goes to the Netherlands is in transit to Germany, and a considerable part of the copper shipped to England finds lodgment ultimately in other countries.

Besides the exports of copper shown in the above table, largely of domestic origin, some foreign copper is reexported directly. The Bureau of Statistics reports that in 1899 2,560,149 pounds, in 1900 1,281,782 pounds, in 1901 12,888,083 pounds, and in 1902 11,629,877 pounds of foreign copper were exported.

The following table shows the ports from which copper was exported:

Domestic exports of ingots, bars, and old copper in 1897 1898, 1899, 1900, 1901, and

District.

Baltimore, Md

Boston and Charlestown Ma5is

Newark, N.J

Newport News, Va

Norfolk, Va

New York, N.Y

Philadelphia. Pa ,

New Orleans, La

Galveston, Tex

Detroit, Mich

Huron, Mich

Burlington, Vt

All others

Total

District.

Baltimore, Md

Boston and Charlestown, Mass .

Newport News, Va

Norfolk, Va

New York, N.Y

Philadelphia, Pa

New Orleans, La

Detroit, Mich

Huron, Mich

Burlington, Vt

All others

Total.

The exports of copper from New Orleans in 1897, 1898, and 1899 were Mexican bars, which were shipped through that port, and were merely in transit.

The available supply for the domestic marketii may be computed as follows:

Copper.

Supply of copper /or lh£ United States 189S-1909,

Source.

Production of domestic copper.

Imports:

Fine copper in ore, entered for oonamnptlon

a5,800,000 7,979,822

Fine copper in regulnn, entered for consumption

Bara and ingots

Old copper

Total

Exports:

Ingots and ban

Fine copper contents of matte

Total

Available supply

Source.

Production of domestic copper.

Imports:

Fine copper In ore, entered for consumption

a 19, 760, 000 54,166,467

Fine copper in rrulus, en ' tered for consumption

Bars, ingots, and old copper.

Total

Exports:

Ingots and bars- Domestic

a5, 420, 000

a3, 500, 000

a 9, 000, 000

Foreign

Fine copper contents of matte

Total

Available supply

o Estimated. Domestic.

o Foreign.

d Deducting estimated contents of foreign jnatte exported.

All the large producer of copper, with the exception of two leading producers of the Lake district, have submitted a statement of the stock of metal, the blanks calling for stock at works, in transit, or in agents' hands, exclusive of material in course of conversion at the works, but inclusive of converted bars, matte, etc., which must be shipped for further treatment. The stocks do not include the amounts on hand at the refining works nor those carried by merchants, bankers, or speculators, nor does the statement deal with the copper in stock at works of consumers. o

Mineral Be8Oub0Eb.

In the aggregate the reporting mines, which represent a total production in 1902 of 456,779,663 pounds of copper out of a total of 659,- 508,644 pounds, had a stock of 155,665,662 pounds of copper on January 1, 1903, as compared with 282,014,297 pounds on January 1, 1902, a decline of over 126,000,000 pounds during 1902.

Consumption.

The data submitted, subject as they are in a number of respects to the limitations which the estimates impose, still justify some conclusions as to the consumption of copper in the United States, the estimate for the years 1900, 1901, and 1902 being as follows:

EsHTnated consumption of copper in the United States in 1900, 1901 , and 190,

Available bupply

Deduct increase In producers' stocks. Add decrease in producers' stocks . . . ,

Estimated consumption.

Prices.

The following table summarizes the highest and lowest prices obtained for Lake copper yearly in the New York markets from 1860 to 1895:

Highest and lowest prices of Lake Superior ingot copper, liy years, 1860-1896,

Year.

Highest.

Lowest.

20j

m

28J

Year.

Highest.

18t

&quot;A

Jigitized ay

Lowest

n

Copper.

The foJlowing table shows the highest and lowest prices monthly during the last seven years:

Highest and lowest prices of Lake Superior ingot copper

f months, 1896-1902.

January.

February.

March.

April.

May.

June.

Year.

.5P

n

lOi 11* 11* 16* 16J 12*

n 11*

;r

lOA

m

Hi 11*

Ju

n

August.

September.

October.

November.

December.

Year.

lOJ 18* 16* 16*

S 10*

%

m 11* ii

The following table shows the fluctuations in prices in the English market:

Average values of copper in England, 1890-1909.

Year.

Chile bars or G. O. B.

Per long ton.

Ore, 25 per cent.

Per unit.

d.

5

Year.

Chile bars or G. O. B.

Per long ton.

Ore, 25 per cent.

PeruniL 8. d.

MINEBilL KE80UBCES.

From the annual reports of some of the Lake Superior companies it is possible to obtain a close estimate of the average selling price of copper during 1902. The following table gives the results:

Average selling price of Lake copper during 190g.

Company.

Quantity sold.

Average

price per

pound.

Tamarack..

Osceola

Atlantic

IsleRoyale. Baltic

Average.

Cents.

In detail the fluctuations, monthly, of good merchant copper in the English market were as follows from 1896 to 1902, inclusive.

Fluctuations in good merchant copper in England, ISOe-lSOS. [Per long ton.]

Month.

£ s.

d.

s.

d.

£

d.

£

d.

£

d.

£

8i

Hi

Oi

Is

n

U

Oi

lOi

lOi

Oi

Hi

January.. February .

March

April

May :. June

July

August . . . September October... November , December .

The Copper Market In 1902.

The year 1902 was ushered in with the greatly unsettled condition precipitated by the collapse of the markets in the last months of 1901, following the prolonged attempt to hold values of copper at an artificial level. The nominal basis for Lake copper was 12 to 12 cents early in January, with electrolytic at llf cents; but before the middle of the month the metal declined to llj cents for Lake, and later to lOj cents, and electrolytic to lOf cents. This brought out enormous buying, both by the home trade and for export, and the market rapidly strengthened. Powerful interests came to its support, and purchases were made up to 13 cents for Lake copper. This continued into February,

Ivc

Ooppeb.

but large offerings brought about a reaction to 12 cents, with sales of Lake as high as 12-cents. Within these limits the market fluctuated during March, the demand being light. In April prices sagged slightly, and it was not until May that prices responded to a better inquiry, Lake selling as high as 121 cents. June, July, and August were dull, Lake copper receding to 11| cents and electrolytic copper to llf cents. There was a brief spurt in September, during which prices recovered to 12 cents. But the market soon receded, until during the latter part of October, when large sales caused a hopeful tone to develop. The withdrawal of buyers, however, led to a weakening until prices were back to Hi cents for Lake and llj cents for electrolytic copper in November. The settlement of the anthracite coal strike, a better inquiry from Europe, and some fair sales for 1903 delivery brought values back, until the year closed with Lake copper at 111 to 12 cents and electrolytic copper at llf to llf cents.

The English Copper Trade.

Since England is one of the leading copper markets of the world, the following tables, showing the import and export movement, are of great interest:

BrUuh imports and exporU of copper, [Long tons.]

Imports of—

Total imports.

Exports.

Apparent English consumption.

Year.

Ban, cakes, and ingots.

Copper in ores and furnace products.

a49,461 44,213

91,788 94,403 99,356 88,003 68,861 77,806 75,398 76,127 71,726 82,780 8-1, 6W 82,814 70,179

c48,d67 66,817 d50,330 rf50,692 rf76,036 rf69,787 d69,2M rf60,877 rf81,896 rf70,178 rfSO 223

1S98

a Including 8,601 tons of Chile ban transferred from France to England.

Mndudlng 8686 tonsf Chile bars transferred from France to England.

0 Add 4,001 tons for comparison with former years, the difference arising from the new method of making up stock.

({Deducting copper content of sulphate exported (13,078 tons in 1898, 10,045 tons in 1899, 10,728 tons in 1900, 9,004 tens in 1901, and 10,822 tons in 1902) .

Mineral B£80Ub0£8.

The following figures for the years from 1896 to 1902, both inclusive, taken from the board of trade returns, supplemented by Messi-s. James Lewis & Son, of Liverpool, show in detail the form in which the copper is brought into Great Britain:

Imports of oopper into Great BrUain 1896-190B. [Lous tons.]

Character.

im.

Pure in DTrltes

Pure In precipitate

Pure In ore

Pure in matte

Bars cakes, etc

Total

Messrs. James Lewis & Son, of Liverpool, estimate as follows the imports of copper product into Liverpool, Swansea, and London, which does not, however, include the imports of precipitate into certain outports like Newcastle and Cardiff, estimated in recent years at about 6,000 tons:

Imports of copper product into Liverpool Swansea, and London, 1896-1903.

Country.

1S99.

United States

Spain and Portugal

Australasia

Cape of Good Hope

Ven ezuela

Japan

Italy

Norway

Canada

Newfoundland

Mexico

Peru

Plata River

other countries

Total tons line.

16,847 17,529 j 17.085 ! 7,076 '

16,354 16,339 20,fi8G 8,281

2,044 &#x27; 5,679 I 63 &#x27; 8,232 I

a5

Copper.

The quantities of copper in different forms imported into Great Britain and France from the United States are given in the following table:

Imports of copi>€r into England and France from the United States, 1889-190.

Country.

England: Ore.

Matte

Bars and ingoto

Total

France

United Stated Into Kngland

Country.

England:

Matte

Bars and IngotH.

Total. France

United States into England and France

In recent years consideiiAle quantities of bars and matte reach Europe from Mexico and Canada in transit from this country. Therefore it is doubtful whether the quantities stated are really the product of the copper mines of the United States.

The exports of copper from (Jreat Britain, estimating the fine contents of allo38, have been as follows:

Jibrports of cojtper from Great Britain, 1896-190-J, [Long tons.]

Character.

English, wrought and unwrousrht. and sheets

Yellow metol. at 60 per cent. . . Bnuv). at 70 Pfti* cent

Sulphate of copper

Total

Fine foreign

Total

K R 1902 13

Mineral Besoubceb.

The German Copper Trade.

The consumption of copper in Germany is greater than in any other country, the United States excepted. It declined very suddenly as the result of the industrial crisis in 1901, but recovered somewhat in 1902. Aron Hirsch & Sohn, of Halberstadt, as the result of careful investigations have reached the results shown in the following table:

Copper consumption of Oermany, 1S95-190£. [Metric tons.]

Imports

Excess of Imports

Production

Total

Copper content of Imported a copper ore and iron pyrites.

Home consumption

a Deducted to avoid duplication, being included in both Imports and production.

The authority quoted above estimates the distribution of the consumption, by manufacturers' requirements, as follows:

Consumption, by manufacturers' requirements, 1900, 1901, and 190S. [Metric tons.]

Use specified.

Electrical works

Brass rolling mills and wire works

Chemical works, inclusive of blue vitriol

Shipyards, railroads, for castings, alloys, German silver, etc .

Total

87,000' 18,000 82,000 2,000 19,000

The German Government has taken increasing pains in recent years to trace the source of the ingot copper imported into Germany. In consequence it is possible to arrive at a close estimate of how much copper shipped from the United States has gone into Germany, even though passing at first in transit through other countries. The figures reflect the movement better, therefore, than bur export statistics, which stop at the first destination. Thus most of the copper exported to Holland ultimately reaches Germany. The copper imports in other forms are added.

Ooppeb.

Sowrce of Qerjnan imports of ingot copper. [Metric tons.]

C!ountry.

Belgium

France

Norway

Auatria-Himgary

Sweden

Switxerlond

Spain

England

Netherlands

United States

Japan .-

Chile

Australasia

Other countries

S3

Total ingot

Coins and scrap

Copper ores

Pyrites

Total.

Of course the quantities of ingot copper credited to England and to some minor countries are drawn from copper-producing countries. It is impossible to state to what extent the United States participates in them. In the case of copper credited to England it is probable that a considerable quantity originated in the mines of this country.

The production of copper in Germany for a series of years is shown in the table below. It should be noted that outside of the Mansfeld company, which is separately given, the production of copper from German mines is small, the mines at Stadtberge contributing 780 tons of it. By far the greater part of the difference between the total figures and those representing Mansfeld is product obtained at German metallurgical works from the treatment of foreign ores and furnace materials. The figures are interesting as showing the extent of the pyrites-extracting and copper-smelting industry of Germany.

Year.

18M.

Total production.

Production

of Mansfeld.

Year.

Total pro- Production duction. of Mansfeld.

Minebal Besouboes.

The export statistics of Germany are particularly interesting because that country has become an important factor in the world's markets. It will be observed from the following table that since 1894 the first decline has occurred in 1902:

Exports of copper manufactures from Germany, 1894-1902. [Metric tons.]

Product.

Rods and sheets

Wire

Cables

Miscellaneous

Coarse fonrinfifM

Cartridges, caps, etc

Perforated sheets and net- Umr

Total

Less imports

Net exports

The French Copper Trade.

Fourth in the list of the greater copper-consuming countries is France, which showed a recovery in 1902.

According to the French official statistics, the imports of bars, ingots, etc., have been as follows:

Imports and exjHrrts of bar and ingot copper into France 1895-1902. [Metric tons.]

Source.

Chile

United States

other countries

Total

Less exDorts

Net imports

Ic

Copper.

In order to arrive at the consumption, it is necessary to add the net imports of old material and the copper contents of foreign ores and pyrites, and to account for fluctuations in stocks. The following table summarizes the results:

Id94.

Net imports, raw material.. Contents of ore

Total

Coninimption

Other Countries.

The consumption of Russia increased during 1902, having be6n, according to estimates, 24,398 metric tons, as compared with 17,459 metric tons in 1901, and with 19,133 tons in 1900. In 1901 the consumption was of imports of fine copper 10,682 tons, imports of manufactures 344 tons, and of a home production of 6,263 tons. In 1902 the imports of copper were 16,098 tons, and the imports of manufactures are estimated at 300 tons and the production at 8,000 tons. It is interesting to note that of the imports of fine copper into St. Petersburg during 1902, which aggregated 8,160 tons, 7,580 tons was American copper.

Austria- Hungary imported, in 1902, 21,072 metric tons of copper in the form of ingots and bars, and in ores, pyrites, and manufactures as compared with 19,982 tons in 1901, and 21,574 tons in 1900. The production was, respectively, 1,368, 1,335, and 1,130 tons; and the exports of manufactures of ores, etc. , amounted to 3,636 tons in 1902, 3,459 tons in 1901, and 3,524 tons in 1900. According to official statistics the imports from America were 9,790 metric tons in 1902, 5,978 tons in 1901, and 10,487 tons in 1900.

Italy imported, in 1902, 10,563 metric tons, net, as compared with 8,589 tons in 1901, these totals including fine copper and manufactures, exports being deducted. The production of the country is estimated at 3,000 tons in 1901 and 3,500 tons in 1902.

Ic

Minebal Be80Ubces.

THE WORIiB'S PROBUCTION.

Messrs. Henry R. Merton & Co., of London, have compiled the following statement of the world's production, the figures being modified by this office where official statistics are available:

The copper production of the worlds 1896-190S, [Long tons.]

Country.

Great Britain

Spain and Portugal:

Thaisis

Mason and Bany

Savilla

Tinto and Santa Rosa. . .

Other mines

Gennany:

Mansfield

'Other German

Austria

Hungary

Sweden

Norway

Italy

Russia

Turkey

Total

North America.

United States

Canada

Newfoundland

Mexico:

Boleo

Other Mexican.

Total.

South America.

Chile

Corocoro

Peru

Argentina

Total

Africa.

Algiers

Cape of Good Hope:

Cape Company

Namaqua Company.

Total.

Japan.

<i4,100

as, 900

a4,300

I 500

I 2,550

a 11, 150

a 3, 000

a2,000

a6.000

o

Ooppeb. 199

The copper production of the world, ISQS-lBOg—Continued.

5,394 a6,500 a9,000

New South Wales

a5.600

a5,386

a 10. 000

South Australia

Queensland

Total

o Estimated. RECAPITULATION.

rOREIGN COUNTRIES. CANADA.

The production of copper in Canada is reported officially at 39,168,202 pounds fine, as compared with 40,951,196 pounds in 1901. British Columbia, which is the heaviest contributor, recorded a gain of from 9,997,080 pounds in 1900 to 27,603,746 pounds in 1901, and 29,636,057 pounds in 1902. The different districts contributed to this total as follows: Boundary, 14,955,582 pounds; Rossland, 11,667,807 pounds; Coast, 2,496,681 pounds; Nelson, 491,144; and other districts, 24,843 pounds.

British Columbia.

The development of the boundary district of British Columbia has been rapid and promises to exhibit a further steady growth, being dependent chiefly upon large deposits of practically

grade copper-gold ores, carrying from 25 to 35 pounds of copper, 25 to 40 cents of silver, and $1.50 to $2.50 of gold per ton. The tonnage of ore, which was 386,675 long tons in 1901, is estimated at 519,962 long tons in 1902, and would have been greater had it not been for a shortage of coke from the Crow's Nest district, and for low water which restricted the generation of electric power. The principal undertakings are the Granby Consolidated Mining, Smelting and Power Company, Limited, in which New York, Boston, and Montreal capitalists are interested; the British Columbia Copper Company, Limited, a New York corporation, and the Montreal and Boston Copper Company, whose headquarters are also in New York.

The Granby Company, which owns a group of mines of which the Old Ironsides and Knob Hill are the most conspicuous, mined in 1902 310,601 tons of ore, which yields about 27 pounds of copper and $2 of gold per ton. The ore is extracted from open quarries. The company owns a smelting plant at Great Forks, which is equipped with four furnaces. Two additional furnaces and a converter plant are to be put in. When in full operation the output is expected to reach about 2,000,000 pounds of fine copper per month, the ultimate aim being double that quantity. Interests identified with the company have acquired an interest in coal property at Blairmore, in the district of Alberta, where coke ovens are to be erected.

The British Columbia Copper Company controls the Mother Lode at Dead wood Camp, near Greenwood, from which there was mined in 1902 137,577 tons of ore. The company owns a smelting plant at Greenwood.

The Montreal and Boston Copper Company, Limited, owns the Sunset and Crown silver group of mines near Deadwood Camp and a smelting plant at Boundary Falls.

There has been considerable activity in the copper districts of Vancouver. In the Mount Sicker district the Leonora and Tyre mines have become producers, and two smelting works have been started, one at Crofton on Osborne Bay, with two furnaces and a converter plant, and the other at Ladysmith. The Van Anda mines on Texada Island are also being worked.

In the Rossland district the Le Roi mine is the most important. During the fiscal year ending September 30, 1902, the amount of ore mined was 63,262 short tons, which yielded 3,001,027 pounds of copper, 32,435 ounces of gold, and 82,548 ounces of silver, the total value of which was $1,068,916, an average of $16.89 per ton. The cost was $5,021 for mining and $7,870 for smelting. The total receipts of the company were X117,S94, the expenses at the mine being £64,347, at the London office £3,086, and for miscellaneous purposes £5.434. The net balance was £44,987.

Ooppbb, 201

Newfoundland.

The production of copper ore in Newfoundland is officially stated to have been 71,485 long tons; 35,588 tons having been shipped during the year to the United States and 35,947 tons to Great Britain. It is estimated that the copper ore produced contained 2,586 long tons of fine copper.

Mexico.

There has been a good deal of activity in the development of copper properties in Mexico, and the production has greatly increased. In Sonora the Greene and Nacosari companies are yielding copper on a large scale. The Descubridora property in Durango is now equipped with a smelter, and the Jimulco Company is shipping ore steadily. In Coahuila the Coahuila Mining and Smelting Company has erected a furnace at Viesca and is treating local carbonates. At Mazapil in Zacatecas the Mazapil Copper Company is producing steadily. The French enterprise m Michoacan, the Inguaran Copjwr Company, of which so much is expected, has not yet become a contributor to the world's metal markets.

The production of copper at the Boleo mine in Lower California in 1902 was 10,953 metric tons, within a few tons of the output of 1901. There were mined 249,895 tons of ore in 1902, as compared with 275,685 tons during the previous year, but the yield has risen from 3.95 per cent to 4.383 per cent, due to a closer sorting. The Boleo ores are ferruginous, manganiferous, siliceous, and argillaceous. The latter do not smelt readily, but the bodies are large and they are cheaply mined. Their copper contents are more regular, but the grade is low. When the price of copper is high, the percentage of argillaceous ores mined is increased; but when the price is low, the necessity for reducing costs causes the quantity of the poorer ores, more difficult to reduce, to be lessened. The old smelting plant has been dismantled. The profits of the company in 1902 were 1,750,961.08 francs, or 544,705.48 francs greater than those of 1901.

The annual report of the Greene Consolidated Copper Company for the year 1902 gives full details relative to the mining property and the plant at Cananea, Sonora. The concentrating plant of 600 tons daily capacity is used to utilize some of the ores of the Capote and Veta Grande mines, which are highly siliceous. The smelting plant embraces eight Mitchell hot-blast furnaces, and the converting works are equipped with five stands, the production aimed at being 6,000,000 pounds of copper per month. From the beginning of the operations of the Greene Consolidated Copper Company, the company smelted 73,981 tons of iron ore, and 173,750 tons of copper ore, producing 31,519 net tons of matte carrying 28,540,980 pounds

jigi ize oy g

233,696 ounces of silver. The statement is made that the direct cost of labor, fuel, supplies and material for mining the ore, transportation to the smelter, and reduction to marketable form, amounts to 4.18 cents per pound of copper produced.

Tasmania.

The Mount Lyell Mining and Railway Company is the largest producer. Duriujf the six months ending September 30, 1902, the smelter treated 183,676 long tons of ore, and produced blister copper containing 3,608 tons of fine copper, 341,346 ounces of silver, and 11,681 ounces of gold. This blister copper is shipped for refining to the United States, the company having arranged for a three years' extension of the contract. The net profit for the half year was £45,348, or less by £7,700 than that of the previous half year.

Germany

The year 1902 has not been a favorable one for Germany's great copper producer, the Mansfeld'sche Kupferschiefer bauende Gewerkschaft,of Eisleben. The production of the mines was 680,784 metric tons of ore in 1902, as compared with 696,321 tons in 1901, but the average cost was reduced from 32.88 marks per ton in the latter year to 28.60 marks in 1902. The four smelting plants treated in 1902 682,882 tons of ore and produced 49,179 metric tons of matte, which carried on an average 27.12 per cent of copper and 0.156 per cent of silver, the consumption of coke being 135,908 tons. There were roasted 47,360 tons of matte, producing 22,012 tons of chamber acid. In the second matte smelting there were handled at two plants 48,999 tons of roasted matte and 3,338 tons of raw ore, producing 25,041 tons of sex3ond matte and 70 tons of blister copper. The matte from one plant carried 74.2 per cent of copper and 0.4446 per cent of silver, and that from the second works contained 74.4 per cent of copper and 0.4202 per cent of silver". In the silver-extraction works -24,044 tons of second matte were roasted and 99,045 kilograms of cement silver were produced, yielding 98,446 kilograms fine silver. The leached matte yielded 17,094 tons of fine copper. There were also produced 1,548 tons of electrolytic copper and 107 tons of fine copper from foreign materials. The total production, therefore, was 18,749 metric tons of copper in 1902, as compared with 19,080 tons in 1901.

The total sales of the Mansfeld Company were 29,634,971.15 marks, as compared with 37,564,592. 35 marks in 1901. The costs of the mining and smelting were 29,634,971.15 marks in 1902, against 34,757,171.84 marks in 1901. A profit of 2,807,420.51 marks in 1901 was therefore converted into a loss of 590,891.65 marks in 1902, thus indicating an inability to compete at the low prices prevailing for coppand silver

Copper. 203

in 1902. The Mansfeld Company, however, makes some profit on a large number of incidental and subsidiary enterprises, including the manufacture of slag brick, a narrow-gauge railroad, an electrolytic plant, a copper mill, a colliery, and coke plant in Westphalia, the alkali mine, Ernsthall, in course of development, forests, real estate, etc. These converted the loss in 1902 on the mining operations proper into a profit of 108,110.24 marks.

Spain.

The Rio Tinto Company made a profit in 1902 of Je912,303, as comrpared with jS1,279,250 in 1901. The amount of copper marketed was 34,136 long tons in 1902, as compared with 34,604 tons in 1901, the production by treatment at the mines being 21,659 and 21,100 long tons in the respective years. The Rio Tinto completed a new Bessemer converting plant during the year.

Owing to . the exhaustion of the Tharsis and Laguanza mines, the copper production of the old Tharsis Sulphur and Copper Company declined from 7,427 long tons in 1901 to 6,708 long tons in 1902, the ore extraction declining from 400,162 tons in 1901 to 342,692 tons in 1902. The Calanas mine, however, continues to do well. The deliveries of pyrites to consumers were 225,861 tons in 1902, as compared with 208,309 long tons in 1901. After writing off Jei5,000 on the mines £13,000 on the railroad property and the piers, and jS10,482 on property and plant in Spain, there remained a net profit of £213,388.

One of the more recent Spanish pyrites mines which is being developed is the Pena Copper Mines, Limited, in the Huelva district. During 1902 the company laid down for leaching 161,928 long tons, thus making the stock of ore on the heaps 351,574 tons. The production of precipitate has only begun. It was 413 tons in 1901 and 624 tons in 1902. There were reserved in 1902 33,928 long tons for export without treatment. There were shipped in 1902 92,057 long tons of ore, consisting of 19,927 tons of cupreous ore, 62,982 tons of roasted ore, and 9,148 tons of sulphur ore. The average content of the ore mined in 1901 was 47.06 per cent of sulphur and 1.296 per cent of copper; in 1902 the figures were, respectively, 47.24 per cent and 1.36 per cent.

Ic

Lea.D.

By Charlks Kiuchhofp.

Introduction.

Under the influence of a lower range of prices for lead, assisted in the case of the Rocky Mountain districts by low returns for the accompanying silver, the lead-mining industry did not prosper in 1902 as much as other branches of metal mining. The principal cause was that in the previous years a very large stock of lead had accumulated. This was successfully worked off during 1902, which was a year of enormous consumption in all the metals. The stock of lead, which was 58,733 short tons at the beginning of the year, had been carried down to 11,595 short tons at its close. If an effort had been made to force values up, it would have opened the door to importations, the markets abroad being low throughout the year.

Under the circumstances, the fact that production was as large in 1902 as it was in 1901 is encouraging, but there has been some shifting of the territorial source of production. Relatively, the Mississippi region has gained in importance, showing an increase in output at the expense of the Rocky Mountain districts, which declined in production. The one counterbalanced the other closely, the production of the country in 1902 having been practically the same as it was in 1901 and

Production.

The following table presents the figures of the total gross production of lead in the United States from 1825. Up to the year 1882 the figures have been compiled from the best data available. Since 1882 the statistics are those collected by this Office, with the exception of the year 1889, when they were gathered by the Census Office.

MIirEBAL BESOUBOES.

Productwn of lead in the Uniied StaUSy 18£6-1902.

Year.

Quantity.

Year.

Quantity.

Year. Quantity.

Year.

Quantity.

Short Urns. 1,500 8,000 7,600 10,000 11,000 12,000 18,000 15,000 18,600 15,000 17,500 17,000 20,500 24,000 25,000 26,000 30,000 28,000

Short tons. 25,000 23,600 22,000 15,700 16,800 16,500 15,800 16,000 16,800 15,800 16,400 16,600 14,100 14,200 14,800 15,800 14,700 16,100

18T7

Short Ions. 130,629 145,700 151,919 143,630 178,664 163,982 170,000 188,000 212,000 222,000 210,600 270,824 270,700 270,000

For many years the only method for arriving closely at the lead product of the mines of the United States has been to depend upon the smelting works to furnish statistics showing the source of the material worked by them. These statistics of production do not necessarily agree with the commercial statistics which include the lead obtained by smelting foreign ores and by desilverizing foreign base bullion in bond. To avoid misapprehension, these must be clearly and sharply separated. The figures given in the table of production are arrived at by making an allowance for loss in smelting the ores and in refining the base bullion derived from that smelting.

The returns of the smelters in the United States aggregate as follows:

Lead content of ores smelted by the works in the United States, ISQJhlSOfS by Stales,

State or Territory.

Colorado

Idaho

Utah

Montana

New Mexico ,

Nevada

Arizona

California

Washington ,

Oregon, Alaska, South Dakota, Texas. . .

Missouri, Kansas, Wisconsin, Illinois,

Iowa. Virginia, and Kentucky ,

Total lead content American ores

smelted

Content Mexican ores

Con tent Canad ian ores

Content miscellaneous or nnknown

Short tons.

Short Urns.

Short tons.

'ed

Short tons.

by Vj

Short tans.

Lie

a Estimated.

Lead.

Lead carUetd of ores smelted by the works in the United States, 18D4-190S, by States —

state or Territory.

Colorado

Idaho

Utah

Montana

New Mexico

Nevada

Aiiaona

California

Washington

Oregon, Alaska, South Dakota, Texas

Miasouri, Kansas, Wisoonsin, Illinois, Iowa, Yir-

I8m.

ginia, and Kentucky.

Total lead content American ores smelted .

Content Mexican ores

Content Canadian ores

Content miscellaneous or unknown

Short tons. 70,308 62,154 29,987 10,227 4,866 8,888 8,877

Short tons, 82,137 85,444 48,044

Short tons.

Short tons,

f 1,457

The total production to A, of 201,352 tons, includes the lead content of the ores smelted in 1902 by the works which treat argentiferous material. Besides this there was treated in one of these works domestic material, source unknown, containing 1,307 net tons of lead (included in B), which must be added in making the calculation. Then, there were treated in silver-lead works ores from Missouri, Kansas, Wisconsin, etc., to the extent of 5,395 tons of lead content, leaving 74,050 tons of direct nonargentiferous lead. The 5,395 tons which pass through the smelting and desilverizing process must undergo the usual allowance for waste in smelting and desilverizing. The total production of lead from argentiferous material was, therefore, 208,054 short tons. Assuming the yield of the ores smelted by silver-lead smelters and desilverizers to be 94 per cent, a total of 195,571 short tons of commercial lead is reached. To this must be added the 74,050 tons of pig lead produced by the soft-lead smelters, and a resulting total is reached of 269,621 short tons of lead as the production of the United States for 1902. To indicate the fact that it is an estimate, this figure is rounded off to 270,000 short tons.

Returns from the smelters show that considerably less of foreign ores were handled. This is due partly to the destruction by fire of the El Paso works of the American Smelting and Refining Company, and to the decline in the receipts of ore from Canada. On the other hand, considerably larger quantities of South American and Central American ores were smelted in smelting works in this country.

Production Of Desilverizers And Smelters.

It was first in 1886 that the treatment of foreign material in American works attained some importance. At first it was foreign ores that were smelted. Subsequently growing quantities of foreign base

Mineeal B£80Ubg£S.

bullion were imported to be desilverized in bond, the greater part of the refined lead thus made being exported. In the beginning it was possible to arrive at the net American production by deducting from the total pig lead production of the works the lead content of the foreign base bullion and ores. The conunercial statistics and the domestic production statistics were identical. Later on the supply to the home markets included, besides the product of our own mines, varying quantities of exempt" lead, being a certain tonnage of lead obtained from foreign material which did not pay a duty. The following table shows the total production of refined lead in the United States, irrespective of the source from which it was drawn, the production of desilverized lead, and of soft lead. A column is also added showing the amount of lead reported by the works as having been obtained from foreign base bullion and foreign ores.

Production of refined lead in the United States 188S-1902.

Year.

Total production.a

Desilverized lead.a

Soft lead.b

Short toM.

Short tons.

Short toM.

From for ignores and base bullion.

Short ioM,

c5,000 015,000 28,636 26,570 18,124 23,852 89,957 65,851 59,739 76,173 77,738 83,671 95,926 106,855 112,422 100,606

a Including foreign base bullion refined in bond.

b Including a small quantity of lead produced in the Southern States.

e Estimated.

ITard lead, — Since 1891 special returns from desilverizers have been made on the quantity of antimonial or hard lead produced. The quantity was 4,043 tons in 1891, 6,039 tons in 1892, and 5,013 tons in 1893. In 1896 the production of hard lead was 7,507 tons, rising to 8,867 tons in 1897, and declining again to 8,473 tons in 1898. It amounted to 6,345 tons in 1899, to 9,906 tons in 1900, to 10,656 tons in 1901, and to

Lead. 209

Domestic Producers.

On the whole, the production of lead in southeast Missouri and the Joplin-Gralena district in southwest Missouri and Kansas increased considerably. In the latter district the Serage works were idle in 1902, but a new plant has been established at Galena, Kans., by the C. V. Petraeus Smelting and Mining Company. The Granby Company added considerably to its production, and the St. Joseph Lead Company made its record production in 1902. The smelting operations of the Markle, Desloge, and Federal plants were considerably enlarged. The production of the Central, Mine la Motte, and Picher companies has remained stationary.

The desilverizers handle considerably less than formerly of the nonargentiferous ores, having smelted ores containing 5,395 tons out of a total of 79,445 tons.

The Joplin Galena district, however, did not come up to its record of 1901. Local statisticians estimate that the total ore sales, which were 35,177 short tons in 1901, fell oflf to 31,625 tons in 1902. The exact metal yield of this ore can not be stated, since a considerable quantity of the ore is converted into a pigment. The local smelters produced, however, in 1902, 18,628 short tons of pig lead, as compared with 15,464 short tons in 1901, thus proving that a larger proportion is being converted into pig lead in the immediate vicinity of the mines.

The heavy increase in the production of lead in Missouri is due to the rapid development of the mines of southeastern Missouri, a part of the ores being smelted at local works. During 1902 the St Joseph Lead Company, the Desloge, Central, and Mine la Motte mines made at their own works 41,192 short tons of lead, as compared with 35,132 tons in 1901. St. Louis has become a growing lead smelting center.

Practically the whole of the production of Idaho is derived from the Coeur d'Alene district, by far the most productive in the United States. Under an arrangement with the American Smelting and BejSning Company the leading producers were not running up to full capacity, nor have any steps been taken in 1902 to make important additions to either the mines or the mills. Under local tax laws sworn statements are filed, showing the quantity of ore mined, the gross value, the cost of extraction, freight, and other items. According to these statements there were mined in 1902 in the Coeur d'Alene 877,407 short tons of ore, with a gross value of $8,125,043, the principal producing mines being the Empire State, Idaho, 262,509 bons; the Morning, 209,852 tons; the Standard, 155,525 tons; the .Mammoth, 74,994 tons, and the Bunker Hill and Sullivan, 34,109 tons. The ores vary quite widely in metal content, but the average value per ton for the district is placed at about 10 per cent of lead and 7 ounces of silver. , vr.uuv ic

M R 1902 14

Mineral Besoubges.

The production of lead in Colorado was less than in former years, Leadville showing a further decline. The lead content of the ores mined was estimated at about 20,000 short tons. The Arkansas Valley plant, at Leadville, of the American Smelting and Kefining Company has been enlarged, so as to concentrate at a single works the operations hitherto carried on at a number of plants in the district. At Pueblo the work at the former Philadelphia smelter has been suspended, largely because the Utah ores are now treated at the new Muri*ay works; and the Durango smelter is being enlarged to smelt the ores of the San Juan region. The new plant of the Ohio and Colorado Smelting and Refining Company' at Salida, Coio., was blown in on October 25, the chief owners being interested in the New Monarch mine at Leadville. The plant is equipped with four lead furnaces, and is also arranged for copper smelting. It draws its ores from Colorado, Utah, and Idaho.

Utah has shown a further gain. In Park City the Daly- West Mining Company has acquired the Quincy property and produced in 1902 ore containing 14,300-short tons of lead, 2,851 ounces of gold, 3,245,460 ounces of silver, and 1,034,880 pounds of copper. Out of total receipts of $1,885,637, dividends aggregating $1,044,000 were paid. Among the other heavy shippers of the Park City district are the Silver King, the Daly-Judge, and Ontario. The concentrates and shipping ores average per ton about 35 per cent in lead, 50 ounces of silver, and $2 to $3 in gold.

The Tintic district has not made much progress in 1902. The Bingham, Ophir, and Stockton districts are expected to show an increase during the year 1903.

Consumption,

According to the direct returns from smelters and desilveiizers there were handled 100,606 short tons of foreign material.

The records of the Bureau of Statistics of the Department of Commerce and Labor make the following exhibit, the monthly details being given in the table published elsewhere.

Official returns of warehouse transactions in lead during 1901 and 1902.

In warehouse at beginning of year

Ponnda. 42,379,270 221,030,779

Pounds.

Direct importation ...

Deduct in warehouse at end of year

Addition by liquidation . . .-

Total ' 230,777,349 186,233,064

Lead.

The disposition of this was as follows:

DispoitUion of lead in warehouses in 1901 and 1902,

Exported

Withdrawn for consumption.

Deducted by liquidation

Total

The consumption figured for 1901 and 1902, when a complete statement of stocks was first available, may be compared with estimates of previous years, which were made on a somewhat different basis, in some cases with partial data as to stocks, and in others without any reliable figures relating to them.

Estimate of the consumption of lead in the United States 189Jhl902,

Supply- Total product desilverized lead

Soft lead

Short ixyM.

Short ioM,

Short tons,

Imports, foreign refined

Stock, domestic, begining of year

Stock, foreign in bond, beginning of year o.

Total supply

Deductin bond and exported.

Lead in manufactures exported under drawback

Stock, domestic, close of year

Stock, foreign in bond a

Total

Apparent home consumption

Supply- Total product desilverized lead

Short Um.

Short tons,

Short tons. 828,790 57,898 89,060 21,190

Short tons, 808,011 74,060 1,644 53,738

Softlead

Imports, foreign refined

Stock, domestic, beginning of year

Stock, foreign in bond, beginning of

rear

Total supply

in bond

Deduct—

Foreign base bullion and ores refine and exported

Lead In manufactures exported under drawback. Stock, domestic, close of year

Stock, foreign in bond - -- -

Total

Jic

Apparent home consumption

itized by Vj

a Lead in ore and bullion.

Mineral Resources.

The striking feature is the decline in the stocks of domestic refined lead from 53,783 tons at the opening of 1902 to 11,595 tons at its close. The domestic consumption was greater than ever before in the history of the country.

Imports And Exports.

In previous volumes of the Mineral Resources tables of imports and exports of lead have been presented which go back to the year 1867, the figures being supplied by the Bureau of Statistics. The following tables supply the data since 1890:

Lead imported and entered for consumption in the United Slates, 1890-190'J.

Year ending December 31.

Ore and drofls.

PigB and bars.

Quantity.

Value.

Quantity.

Value.

Pounds. 11,065,865 40,692,478 54,249,291 58,487,319 33,020,250 45,050,674 37, 829; 583 31,036,882 16,610,607 6,824,556 10,209,742 10,324,119 14,499,339

Pounds.

, Ijead imported and entered for conmimption in the United States, 1890-1902,

Year ending December 31.

Sheets, pipe, and shot.

Not otherwise specified.

Quantity.

Value.

Pound*.

Total value.

Lead. 213

Leadj and manufactures ofleadj of domestic production, exported y 1S90-190B,

Year ending December 81.

Manafactaresof lead.

Pigs, bars, and old.

Total

Quantity. Value.

Quantity.

Value.

value.

.

$181,030 173,887 154,375 606,090 466,768 164,083 164,877 <f49,816 160, 466 97,862

Pounds.

S181,080 178,887 154,876 608,090

a$41,240

r c265,0e2

f c363,600

'

a Not enumerated between 1868 and July 1, 1894.

b Part of this is foreign lead returned by collectors of customs by mistake as domestic lead.

<fValueof type.

Value of all other manufactures.

According to the returns of the Bureau of Statistics the sources of imports of lead in the calendar years 1896, 1896, 1897, 1898, 1899, 1900, 1901, and 1902 were as follows:

Sources of imports of lead.

Country.

United KInirdom

Pounds. 8,161,411 1,118,148

Pounds. 1,120,528

Pounds. 2,326,937

Germany -

Other Europe

Total refined pig lead

British North America

Mexico

Total ore and base bullion

Other countries

Total imports

Ic

MINERAL RESOURCES. Sources of imports of lead — Continued.

Country.

Kingdom - -

Pounds. 817,821

Poundt. 667,482 225,222 111,905

Pounds. 402,562 671,294 2,458

Pounds. 792,007

Qermwiy , .

Other Europe

TotHi refined pig lenl . . ,

British North America

Mexico

Total ore and base bullion

Other conntriefl

Total imports

The subdivision by groups representing refined pig lead and lead in ore and base bullion is made by this office.

Warehouse Transactions.

The following table, furnished by the Bureau of Statistics, shows the warehouse transactions of lead in ore and in base bullion monthly during 1902, and the corresponding totals for the years 1901, 1900, 1899, 1898, and 189T.

Imports of lead in ore and base bullion during the calendar year 190iSy showing warehouse

transactions by months.

Month.

January

February ,

March

April

May

June

July

August

September

October

November

December

Remaining

in warehouse

first day of

each month.

Total.

Total, 1901. ToUl, 1900. Total, 1899. Total, 1898. Total, 1897.

Pounds.

Entered warehouse.

Of direct im- From other portation. districts.

Pounds.

Pounds. 8,466,782 5,893,168

Additions by liquidation.

Pounds. 63,387 27,239 48,633 28,660 45,870 20,967 16,066

Lead.

Imports of lead in ore and hose bullion during the calendar year 190£, showing warehouse transactions 6ywK>?U/w— Continued.

Month.

Withdrawn from warehouse.

For exportatation.

For transportation.

Forconsump- Uon.

Deductions by liquida- . tion.

January

Febroary

March

April

May

June

July

Augnst

September

October

November

December

Total .

Total, 1901. Total, 1900. Total, 1899. Total, 1896. Total. 1897.

Pounds, 15,845,487 11,264,720 16,859,670 19,111,188 14,144,364 11,078,151 12,662,495 15,681,907 12,587,420 9,505,430 8,970,067 11,333,918

Pounds.

Pounds.

Prices.

In previous volumes of the Mineral Resources the highest and the lowest prices of lead at New York were given for each month since 1870, the figures being compiled from market quotations. The following table shows the fluctuations since 1890:

Highest and lowest prices of lead at Neio York Oiti/y monthly 1890-190iS. [Cents per pound.]

Year.

January.

February.

March.

April.

Highest.

Lowest.

Highest 1 Lowest.

Highest.

Lowest.

Highest.

Lowest

Mineral Resources.

Highegt and lower prices of lead at New York City, monthly , 1890-190S — Continued.

Year.

Year.

May.

Highest. Lowest.

June.

Highest. Lowest,

July.

Highest. Lowest.

August.

Highest. Lowest

September.

Highest. Lowest,

October.

Highest. I Lowest.

November.

Highest. Lowest.

December.

Highest Lowest.

In January, 1902, the American Smelting and Refining Company advanced the price of lead from 4 cents, which had been named in December, 1901, to 4.10 cents for moderate lots, and at that price the metal was held during the remainder of the year.

Ic

By Charles Kirchhopp.

Production.

During 1902 the production of spelter in the United States was

greater than ever before, having attained a total of 156,927 short tons.

The development of the industry is shown by the following figures:

Production of spelter in the United States, 1873-190.

Year.

Quantity.

Short tons. 7,343 15,883 23,289 83,765 36,872 88,544 40,688 42,641 60,340 56,903 58,860 63,683

Year.

Quantity.

Ists...

Short tons. 80,878 87,260 78,882 75,328 89,686

In the different States the production has been as follows:

Production of spelter in the United ate, by Stales, 1882-1902.

Year.

EoAtern and Southern States.

Short tons.

a Easteni.

a 8, 945

"'"'1 64,217

If a9,582

"'"1l 54,913

jf a8,802

ft Southern.

Illinois.

Kansas.

Total.

Short tons.

Short tons.

Short tons.

Short tons.

&#x27;J6,243

I &lt;&#x27;31,383

I &#x27;&#x27;29,596

Minebal Be8Oub0Es.

Production of spelter in the United SUUeSf by States, 188-1909 — Continued.

Year.

EMtern and Southern States.

Short lOM.

f a7,400

1 a9,484

i 68,897

J 08, 189

f a7,218

Illinois.

Short tons. i 028,972

i 085,782

i 086,178

047,108 050,118 88,750 o44,896 047,096

.Kanaan.

Short tOM. 25,588

Minoori.

Short to 11,

Total.

dl40,822

a Eastern. 6 Southern,

d Including 2,716 short tons dross spelter.

o Including Indiana. 'Including 2,675 short tons dross spelter.

The statistics of the production of spelter include always the metal produced by several works that treat drosses exclusively. In 1901 these made 2,Y16 short tons and in 1902 they produced 2,675 short tons. This conveys an impression of the magnitude of this industry in recent years.

It may be of interest to note that the Edgar Zinc Company, controlled by the American Steel and Wire Company, a constituent company of the United States Steel Corporation, produced in 1902 in its Cherry dale, Kans., and Carondelet, Mo., plants 23,982 short tons of spelter.

During 1902 the Illinois Zinc Company began the erection of an additional furnace, increasing its capacity by 15 per cent. The furnace was completed early in 1903. The Granby Mining and Smelting Company, which ranked among the makers of spelter in the earlier days of the industry, and which produces a good deal of ore, acquired a plant at Neodesha, Kans. The Sandoval Zinc Company, which has produced spelter for some years at Sandoval, 111., has purchased and is operating the works at Marion, Ind. In Virginia the Bertha Mineral Company has purchased the property of the Wythe Lead and Zinc Company, which in former years produced spelter. The plant, however, has been idle for a long time, operations being confined to mining. A new works of two blocks is building at Laharpe,

Kans.

Consumption.

The consumption of spelter in 1902 was heavy, the principal industries in which it is a factor being extremely busy. The following table gives an estimate — which is approximate, however — in respect to stocks. All of the producers do not report, but the in,.

1 . II 1 r- 7 least partially reflect the movement:

ZINC. EdimaUd consumption of spelter y 1896-190e,

Source, etc.

Shori tons. 99,960 1,279 7,477

Short tons.

Prodactton

SkoH tout.

ShoH tons,

Short tons.

tOM.

Short tons.

ShoH tont.

TDipoitu

stock at beginning of year

Total supply

Deduct-

Exports of foreign

Exports of domestic

Stock at end of year

Total

Apparent home consumption..

The Zinc Mbstes.

Joplin-Galena District:

The Joplin-Galena district has had a prosperous year, production being large and prices satisfactory. Mr. Jesse A. Zook, of Joplin, has compiled for the Daily Globe the following statement of ore sales for 1902, by camps:

Sales of zinc and lead ore in the Joplinr Galena district in 190£.

Camp.

Galena and Empire

Webb City

Dnenweg

Anrora

Plrosperity

Oronoffo

Zlncite

Alba and Neck City

Granby

Carthage

Spnrgeon and Spring City.

Central City and Roaring Springs

Btottsaty

Miscellaneous

Total 1902. Total 1901. Total 1900. Total 1899.

Zinc ore.

Quantity. 1900. 1901. 1902.

Short tons. 73,690 30,339

256,338 '.66,920 244,629 255,088

Value,

. Lead ore.

Quantity.

ShoH tons. 10,206 3,096

9T2

, j;giii2ecl S

Value,

Motebal Resoub0E8.

The most striking increase has been made by the Duenweg district, but Carterville, Joplin, and Webb City have also done well. Among the camps whose product is grouped under ''Miscellaneous" is the new district of Fortuna, in central Missouri, 6 miles south of Tipton. It also includes Gillham, Harrison, and Imboden, in Arkansas.

For previous years the ore sales have been as follows:

Ort sales in the Joplin-GcUena district 1894-1902-

Year.

Zinc ore.

Short tans. 147,810 144,487 155,883 177,976 234,455 255,088 244,629 256,920 256,838

Leaflore.

Total value both ores.

Short tons. 82,199 81,294 27,721 30,105 28,687 28,888 29,176 34,938 30,142

The average base prices, from month to month, for the ores of the district have been as follows in 1900, 1901, and 1902:

Average base prices of zinc and lead ores in the Joplin- Oalena district in 1900, 1901, and

Month.

January... February .

March

April

May

June

July

August

September October . . . November December.

Year

Zinc, per Bhort ton.

S23.73

S30.28 W.55

Lead, per 1,000 pounds.

S22.80 22. a5

Prices, therefore, were quite satisfactory during the year, and the demand was such that no ore was exported. Toward the close of 1902 a surplus accumulated, however, and a proposition was being discussed to ship it out of the country. During the year the proposal was made to form an ore-purchasing company to handle the zinc ore of the district, warehousing and grading it and reselling to the smelters at an advance of 11.50. The scheme was not carried through, however.

Ic

Colorado.

Colorado has become an important producer of zinc ore, the output for the year 1902 placed by Mr. Harry Allen Lee, commissioner of mines, at 26,24:1 short tons, valued at $2,544,993.48. Of this quantity 23,819 short tons are credited to Lake County, 1,024 short tons were mined in Mineral County, and 665 short tons in Summit County. In Leadville increased attention has been paid to the handling of lowgrade zinc and lead ores and dumps. The United States Zinc Company has shipped considerable quantities from the Moyer dump of the Iron- Silver Company to its Canyon City plant. A mill was also successfully started by the A. Y. and Minnie Company, and a large new plant for the Resurrection mine was approaching completion at the end of 1902. Magnetic concentration plants for zinc ores have been built at Denver, Colo., by the Colorado Zinc Company, and the Empire Zinc Company, controlled by the New Jersey Zinc Company, has built works at Canyon City. The American Smelting and Refining Company has erected a small zinc smelting plant at Pueblo. The Colorado zinc ores have largely gone to Europe, while considerable quantities have also been shipped to the Kansas gas belt and to the zinc-white works in Wisconsin.

To the Kansas works have also gone some shipments of zinc ore from the Slocan district in British Columbia.

New Jersey.

According to the report of the State geologist of New Jersey the production of the zinc mines of the State was 209,386 short tons of ore in 1902 as compared with 191,221 short tons in 1901, the entire quantity being obtained from the Franklin mines of the New Jersey Zinc Company.

The South.

The mines in Marion County, Ky., have continued to ship ore; in Tennessee further prospecting has been done; and in Virginia operations were confined to the work of the Bertha Mineral Company, which had acquired the mines of the Wythe Lead and Zinc Company at Austinville.

Mineral Resources.

Imports And Exports.

The imports have continued light in 1902; the exports, however, of zinc ore have shown a further increase, as is exhibited in the following tables.

For a series of years the imports and exports have been as follows:

Ziiic imported and entered for cotisumption in the lhited Stalely 1867-1903,

Year ending-

June 30—

18d8.

December 31 —

Block or pigs.

Quantity.

Pounds,

Value.

Quantity. Value.

Pounds. 6,142,417 3,667,448 8,306,723 9,642,687 7,646,821 10,704,944 11,122,143 6,016,836 7,820,713 4,611,860 1,841,833 1,265,620 1,111,225 4,069,310 2,727,824 4,413,042 3,309,239 952,253 1,889,860

Ic

Zino.

Zinc impHjried and entered fur consumption in the United Stales, 1867-190iif — ContVl.

Year ending-

Old,

Value of

manufacturefl

.

Total

Quantity.

Value.

value.

June 80-

December 31—

3,417 ' 11,211 6,982 8,824 6,379 ' 24,257 3,277 89,549 8,299 82.708

Imports of zinc oxide, 1886-190,

Year ending-

June SO, 1885 December 31—

Dry.

In oil.

Pounds. 98,566

Year ending- December 81 —

Dry.

In oil.

Pounds. ...I 3,371,292 4,546,049 ...j 4,572,781

Pounds. 59,291 129,348 311,028 502,367 27,060 41,699 88,706 128,198 163,061

Mineral Besoubces.

Since 1864 the exports have been as follows:

ExportH of zinc and zinc ore of domestic jororfttrtion, 1864-190£.

Year ending-

June 30— 1866.., 1873. . .

December 31-

1S88

18W

Ore or oxide.

Quantity. Value.

Cwt. I 14,810 99,371 4,485 3,676 8,344

49,455 17,2S6 ; 73,802 195,113 I 149,435 I

PlateR, HheetM, , or I ,

bars. I Value of manufactures.

Quantity.

Value.

Total value.

142,920 65,411 56,116 26,606 6,960 23,6i9 25,904 82,248 150,708 800,978 211,063 161,800 149,378 138,374 83,224 30,927 35,085

During 1902 there was exported a fair quantity of New Jersey ore via New York, and Colorado shipped a larger quantity via Galveston.

Ic

Zinc.

Exports of zinc ore by cwOoms districts during 1900, 1901, and 190£.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

New York

Long tons. 15,187 10,209 2,278 9,150

Ijongion:

Long tons. 20,8fff

tMKL'KO

Galveston

New Orleans

Detroit

Huron

All other districts

Total

The following table shows the destination of the ore exports: Exports of zinc ore by countries during 1900, 1901, and 190£.

Country.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Aiifftrla-Hunfrary .

Long tons.

Long tons.

Long tons,

Belgium

U,280

Netherlands

Germany

United Kingdom

Canada

Mexico

Total

The exports of spelter by customs districts and by countries of destination are exhibited in the following tables:

Exports of zinc, by customs districts, during 1900, 1901, and 190f.

Customs district.

Norfolk and Newport News. ,

Baltimore

Galveston

New Orleans

Detroit

Huron

All other districts

Total.

Quantity.

Pounds.

Value.

Quantity. Value.

Pounds. 8,827,740

Quantity. Value.

Pounds. 1,456,101

M R 1902-

Mineral Resouhoe8.

A very important part of the spelter exports from Atlantic ports is the high-grade spelter of New Jersey, Pennsylvania, and Virginia. The Western spelter is exported from Gulf ports.

The destination of the exports of zinc is shown in the following table:

Exports of zinCf by countries, during the calendar years 1900, 1901, and 1902,

Country.

Quantity.

Value,

Quantity.

Value.

Quantity.

Value.

Pound*.

Pounds. 88,545

Pounds.

Germany

Netherlands

United Kinom

Canada

All other countries

Total

Prices.

So faras the prices realized for spelter during 1902 are concerned, the year was a favorable one, since the demand was quite large. The year opened quietly, with spelter selling at New York at 4.25 to 4.30 cents per pound, but showed a weakening disposition, the price declining to 4 cents. Toward the end of Februar}' the market strengthened and prices recovered to 4.25 cents. Toward the close of Marcli a number of Missouri ore producers endeavored to organize a pool to force higher prices for ore, and spelter moved in sympathy, but its early failure left the market in an indifferent mood. May brought an advance to 4.65 cents. New York, as the result of threatened labor troubles at Kansas zinc works. The strike did take place in June and affected two plants, but it was of short duration. Heavy consumption, however, held up values and led to an advance in July to 4 J to 5 cents. New York. The activity continued during August, carrying the metal up to 5S cents. New York, and prices held well during September. October, however, brought a declining tendency, which was checked by a fire that crippled the Cherry vale works in Kansas. In November the market weakened, and showed a further decline in December, closing the year with spelter at 4.50 to 4.55 cents, New York.

Zinc. 227

The following table summarizes the prices of spelter since 1876:

Prices of common western speller in New York City, 1876-1895. [Cents per pound.]

Year.

Highest.

Lowest.

Year.

Highest.

Lowest.

1Jj75

Price of common Western spelter in New York (Hty 1896-190, [Cents per pound.]

Year.

January.

February.

March.

April.

Lowest.

Highest.

Lowest.

Highest.

Lowest.

Highest

Lowest.

Year.

May.

Highest Lowest.

June.

Highest. Lowest

July.

Highest. Lowest,

Highest Lowest

Year.

September.

Highest. Lowest.

October.

Highest. Lowest.

November.

Highest Lowest.

December.

Highest. Lowest.

HIKEBAL RESOURCES. THE WORIiD'S

Messrs. Henry R. Merton & Co. (Limited), of London, on the basis of detailed reports, make the production of spelter in Europe as follows:

Production of zinc in Europe 1896-190, [Long toiu.]

Country or district.

Rhipe, Belginm, and Holland ,

Silesia

Great Britain

Austria and Italy

France and Spain

Poland

Total

United States

Total world's production

United States percentage of world's production

The leading producers in Europe in 1902 were: Vieille Montagne Company, 69,965 long tons; Hohenlohe, 28,170 long tons; Schlesische Aktien-Gesellschaft, 27,660 tons; G. von Giesche's Erben, 25,530 tons; Socit Asturienne, 21,165 tons; Graf H. Henckel von Donnersmarck, 18,400 tons; Stolberg, 18,140 tons; G. Dumont & freres, 13,635 tons; Socit Prayon, 12,515 tons, and Rhein-Nassau, 10,016 tons. In this list the Lanyon Zinc Company would rank second, the Edgar Zinc Company would follow the fourth name, the Prime Western Spelter Company the fifth, and the Illinois Zinc Company and the Matthiessen & Hegeler Zinc Company the seventh.

None of the American producers and very few of the European spelter companies publish full annual reports. A conspicuous exception is the Vieille Montagne, which in 1902 produced 70,872 metric tons of crude zinc, the rolling mills making 62,945 metric tons of sheet zinc, and the zinc-white factories 8,642 tons of various products. The Baelen-Wezel works marketed 48,840 tons of sulphuric acid. The gross profit in 1902 was 5,736,017.87 francs, and deducting 1,210,685.64 francs for general expenses, interest, discounts, etc., the net profits were 4,625,332.33 francs. Besides setting aside for depreciation, according to law, 816,066.50 francs, paying 407,533.25 francs to the administration, and 101,883.30 francs to the directors, there were paid 5 per cent, or 450,000 francs, interest on the capital stock of 9,000,000 francs and 2,700,000 francs in dividends. The company has outstanding 8,000,000 francs of bonds, and has 3,978,447.18 francs in employit

ees' saving funds, and 1,527,678.99 in life and retirement funds of employees. There is a fund of 1,315,668.4:9 francs for emergencies; 822,602.04 francs for fire and maritime insurance; 1,000,000 francs of special reserve, and 1,585,000 francs of an emergency fund created in

Another company, the Socit Anonyme Mtallurgique de Prayon produced in 1902, 12,716 metric tons of crude zinc, of which 4,754 tons was rolled. The company realized a profit of 864,018.52 francs after, deducting general expenses. The company paid dividends of 275,000 francs on its capital of 2,000,000 francs, the bonded indebtedness being 800,000 francs at per cent. During the year the company erected two additional trains of rolls, to double the output of sheet zinc.

Ic

Ic

Aluminum And Bauxite.

By Joseph Struthers.

Production.

The production of aluminum in the United States during 1902 was approximately 7,300,000 pounds, as compared with 7,150,000 pounds in 1901, an increase of 160,000 pounds. The Pittsburg Reduction Company, operating the Hall patents, continues to be the sole producer of aluminum in the United States, and, although the company is in patent litigation with the Cowles Electric Smelting and Aluminum Company, of Cleveland, its plants are being developed vigorously. It has in operation 11,000 horsepower at Niagara Falls, N. Y., and 5,000 horsepower at Shawinigan Falls, Quebec, Canada (the Royal Aluminum Company), a total of 16,000 horsepower, which is equivalent to a capacity of 4,600 tons of metal yearly, or moT*e than the output of the rest of the world. In addition, the Pittsburg company has purchased a large tract at Massena, N. Y., and is installing a large plant on the St. Lawrence River, which will consist of four 300-horsepower sets generating 1,500 volts. The increased activity on the part of the company has been due to the fact that some of its fundamental patents will expire within a few years, and it is striving to perfect the methods employed to such an extent that after the expiration of the patents it will be in position to compete successfully with new producers that may enter the field.

Although the demand for aluminum has increased from the more extended use of the metal for the manufacture of electrical conductors and special alloys, the price per pound has continued practically stationary throughout the years 1901 and 1902, as is detailed in the subjoined table:

Prices of aluminum and its alloys during 1901 and 1902.

Nickel-aluminum casting metal (10 percent nickel). Special caRting alloy (80 per cent aluminum)

Small 100-pound lots. lots. lots.

Cents.

Mineral B£Soub0£8.

An international agreement between all of the aluminum producers has been drawn up and the price of ingot aluminum fixed for 1903. The following table shows the production of aluminum in the United States for each year since the inception of the industry in 1883:

Production of aluminum in the United StateSj 1883-190S,

Year.

Quantity.

Year.

Quantity.

.

Pound, 660,000

Total

There are in the world at the present time five companies that produce aluminum at plants at nine locations, the details of their equipment being given in the subjoined table:

Aluminum works in Europe and America, 1902,

Locality of works.

Horsepower.

Process.

Name of company.

Available.

Inuae.a

Capital.

The Plttabuig Reduction Co. . . . Do

Niagara Palls

JHall

do

Shawinigan Falls . . Foyere

do

Heroult

do

Hall & Minet.

Heroult

do

do

Socidt Electro-MetalluTgique

Le Praz

Franaifie. Compagnie dea Prodults Chi-

Socit4 Anonyme pour I'lndufltrie de rAluminium.

Do

St. Michel

Neuhausen

Rhelnfelden

Do

a With the exception of the American and Canadian works, all these works manufacture other products in addition to aluminum.

For several years past the various companies have continued their secretive policy concerning the development of the industry, and practically nothing has been published in regard to modern improvements beyond the descriptions of patents, which have been granted mainly for the purification of bauxite — the chief raw material used in the manufacture of the motal.

Aluminum is used mainly for the transmission of electric currents, although a large proportion of the output is manufactured into articles for domestic and culinary use. It is also utilized for the construction

Aluminum And Bauxite. 233

of parts of machines and apparatus which require lightness rather than great strength, and in tiie manufacture of special alloys. Two other uses of growing importance are for lithographic work, the metal being used as a substitute for stone and zinc, and for the production of intense heat by the combustion of the metal in powder.

The use of aluminum as a substitute for uncovered overhead transmission lines is still expanding in the United States, and is one of the most important outlets for the metal produced here. Despite the severe criticism of this use of the light metal, chiefly on account of corrosion, a number of electric light and railway companies have purchased very large quantities for transmission purposes. Corrosion seems more vigorously to attack drawn wires than rods, and a ' weatherproof wire," coated with a preparation that forms an impervious cover, is now manufactured.

Another use of aluminum is for the manufacture of special alloys possessing exceptional physical and chemical properties. Apart from those alloys, .which contain a small proportion of aluminum with other metal or metals, as, for instance, aluminum bronze, the principal metals forming useful binary alloys with aluminum are magnesium, tungsten, and ziYic. Other metals forming useful ternary alloys with aluminum are copper, nickel, and zinc. A few of these alloys, with their trade names and approximate composition, are as follows:

(1) McLgnalium — Alloys containing aluminum and magnesium, of which there are two distinct products, in the definite chemical proportions of AlMg, and AlMg. Alloys of this class containing from 2 to 10 per cent of magnesium are found to be the most valuable on account of their ductility and malleability.

(2) Wolframinium — Alloys containing aluminum and tungsten. There are three distinct products of this class, containing the two metals in the i-respective proportions of AlW, AlgW, and AlW. An important alloy of this kind is known which is reported to have a tensile strength exceeding 49,000 pounds to the square inch.

(3) McAdamite — An alloy of aluminum, zinc, and copper containing approximately Al 72 per cent, Zn 24 per cent, and Cu 4 per cent. This is said to possess a tensile strength of more than 44,000 pounds .to the square inch.

(4) Aluminum-sUver — An alloy containing approximately Cu 57 per cent, Ni 20 per cent, Zn 20 per cent, and Al 3 per cent. Other alloys of this class are nickd-aluminum having a tensile strength of more than 35,000 pounds to the square inch, and minchin an alloy that contains a larger proportion of nickel than aluminum-silver and is used mainly on account of its resistance to the corrosive action of weak adds and alkali.

(5) Aliradium — An alloy of copper, nickel, zinc, phosphorus, and aluminum, BESOUBOES.

(6) Alumvrium.'2mc — Alloys containing various proportions of the two metals, of which the hardest and strongest is that formed of two parts of aluminum to one of zinc, although the alloy with three parts of aluminum to one of zinc is the one most generally used. An alloy of Zn 95 per cent and Al 5 per cent has a special use in the constiniction of minor parts of machines where very little strength is required.

In lithographic work the use of aluminum as a substitute for stone and zinc is rapidly extending, and many so-called rotary aluminum presses are in operation.

Another use of growing importance is for the production of intense heat by the combustion of powdered aluminum. There are two methods, one, the Goldschmidt process, used for the welding of tramway rails, and the other for the reduction of rare metals from their oxides, the necessary heat being supplied by the oxidation of the powdered aluminum, which is intermixed with the oxides to be reduced.

Very recently a new explosive called amnwnal has been invented, which consists of 25 per cent of powdered aluminum and 75 per cent of ammonium nitmte.

A new use of aluminum is for the manufacture of grindstones and whetstones, a purpose for which the metal is peculiarly suited on account of the property it possesses of forming under the whetting action a very fine mass which adheres strongly to steel. A microscopic examination at 1,000 diameters of a steel blade which had been sharpened on aluminum showed the cutting edge to be perfectly uniform and unbroken, which is not the case when steel is whetted on stone.

Imports.

In the first table below are given the quantities and values of the aluminum imported into the United States from 1870 to 1890, and in the second table are given the quantities and values of crude and manufactured aluminum imported from 1891 to 1902.

Aluminum imparled and entered for consumption in the United Stately 1S7 0-1890.

Year ending- June 30—

Quantity. Value.

Pound.

G88.00

Year ending-

June 30—

Dec. 31—

Quantity. Value.

Pound*.

Alominum Akd Bauxite.

Imparts of crude and manufactured aluminum lS91-190iS.

Calendar year.

Grade.

Leaf.

Plates, sheets, bars, and rods.

Manufactures.

Total

Quantity.

Value.

Packs of

Value.

Quantity.

Value.

value.

Pounds.

The import duty on aluminum in the United States is 8 cents per pound for ingot metal and 13 cents per sheet or manufactured metal.

World&#x27;S Production,

The following table shows the world's production of aluminum in 1900 and 1901:

World* 8 production of aluminum in 1900 and 1901,

Country.

United States

France

United Kingdom Switzerland

Total

Quantity.

Metric totis.

Value.

Quantity.

Metric torn.

Value.

Bauxite.

Production.

During the year 1902 the production of bauxite amounted to 29,222 long tons valued at $128,206 at the mines, as compared with 18,905 tons, valued at $79,914, during the preceding year. Georgia yielded the greater bulk of the product, the remainder being supplied by Alabama and Arkansas.

The mining plant of the Pittsburg Reduction Company at Bauxite, Ark., was not quite completed at the close of the year 1902. The equipment for the treatment of the crude mineral consists of a woodfired cylindrical dryer and a 60-foot rotary calciner fired by producer

Mineral Resources.

gas made in a 10 by 12 foot Duffs water-sealed producer; a second calciner also is being installed. A large proportion of the ground ore is calcined directly, although a small quantity is previously dried. The plant is designed with special reference to the mechanical handling of the materials, and elevators, conveyors, and cars replace hand labor to a great extent. The bauxite industry in Arkansas is still in an undeveloped state, and the exploration work that has been done at Bauxite is not sufficient to determine accurately the depth or quantity of ore in that region nor the character of the underlying stratum. The new plant will probably be in operation early in 1903, and it promises to contribute largely to the output of bauxite from Arkansa8. The new refining plant of the Pittsburg Reduction Company at East St. Louis is nearing completion, and will probably become operative in the early part of 1903.

The subjoined table gives the production and value of bauxite for each year since 1889:

ProductUm of bauxite in the Thited Staiea, 1889-1902 by Stales,

Calendar year.

Georgia.

Alabama. Long tons.

Arkansas. LoiigtoTU.

Total.

Value.

Ixmg tons. 1,844 3,301 5,110 2,415 2,050 7,313 7,507

Tong tons.

Iggo

The figures showing the output and value of the production of bauxite during 1902 have been received direct from the individual producers, and have also been confirmed by Mr. William G. Neilson, of the Republic Mining and Milling Company.

Bauxite is used mainly for the manufacture of aluminum, although a considerable quantity is used for the manufacture of aluminum sulphate and crystalized alum.

Consumption.

In order to show the annual consumption of bauxite and its value in the United States during the last five years, the following table has been (compiled, which includes the total production, imr and consumption, with the value of each:

ALmaNITX AND BAUXITE.

Production, imporU, exports, and consumption of bauxite in the United States, 1S9S~190£.

Total production.

Imports.

Exports.

Conaumption.

Year.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value,

Longtmu.

r5,487 125,596 89,676 79,914 121,465

Long torn. 1,201 6,666 8,656 18,313 15,790

m.

Long tons. 25,360 39,916 30,840 36,218 43,112

f77,675

The increased importation of bauxite during 1901 and 1902, as compared with the quantities annually imported prior to these years, was due mainly to the low ocean freight rates from foreign ports. Practically the entire quantity of bauxite imported was derived from the south of France at an average ocean rate to New York, Philadelphia, or Baltimore of $2.25 per ton, which, with the duty on bauxite of $1 per ton, allowed the ore to be laid down at a c-ost at the mine of $3.25 per ton. This cost, contrasted with the freight rates from Georgia or Alabama of $3.85 per ton to Philadelphia and $5 or more per ton to Boston, shows that the French ore can be delivered to seaport cities more cheaply than the domestic ore. The high percentage of iron in the French bauxite precludes its for the manufacture of aluminum sulphate. It is consumed mainly for making aluminum hydrate, which is used in the manufacture of metallic aluminum.

World&#x27;S Production.

The following table shows the world's production of bauxite in 1900 and 1901:

Worlds production of bauxite in 1900 and 1901.

Country.

Quantity.

Value.

Quantity.

Value.

United States

Metric tons.

Metric tons. 19,207 76,620 10,357

France

United Kingdom

Total

Aluminum Salts.

The principal salts of aluminum are aluminum sulphate and crystallized alum, for the manufacture of which bauxite and Greenland cryolite are consumed. The Pennsylvania Salt Company possesses the exclusive privilege of importing cryolite into North and South America. In 1902 the production of aluminum sulphate was 84,075

Mineral Re801Tkce8.

short tons, valued at $1,938,671, as compared with 74,721 short tons in 1901, and that of crystallized alum, 8,539 short tons, valued at $229,500, as compared with 7,755 short tons in 1901. The companies producing one or both of these salts during 1902, in the order of output, are: The General Chemical Company, the Pennsylvania Salt Company, Harrison Brothers, the Cochrane Chemical Company, Charles Lennig & Co., the Erie Chemical Company, the Detroit Chemical Company, and the Merrimac Chemical Company. In addition to the above list, the following companies will probably be producers during 1903: F. E. Atteaux & Co., Superior Chemical Company, and the Jarecki Chemical Company.

The production and imports of alum and aluminum sulphate into the United States from 1898 to 1902, inclusive, are given in the subjoined table:

Production and imports of alum and aluminum gulphale into the United SUttesj 1898-1902.

Production.

Year.

Alum.

Aluminum sulphate.

Short tons.

Value.

Per ton.

Short tons.

Value.

Per ton.

Short tons.

Value.

Per ton.

18

fr893

M,169

a Includes alumina, alum, alum cake, aluminum sulphate, aluminous cake, and alum in crystals or ground.

6There was also imported in 1898, 1,205 short tons ($76,884) of aluminum hydrate, or refined bauxite: in 1899, 1,926 short tons ($119,202); in 1900, 2,207 short tons ($148,832); In 1901, 1,966 short tons ($146,462); and in 1902, 339 short tons ($21,235).

Platinum.

By Joseph Steuthers.

Production.

The production of platinum in the world ranges annually between 160,000 and 170,000 troy ounces, about 90 per cent of the total output being obtained from Russia and the remainder coming mainly from Colombia, South America. Unfortunately in the latter country the revolutions prevalent in recent years have seriously hindered the development of this important industry.

The production of platinum from domestic ores in the United States during 1902 was 94 ounces, valued at $1,814, as compared with 1,408 ounces, valued at $27,526 in 1901, a notable decrease, although but slightly less than the output in 1894. The total annual production of platinum from domestic ores is a small portion only of the total domestic consumption. The production during 1901 was the largest annual output on record since statistics of platinum produced from domestic ores were first compiled in 1880. The next largest output was in 1890, when 600 ounces, valued at $2,600, were produced.

In connection with the production of platinum from domestic ores during 1902 there were obtained also 20 fine ounces of iridium, as compared with 253 ounces in 1901. Iridium is so closely allied to platinum in its physical and chemical properties that doubtless it has foi-med from 15 to 25 per cent of the platinum production reported in earlyyears.

The domestic supply of platinum in recent years has been obtained as a secondary product chiefly from gold placer deposits in Trinity and Shasta counties, Cal. The occurrence of the metal has been reported in many other gold placers of California, as well as in Washington, Oregon, Idaho, Montana, Colorado, and Alaska; the deposits have not been sufficiently rich, however, to place the extraction of the metal on a profitable basis. There have been very few new

reports of discoveries of platinum during the year, among them being the occurrence of the metal in the auriferous sands of the Corozal River, Porto Rico. The Rambler mine, near Encampment, Albany County, Wjo.j continues to attract attention, and one or two other mines in that region claim to have covellite (CuS, copper monosulphide) carrying sperrylite (PtAs,, platinum diarsenide) in the ore. Nothing has been done to extract the metal on a commercial scale. A second district of interest is at Kerby, near Grants Pass, Josephine County, Oreg., where the Waratah Minerals Company operated a concentrator for the treatment of platinum ores. A considerable quantity of the metal was collected during the year, but was not put on the market. Samples of earth from the region of the Grand Canyon of the Colorado, supposed to contain platinum, were examined by Dr. David T. Day. The material contained white pyrite, which has the appearance of platinum, but no platinum whatever was found on analysis. The reported occurrence of platinum in commercial quantities on an island in the Lake of the Woods, 12 miles from Rat Portage, has not been verified. Efforts have been made recently to extract the metal from the nickel -copper ores of the Sudbury district, Ontario, Canada. So far, the experiments have not been reported as successful. It is within the range of probability that platinum associated with chromite will be found in place in the basic magnesium rocks of (California and Oregon as well as in peridotite, the basic magnesium rock of North Carolina, Georgia, Pennsylvania, and Maryland, which frequently contains chromite. An interesting occurrence of platinum is noted by Prof. James F. Kemp" in the ash of Australian coal of the following analysis:

Analysis of the ash of Australian coal.

Per cent.

Carbon 65.2

Hydrogen 4. 6

Oxygen 21 . 8

Nitrogen 1.9

Sulphur 3. 8

Water 7

Ash 1.7

Total 99.7

The ash contains 25.1 per cent vanadium and 3.6 per cent platinum metals, which makes the coal the richest platinum ore yet discovered.

The following table gives the production of crude platinum in the United States from 1880 to 1900, and of refined metal from domestic ores during 1901 and 1902, which shows the extremely small proportion of the domestic consumption supplied from domestic sources:

a Bull. U. S. Gcol. Survey No. 198, 1902. p. 36.

Ic

Platinum.

Production of erode platinum in the United States 1880 to 1900, and of refined metal from

domestic ores in 1901-2,

Year.

Quantity.

Value, a

Year.

Quantity.

Ouncci.

Value, a

oThe chief variations In price have heen due to the quality of the crude grains. In 1901 and 1902, however, the average price for the refined metal has been given.

Prof. James F. Kemp has prepared a very interesting and valuable report on The Geological Relations and Distribution of Platinum and Associated Metals.* The platinum deposits are classified into three types: (1) Placers, as exemplified by those in the Urals, Colombia, Brazil, and British Columbia. (2) Veins, as at Tilkerode in the Hartz; Minas Geraes, Brazil; Santa Rosa, California; Beresovsk, Russia; Gualdalcanal, Spain (with tetrahedrite and bournonite); and Rambler mine, Wyoming (sperrylite — platinum diarsenide — with covellite). (3) Disseminated in eruptive rocks, in two ways: {a) Sperrylite, with the copper-nickel ores in uralitized norite, Sudbury, Canada, and (i) the native metal in basic eruptive rocks, especially peridotites, frequently intimately associated with chromite.

The conclusions of practical value arrived at by Professor Kemp are: 1. That platinum is very sparsely distributed in the mother rock so that the chances of finding it in quantity sufficient to mine are small; also, if found, the recovery of the platinum other than by stamping and washing is yet to be solved; furthermore, the metal may be in a very finely disseminated state, and its extraction will necessarily be difficult. 2. Large and permanent placers may be sought only on very old land areas which have been subjected to protracted degradation and concentration. 3. In the assay of antimonial, arsenical, and other copper ores (especially tetrahedrite) it is advisable to search for small percentages of platinum. 4. Deposits of chromite should be tested for the presence of the metal.

The discovery of a use for osmium, which occurs to a considerable extent in the American platinum as the mineral osmiridium, will greatly benefit the platinum industry of the United States, as in the

a Bull. U. S. Geol. Survey No. 193,

M B 1902 16

past this element has interfered most seriously with the sale of the crude platinum product. The demand for osmium for the new Auer and Nernst incandescent electric lights makes it almost as desirable as platinum.

Imports.

The imports of platinum during 1902 were valued at $1,987,980,. distributed as follows: Unmanufactured, 632 pounds ($171,967); ingots, bars, sheets, and wire, 6,713 pounds ($1,778,395); vases, retorts, and other apparatus, vessels and parts thereof for chemical uses ($34,913); manufactures of, not specially provided for ($2,706). The imports during 1901 were valued at $1,695,895, distributed as follows: Manufactured, and ingots, bars, sheets, and wire, 6,226 pounds ($1,673,926); vases, retorts, etc. ($21,969).

Prices.

The uses of the metal would be greatly increased if it could be obtained in sufficiently" large quantity to lower the price. Unfortunately, for many purposes there is no metal to take its place, and the limited supply maintains the price almost equal to that of gold. The attempts that have been so far made to replace platinum by other metals or alloys have been Ineffectual; the demand for it has continued to increase; and as a result the price has steadily risen. During 1901, until May 15, the price in New York was $18.20 per ounce for ingot platinum, rising to $20 and $21 later in the year. In January, 1902, the price continued at $20 to $21, but fell in February to $19.50, and in June to $19, a figure which prevailed to the close of the year. Best hammered platinum was quoted as follows: January, 1902, 82 cents per gram; eJune, 76 cents; July, 74 cents; August, 73.5 cents; and December, 72.5 cents. Osmiridium is quoted, at from $6 to $10 per ounce.

Practically the price of platinum is determined by Johnson, Matthey & Co., of London, who refine a large proportion of the Russian output. There are two platinum refineries at St. Petersburg, where a part of the domestic product is treated; the greater bulk, however, is exported in the crude state. In Russia crude platinum is sold at from $3,090 to $3,605 per pood (1 pood equals 36 pounds); 1.25 poods of concentrates yields 1 pood of refined metal, valued at from $8,240 to $9,270; the cost of refining is $154.50 per pood. The accompanying metals — iridium, palladium, and osmium — are also recovered. In the period from 1884 to 1897, 1,833 poods of platinum costing 29,748,953 francs were exported to the United States and sold for 42,472,276 francs, the net profit being 42.7 per cent. The recently formed Franco- Russian Platinum Industry Company, which was organized to free the Russian industry from the control of foreign smelters, did not accomplish its aim, although its efforts resulted in raising the paid by the refiner for the concentrates to $8,240 per

Platinum. 243

PliATIIUM IN RUSSIA.

The Russian sources of platinum supply, which furnish at least 90 per cent of the total consumption of the world, are comparatively limited. The platinum-bearing areas extend along the eastern watershed of the Ural Mountains in Eastern Perm and along the western watershed farther south. Until within a few years the greater part of the Russian output was derived from the district of Nijni-Tagilsk; but at present it is obtained in the Goroblagodat and Bisersk districts, 130 miles to the north. The platinum occurs chiefly in the sands of the Tura, Tagil, Salda, Lala, and Loswe rivers on the boundaries of the district of Goroblagodat, as well as on the property of Count Schuwalow and on that controlled by the manufacturing works of Bogoslovsk and Demidow. The richness of the ore varies from a few milligrams to from 10 and 13 grams per ton. The depth of the platinum sands is about 1 meter, and the depth of the overlying turf is usually from 2 to 3 meters although in some cases it is from 10 to 14 meters. Generally the platinum grains are small, but an occasional lump is found. Apart from the occurrence of the metal in sands, it is found in slight quantities in native gold. Recently a discovery of platinum in place was made on the Martian River in the Nijni-Tagilsk circle, where the metal is found in peridotite, diallage, and in serpentine. It has also been reported in the gold sands of Birussia.

PLATINUM IN THE RAMBLER MINE, WYOMING. By J. F. Kemp.

Great interest was excited in December, 1901, upon the announcement by Prof. W. C. Knight, of the University of Wyoming, that the platinum group of metals had been detected in the copper ores' of the Rambler mine, Wyoming. The further announcement two months later by Professors Wells and Penfield,* of Yale University, that they had found in the ore and had separated from it sperrylite (platinum diarsenide), drew additional attention from scientific men to this unique occurrence. In consequence, the writer was requested by Dr. David T. Day to visit the locality and to prepare the following brief description of its geologic relations:

GEOIiOGY OF THE RAMBIiER MIKE.

Situation.

The Rambler mine is an old discovery which has been developed on a serious scale only within the last two years. It is situated in the Medicine Bow Range, Wyoming, near the headwaters of Douglas Creek, a tributary of the North Platte River. It is reached by stage which nins from Laramie, at first due west for about 30 miles across the open plateau, then turns southward around the shoulder of Sheep Mountain and follows up the Little Laramie River to the divide at the head of one of its tributaries, crosses this divide and reaches the sources of Douglas Creek. The mine is about 10 miles north of the Colorado line, and is located in the SW. i, sec. 33, T. 15 N., R. 79 W. The total distance from Laramie is about 45 miles, and the altitude is believed to be about 8,500 feet above tide.

Topography.

In the vicinity of the mine the topography is rolling and gentle. Mountain meadows, at times of considerable width, are traversed by brooks, while on the gentle slopes of the hills spruces flourish and afford the usual woodlands of the higher ranges. The roads are laid out through these forests. Down Douglas Creek, at a distance of 2

a Eng. and Min. Jour., December 28, 1901. & Am. Jour. Sci., 4th series, vol. 13, 1902, p. 96.

Platinum.

or 3 miles from the Rambler, the meadows cease, and the creek traverses a deep rocky gorge with precipitous cliffs. Almost the entire surface is by a capping of the products of weathering in the form of the so-called ''wash." Only rarely are natural outcrops

Iperidotile Granite Gneiss JUgiQuartzite

, Scale

Fig. 1.— Map of the Rambler mining district, Wyoming. Rl, R2, R3, R4, and Rfi meim Rambler claims 1, 2, 3, 4, and 5. The mine is on Rl.

of the country rock to be met. The extensive prospecting has, however, quite frequently cleared away the loose materials down to the bed rock, and, as the accompanying map shows, has served to reveal the essential rock formations which are present.

Geology.

Systematic observation in the area about the mine soon served to show that the commonest country rock in its immediate vicinity is a gneiss of the general mineralogy of granite. Its distribution and that of the other local formations are shown on the map, fig. 1. The gneiss is somewhat poorly foliated and is very badly broken by irregular sets of joints, which divide it into small angular fragments on the outcrops and in the prospects. Under the microscope, the rock exhibits in a still more pronounced WAy the effects of granulation. Central nuclei of the constituent minerals are surrounded by mosaics of fine grains.

Only rarely can a definite strike be obtained. Making a correction of 15° for the eastward declination of the needle, the following two cases were recorded: About 1 mile north of east from the Rambler, strike N. 70° W.; 4 miles farther, strike N. 62° E., dip 58° W. In the quartzite on Douglas Creek below the Douglas mine the strike is N. 35° W., dip 20° W. The strikes are therefore variable. Joints were recorded bearing N. 30° W. and N. 38°-40° W., respectively, a mile east and west from the Rambler. With the latter there was a minor set striking N. 60° E. In other respects the joints were too irregular to be considered of much significance. It is worthy of remark, however, that, so far as the streams appear on the map, they approximately follow one or the other of these directions.

Besides the gneisses which are so extensively developed near the Rambler mine, there are quartzites visible along Douglas Creek, near the Douglas mine. Likewise farther down, at the Kej'stone mine, there is more quartzite, forming the walls of the vein. Along the creek there is much gneiss and some eruptive granite, and east of the Keystone more granite appears again.

In addition* to the above varieties of rock and of more immediate importance in connection with the Rambler mine, there are in several places large dikes of dark and relatively basic rocks, which are in great contrast with those alreadj mentioned. The Rambler ore occurs in the outcrop of one of these dikes, and there is 'another along Douglas Creek, south of the Douglas mine, and one other northwest of the Cuprite claim. Though only exposed in a limited way, except in the second case, it will be assumed that these rocks constitute dikes of considerable size, and under this name they will be nore particularly described.

The Rambler Dike.

The Rambler dike is a dark, granitoid rock where revealed in the mine. It is a typical diorite in mineralogy. It consists of green hornblende as the chief component, with which is associated some

Platinum. 247

brown biotite. The hornblende contains many little inclusions of poikilitic quartz. Plagioclase is present in considerable abundance and from its extinction angles appears to belong in the labradorite or bytownite series. Apatite is likewise present in the usual relations, and pyrites and magnetite in more than the normal quantity. The last two appear in the perfectly fresh rock, so far as one may judge from the slides, and with no such evidence of alteration in the associated minerals as one would anticipate, if the sulphides were of later infiltration. The small metallic minerals especially appear in the dark silicates; they fail in the feldspars.

All around the Rambler shaft the surface is formed of loose wash. To the southwest, however, in the claims known as Rambler No. 2 and Alberta No. 1, dark basic rock is again encountered. The rock from Rambler No. 2 proves on microscopic examination to be a hornblende-peridotite of the marked poikilitic texture shown in the similar rocks of the Cortland series in the valley of the Hudson. The rock consists of green hornblende, olivine, and hypersthene, but the first and last are so thickly set with small augites as to be essentially large skeleton crystjils provided with inclusions almost greater in amount than the host itself. The rock may not belong to the same dike as the diorite appearing in the Rambler mine, but it probabl}' is a basic extension of it.

For nearly a mile to the north of the Rambler mine the bed rock is concealed by wash. On the north side, however, of a small brook and on the claims named Tinker No. 3 and No. 4, the dark basic rock appears again in a cliff which is roughly parallel with the brook. In thin section it reveals green, secondary hornblende, plagioclase, and magnetite, and it is obviously a crushed gabbro or diorite. Heavy wash covers the countr}' farther to the north, and no explorations were made in that direction.

It is impossible to say that the outcrops on the Tinker claims belong to the same intrusion as do the basic rocks at the Rambler claims, but it does appear that along a north-south belt from the Rambler No. 2 to the Tinker No. 4 the basic rock is met, and not elsewhere in this vicinity.

Somewhat over 2 miles to the southeast from the Rambler mine, and on a claim lying northwest from the Cuprite, there is another ledge of dark, basic rock, which appears, to the eye alone, to be the same as the peridotite on the Rambler No. 2 claim. It has not been examined microscopically.

The dike on Douglas Creek, just below the Douglas mine, shows about 30 feet of actual outcrop, and is then cut off by quartzite. Under the microscope it proves to be a diorite, with green hornblende, plagioclase, and magnetite. The hornblende is secondary and may

The above sketch of the geologic relations, fragmentary though it be, and based on scattered outcrops, nevertheless correctly gives what arc doubtless the main features of the local geology. An ancient series of much crushed, granitic gneisses is associated with assured quartzites, and both are penetrated by intrusions of granite, diorite, and peridotite. The ore which has thus far been discovered is in the area of a typical diorite, and does not appear outside of it. It remains to describe the local associations of the ore, which are peculiar and of great scientific interest.

Detaii Of The Ore Body.

The mine was first developed a short shaft about 88 feet west of the present one. The old shaft went down vertically about 30 feet, and then by incline eastward at an angle of to an oditional vertical depth of about 68 feet. It grounded at 98 feet from the surface. At a total depth from the surface of about 67 feet the incline struck rich ore. A level, called the first level, was run off to the south, and by it was developed a large bunch of so-called carbonate ore nearly 40 feet in diameter and doming upward to 30 to 35 feet. At this 67-foot level some minor drifting was done to the north and west in lean ore. The material through which the drifts and stopes were driven is kaolinized rock, much of it soft and plastic.

The new vertical shaft has been sunk in the wall rock at a point 88 feet almost due east of the old shaft. The first level from it, but really the second level of the mine, counting the level driven from the incline at the 67-foot point as the first level, was started at the same depth as the bottom of the incline, viz, 98 feet. This was driven westward about 30 feet, until it intersected the incline. A crosscut was then turned south for 16 feet, all through kaolinized materials, opening up within 12 or 15 feet a large stope of good ore. It was in part under the carbonate stope, but was not cut through to the latter. Its height was about 25 feet, and it developed in the kaolinized materials a large pocket of ore, whose horizontal dimensions were 30 feet north and south by 50 feet east and west.

From this stope a drift extends about 40 feet to the west, and then turns north through kaolinized materials, developing within 15 feet of the turn another large pocket of rich ore. It has been stoped out about 40 feet in length from north to south, by 25 feet in height and 12 to 20 feet in width. At the time of the writer's visit the kaolinized products, with one rich streak of covellite, formed the walls on all sides.

The third level of the mine has been turned off from the vertical shaft at a depth of 136 feet frorii the surface and 38 feet below the second level just described. It runs northwest for about 10 feet; then due west for about 55 feet. At 15 or 20 feet from lfeid IjBa cross-

u. s. oeolcxjIcal survey

Mineral Resources 1902 Pl. I

Polished Specimen Of Copper Ore From The Rambler Mine, Wyoming.

The dark mineral is covellite; the light, kaolinized feldsaagjtized by

Ic

Platinum. 249

cut has been turned north about 30 feet and another south about 20 feet. About 18 feet farther a second crosscut has been turned a little west of south and driven 30 feet. Its end was under the first stope mentioned on the second level, and a winze has been upraised to the latter.

No ore was cut in the third level, the walls heAng of much jointed and altered diorite. The change to chlorite was marked, and considerable pyrite could sometimes be noted in seams. It is possible, if the level were driven still farther west, with longer crosscuts south, so as to be under the stopes on the level above, that more ore might be found. It would, however, involve less uncertainty to follow the ore of the second level downward with winzes.

The fourth level is being driven from the bottom of the shaft, 177 feet from the surface, and again westward. Its 25 feet or so were all in fresh, unaltered diorite.

This ore body, therefore, presents some interesting and exceptional features. The usual vein minerals of the gangue, such as quartz, calcite, etc., are lacking. Instead we have over an area of nearly a hundred feet east and west and the same distance north and south, and we do not know to what extent bej'ond, the decomposition products of an eruptive dike in place. Whether a belt of shattering dips away to the west, along which alteration may be followed to still greater depths, is a question. This surmise would occur to an observer, but the proof is not at hand. Although it can not be denied that uprising waters may have served to decompose the rock and impregnate it with ore, it would seem more likely that a great dike of diorite originally charged with sulphides of copper and iron and with minerals involving the platinum group of metals has suffered from atmospheric weathering. The presence of the sulphides has facilitated its extensive alteration, and the secondary minerals thus formed have descended and become precipitated so as to impregnate and enrich the residual kaolins. A line of shattering and consequent alteration may have facilitated the process.

The presence of the platinum metals in an eruptive and moderately basic dike is thus in accord with experience gained elsewhere. The sperrylite separated by Professor Penfield from the covellite would then be in similar situation and relations to that from the Sudbury nickel-copper mines. From the chalcopyrite of the latter it has been separated by one of the writer's students, Mr. C. W. Dickson, as described in the American Journal of Science.

The texture of much of the ore, as is illustrated in PI. I, shows that the dark minerals of the diorite have been replaced by covellite, while the feldspar has been changed to some alteration product, whose appearance suggests kaolin. This ore presents the familiar textures

aAm. Jour. Sol.. 4th series, vol. 15, 1908, p. 187.

of the diorite, but they have not always been so well preserved. On the contrary, streaked masses of chalcopyrite and chalcocite are occasionally to be seen, and much cellular and open-textured covellite. Opaline silica was obtained in the midst of the kaolin in one stope. Further alteration has developed the blue and green carbonates of copper and the red oxide, and also much limonite.

The chemical changes involved in the above replacements deserve further investigation, but this the writer has not yet had opportunity to make, and he has entrusted them to C. W. Dickson, Ph. D. The geological relations appear to be equally unique with the occurrence of the platinum metals.

Ciordial thanks are due to Mr. Avery T. Holmes, the president of the company, and to Mr. J. T. Halliday, managing director, for every facility in the study of the mine. Acknowledgments should also be made to Mr. Frank Halliday for much assistance in the field work.

Note. — Since the above was written Dr. C. W. Dickson has treated, at the writer's request, 1,000 grams of covellite from the Rambler mine with nitric and hydrofluoric acids, after the manner followed by Professor Penfield, in the hope of obtaining an appreciable sample of sperrylite, which in this case no doubt contains palladium. Only three or four minute crystals resulted, apparently not as many as the assay values would lead one to anticipate. The Rambler ore-seems to have less of it platinum in this form than does the chalcopyrite of Sudbury, Ontario.

Quicksilver.

By Joseph Struthers.

Production.

The production of quicksilver in the United States during 1902 amounted to 34,291 flasks of 7H pounds each, valued at $1,467,848, as compared with 29,727 flasks, valued at 11,382,305, in 1901, an increase in quantity of 4,564 flasks and in value of $85,543. California contributed the greater part of the output, amounting to 28,972 flasks, as compared with 26,720 flasks in 1901. Texas reported 5,319 flasks, as compared with 2,932 flasks in 1901, both States thus showing an increase in the production above that of the preceding year. Oregon, which furnished 75 flasks in 1901, reported no production during 1902, the quicksilver-mining operations in that State being limited to development work.

California.

Cinnabar, or mercury sulphide (HgS), occurs widely distributed over the entire State of California. At present, however, the deposits of commercial importance lie within the Coast Range and are limited to an area bounded by Trinity County on the north and San Luis Obispo County on the south, both inclusive. During 1902 the mines in San Benito, Napa, and Santa Clara counties contributed nearly 20,000 flasks of the total of 29,199 flasks for the State. The chief producing companies during 1902 were, in the order of their outputs, as follows:

New Idria Quicksilver Mining Company San Benito County.

The Quicksilver Mining Company Santa Clara County.

Napa Consolidated Mine Napa County.

Karl Quicksilver Mining Company San Luis Obispo County.

Boston Quicksilver Mining Company Napa County.

Great Western Mine Lake County.

Empire Consolidated Quicksilver Mining Company Colusa County.

Great Eastern Quicksilver Mining Company Sonoma County.

The largest increase among the individual companies in the quantity produced during 1902 was that of the New Idria Quicksilver Mining Company, which reported an output nearly 2,500 flasks greater than that of 1901. In percentage of output the Karl Quicksilver Mining Company, of San Luis Obispo County, stands the highest, its production during 1902 amounting to four times that of the preceding yeai*.

a In addition to the quicksilver, there were produced but not treated nor marketed of cinnabar, or erode, in California 10,427 short tons, valued at 167,242, and in Texas 1,800 short tons, valued at $15,000.

Of the eight compaDievS mentioned in the preceding list, three reported a decreased output during 1902, which, however, was more than counterbalanced by the increased production of the remaining five companies, the net gain being almost flasks.

Several new mines were added to the list of producers during the year, those of an output of 100 flasks or more being the Helen mine, in Lake County; the Mercury Mining Company, in Sonoma County, and the Silver Creek mine, in Santa Clara County.

Other new companies reported to have begun operations in 1902 are the Montei-ey Quicksilver Mining Company, near New Idria, San Benito County; the Modoc Chief mine, 18 miles east of Reading, Shasta County; the Mariposa and Elizabeth mines and the Uncle Sam and Eureka quicksilver mines, near Cambria, San Luis Obispo County, and the Summit, Adobe Valley, and Orestimba properties, in Stanislaus County. Deposits of good grade cinnabar ore are reported 25 miles southeast of Cedarville, in Modoc County, which is in the extreme northwest part of the State, an entireW new section for cinnabar. The claims here have not been sufficiently developed to prove the commercial value of the property.

The following detailed review of the progress in quicksilver mining in California during 1902 has been contributed by Mr. William Forstner:

The quicksilver industry in California during 1902 has continued to experience a slight improvement in so far that there appears some desire to reopen a few more of the old mines and that capital, more especially from California, is to some extent invested in these undertakings. The old mines appear to hold their own, some with a steadily increasing output, as, for instance, the New Idria. The price of quicksilver in San Francisco, although not high, has been sufficient to render the operations in most mines profitable.

CalvMi County. — Mr. G. V. Northey, at the Manzanite mine. Sulphur Creek, has permanently established the fact that wet concentration is not only feasible, but can be made very profitable.

Lake CourUy. — The Sulphur Bank and Abbott mines, belonging to the Empire Consolidated Quicksilver Mining Company, have suffered from the litigation in which the company has lately been involved. The Great Western mine is continuing its regular output and developing its mine for future working. The Standard Company is still working the Bullion mine, and Mr. A. Rocen is opening the Helen mine, with a fair promise of success.

Napa County. — At the Oathill mines one of the t'wo furnaces has been entirely renovated, and the adjacent Corona and Twin Peak mines both produce quicksilver. In the iEtna mines prospecting work to determine the future of the property is being actively prosecuted. In the Knoxville district, the old Redington mine, now the Boston, has been reopened and is a steady producer; the Manhattan also is steadily operated and producing.

San Benito County. — The New Idria mine has entered upon a new era of prosperity, producing about 160 tons per day and having a great quantity of ore available. In the Cerro Benito mine some work has been done to reopen the jold workings, and the old furnace has been rebuilt. In the Picacho mine development work has been

iC

Quicksilver. 253

San Luis Obitpo County, — Considerable activity is shown in this county. The Karl mine is a steady producer, and the Oceanic, where the new Scott furnace has been recently put into operation, promises to become the same. Furthermore, development work has been actively pushed on a large number of smaller properties, as, for example, the Alice, Modoc, Libertad, Madrone, and Pine Mountain mines, while others have changed hands and been purchased or bonded by parties who intend active operation. The Stayton mine is being reopened by its former owners.

Sanla Clara County. — The New Almaden mine continues to be a large producer, and the Guadalupe mine is producing quicksilver from the works near the surface and seriously endeavoring to unwater the mine. At the Santa Teresa mine a new Scott furnace is in course of erection. The Summit mine, on the line of Santa Clara and Stanislaus counties, has recently passed into the hands of a corporation formed by the previous owners, which is also starting the erection of a Scott furnace.

Sonoma County. — A number of old mines were reopened during 1902 in the Pine Flat district. The Crown Point is reopening the old Sonoma mine; the Pacific Company has done sufficient work on the property adjoining that of the Crystal Company to justify the erection of a furnace, which will be installed during 1903. The Cloverdale is steadily operating its 7-ton furnace; the Culver Bear will begin to treat ore in its new modified Livermore furnace; the Great Western, near Guerneville, still continues to be a regular producer, and the Socrates has been producing during the last four or five months.

Trinity County. — The Altoona property is again producing quicksilver from the surface works and dumps; the Boston and Integral Companies and several minor concerns are steadily engaged in development work.

FremOf KingSj and Monterey counties. — Progress of more or less merit is being made on a number of prospects in these counties.

Under ordinary circumstances quicksilver can be produced in California at a cost of $3 per ton of ore mined and smelted, which makes it possible to work profitably ores averaging from 0.3 to 0.6 per cent of quicksilver, and occasionally ores of lower grade. The cost of producing quicksilver from the average mine in California equipped with a modern furnace plant is stated to exceed $35 per flask, not including interest on capital invested and the cost of development work. Despite the fact that the greater well-known quicksilver mines are in a measure exhau ted, it is practically assured that the future production of quicksilver in the State will occupy a prominent position of economic importance for many years to come. It is not probable that other mines equal in extent to the New Almaden or the New Idria will be discovered, yet, on the other hand, there are numerous smaller mines throughout the State, many of which contribute an output of from 20 to 300 flasks a month. Ten years ago it was the general belief that the New Idria, iEtna, Oat Hill, New Almaden, and other prominent mines were practically exhausted, a pessimistic view which has been disproved, as the production from these properties still continues to be an important factor in the total output of metals in the State.

California has produced nearly the entire output of quicksilver in the United States, and the subjoined table has been compiled to show the total product in that State from 1850 to 1902, inclusive. In the period of fifty-three years covered by this table the grand total of

Mineral Besoubces.

production has amounted to 1,913,031 flasks of 76i pounds net, which makes an average of 36,095 flasks per year. Of this quantity, one mine alone, the New Almaden, in Santa Clara County, has produced more than 50 per cent. The greatest activity in quicksilver mining in California was from 1875 to 1882, when an average of 64,000 flasks a year was produced. Since 1883 the production has approximated 30,000 flasks a year.

Total prodtidion of quicksilver in California 1860-190. [Flasks of 764 pounds net.]

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

' 1877

18W

a33,825

a Includes 65 flasks from Oron.

The production of quicksilver in California, by counties, for 1901 and 1902 is given in the subjoined table, permission to publish the production by individual mines having been withheld:

Production of quicksilver in California, by counties, during 1901 and 1902. [Flasks of 761 pounds net.]

County.

Quantity. Value. .Quantity. Value.

Colusa

Lake

Napa

San Benito

San Luis Obispo .

Santa Clara

Solano

Sonoma

Trinity

Total

f 10, 575 211,324 388,176 242,300 41,513 236,608

Quicksilver. 255

Oregon.

There was no production of quicksilver in Oregon during 1902, as compared with 75 flasks in the preceding year. Prospecting has been quite active and considerable development work has been accomplished at several properties. The smelting furnace of the Blackbutte Quicksilver Mining Company, at Blackbutte, Lane County, which furnished the output during 1901, was not operated during 1902 owing to delay in rebuilding the condensing plant.

Texas.

The production of quicksilver in Texas during 1902 was 5,319 flasks, valued at 1239,350, as compared with 2,932 flasks, valued at $132,438, in 1901, which shows a very active development of the industry in this State; the entire output for both jears was made by the Marfa and Mariposa Mining Company, operating at Terlingua, Brewster County. The total quantity of quicksilver produced since the inception of the industry in 1900 aggregates 9,001 flasks. According to Mr. B. F. Hill, in Bulletin No. 4 of the University of Texas Mineral Survey, cinnabar occurs in the Terlingua mines either in hard and durable limestones or in soft and friable argillaceous beds. In the Excelsior claims the quicksilver occurs mainly as cinnabar, but small quantities of native mercury, calomel, and terlinguaite (a new mineral species consisting of mercury oxychloride), are also found. A 10-ton Scott furnace to treat these ores was erected in August, 1900, by Messrs. Norman, Sharpe, and Golby (who formed the Marfa and Mariposa Company in February, 1901), and a second 10-ton furnace was installed early in 1902. The Terlingua Mining Company built a 40-ton Scott furnace in 1902, which, however, was closed down shortly after it was completed. The Colquit Mining Company is building a 10-ton Scott furnace to treat the ore from the Excelsior mines, which occurs in the veins from 8 inches to 3 feet in width and in occasional pockets. The operations of this company have been limited mainly to the surface. The present treatment of the ore consists in hand sorting, crushing to lumps of from 1 to 2 inches in size, and conveying by belts to the ore bins above the level of the top of the furnace. The crushed ore is charged into the furnace through hoppers. The greater part of the ore is oxidized or treated with lime in a Scott continuous furnace, a small quantity only being distilled directly in retorts.

Prices.

There was no very great variation in the average prices of quicksilver at San Francisco during 1902, the range being given by months in the table following based upon sales of 29,500 flasks during the year for both home and foreign consumption.

Average price of quichnlrer, per flask, cU San Francisco during 1901 and 190g, by months.

Price.

January $47. 25

February ; 47.00

March ' 46.75

April 46.26

May 46.76

June ' 47.60

July I 48.00

Price, j $46.80 46.00 '

August

September .

October

November . December..

Average.

Price.

Price.

The lower avemges during 1902, shown in this table, indicate the periods of largest sales for export; the higher averages indicate periods of sales for domestic consumption.

The average monthly price of quicksilver, per flask, at New York

during 1902 was $48.37 for January and $48 for the remainder of the

vear.

Imports.

Compared with the total production of quicksilver in the United States the quantity imported during the last ten years has been inconsiderable, as would naturally result from the fact that during this time about one-half of the domestic product has been exported. During the last five years the quantity of quicksilver imported has been merely nominal.

The following table shows the quantit}* and value of the imports of quicksilver from 1867 to 1902, inclusive:

Quicksilver imported and entered for consumption in the United State.% 1867-190S.

Year ending-

Quantity.

Value.

Year ending-

Quantity.

Value.

June 30—

Pounds.

December 31— ! 1886

Pounds.

8a5

niniti/Rd

a Not stated.

Quicksilver. Exports.

Many causes are operative in affecting prices at which quicksilver is sold, the two most important factors being quantity and whether the sale is for home consumption or for export. Quicksilver sold in this country for export must compete in all foreign markets with the European product, and hence brings the lowest prices. These prices, too, are varied by rates for transportation from the various entYy ports of consumption in competition with the European product. Higher prices, for instance, are obtained at western coast ports of Mexico than at interior points of consumption adjacent to railroads.

The following table gives the exports of quicksilver from San Francisco only during the year 1902, amounting to 8,913 flasks, valued at $383,578:

Exports of quicksilver from San Francisco during by countries. [Flasks of 76| pounds.]

Country.

Quantity.

Value.

S186, 750

Mexico

Alaska

Colombia

Salvador

Total

As stated above, during the last ten years nearly one-half of the total product of quicksilver in the United States has been, exported. Since 1880, when the records of the exports of quicksilver were first kept, the exports have greatly exceeded the imports, except during the years 1886 and 1890. In the following table the quantity and value of quicksilver exported from the United States are given, the quantities being expressed in flasks of 76 pounds net. Previous to 1901 nearly all the quicksilver exported was shipped from San Francisco, but during that year only 6,479 flasks of the total of 11,219 flasks exported were shipped from that port, practically the entire export being consigned to Mexico and Central America.

M R 1902 17

Mineral Resources.

Ej-ports of quicksilver from the IJniied Slateti, 1880-1902. [Flasks of 76} pounds net]

Year.

Quantity.' Value.

Year. Qnautitv.

Value.

f 133. 626

18W

WORIiD'S PRODUCTION AND VAIilTK.

The following table gives the production, in metric tons, and the value of quicksilver in various countries in the years 1899, 1900, and 1901:

Worlds 8 production and value of quicksilver tn 1899 1900 and 190

Country.

Quantity. Value. ;iuantity.l Value. [Quantity. Value.

United States .

Austria

Italy

Russia

1,057 I 91,462,746 536 I 492,021 205 i 246,000 862 321.814

Spain ' 1,361 I 1,481,229,

Total.

8,521 I 3.998,809 3,152 , -3,577,444

a Mexico exported 324 tons of quicksilver in 1899, 335 tons in 1900, and 886 tons in 1901. b Statistics not yet available.

Ic

Jlithium.

By Joseph Hyde Pratt.

Sources And Occurrbncb.

The two minerals that are mined as a source of lithium salts are lepidolite and spodumene. There is, however, another mineral, amblygonite, mentioned in the report for 1901, that will shortly be used for the same purpose. "

The deposits of lepidolite at Pala, San Diego County, Cal., continue to be the largest producers of lithium minerals in the United States. The nearest railroad points are Temecula, on the narrow-gage railroad, and Oceanside, on the Santa Fe Railroad, which are 12 miles and 22 miles, respectively, from Pala. The development work that has been done on the claims in the vicinity of the old Stewart claim, which at the present time is the chief producer of lepidolite, has shown the occurrence of this mineral, either as float pieces or in place, for a distance of over a mile.

One of the interesting results of this development work, as was stated in this report for 1901, has been the discovery of large deposits of amblygonite, a lithium phosphate. This mineral has proved to be nearly as continuous as the lepidolite, and was first discovered during the work on the Stewart claim. The lepidolite gave place to a whitish mineral, and it was at first supposed that the lithium minerals had been worked out in the direction that the mining was being carried on; but, upon testing this white mineral, it was found to contain a higher percentage of lithia than the lepidolite. A subsequent analysis identified the mineral as amblygonite.

Minebal Be8Oub0Es.

Analyses of amblygonite and lepidolite from Pala, made by Rudolph L. Seldner, of Brooklyn, N. Y., are given below:

Analyses of amblygonite and lepidolite from Pala, San Diego County, Cal,, 190£,

Constitaent.

Amblygonite.

Lepidolite.

Silica

Phosphorus pentoxide

Alumina

Iron oxide

Lime

Potash

Soda

Undetermined f chiefly manganese) .

Percent. Trace.

Percent,

Trace.

a Small amount.

The discovery of this large occurrence of amblygonite opens a new source of lithium salts, for the production of which it is to be utilized.

The width of the vein or dike carrying these minerals is about 30 f eet and it has been opened by means of tunnels and cuts. It is very probable that the deposits can be best worked by quarryitig.

Recently most of the claims known to contain lithium minerals have been brought under the control of the American Lithia and Chemical Company, of which Mr. William H. Crane, of New York, is president. Others who own claims in this vicinity upon which lithium minerals have been found arje Mr. Ed. Fletcher, of San Diego, Cal., and Messrs. Gay and Blakely, of Redlands, Cal.

The only locality where spodumene was mined during 1902 is at the Etta mine, in the Black Hills, South Dakota. Other mines in this vicinity that are known to contain spodumene in some quantity are the Sunday, the Golden Star, the Traction, and the Bob Ingersoll. It has also been found in some quantity at Branchville, Fairfield County, Conn.

Lithium is used almost exclusively in the form of the carbonate in the preparation of mineral waters for medicinal purposes and in the manufacture of effervescing lithia tablets. It has been estimated that 66,000 pounds will represent the annual consumption of lithium salts in the United States. To produce this amount, considering it all as carbonate (LigCO,), would require 371 tons of mineral containing at least 3 per cent of lithia (LijO). It will be seen from the above there is but a small proportion of the lithia minrybj

required to supply the home consumption of the lithium salts, and that the larger market will be found abroad. If the price of lithium carbonate can be reduced sufficiently, there should be a large demand for it, or for lithium nitrate, to be used in pyrotechnics for red fire.

Production.

The amount of lithium minerals produced in the United States during 1902, as reported to the Geological Survey, was 1,245 tons, valued at $25,750 at the railroad. This is a decrease of 505 tons in quantity, and of $17,450 in value, as compared with 'the production of 1901, which was 1,750 tons, valued at $43,200. The value of the lithium minerals varies with the percentage of lithia and the character of the mineral. As far as can be ascertained, the greater part of the lithium minerals mined during 1902 has not been shipped. Although the price of these minerals was lower in 1902 than in 1901 for the same grade of mineral, there was apparently no increase in the home demand. There is, however, an increase in the demand for these minerals from foreign chemical manufacturers. The American Lithia and Chemical Company, which has recently been organized, expects to erect a plant on the Pacific coast for the manufacture of lithium salts and other chemical compounds. As this company will also be a producer, there should be an increase in the home consumption of these minerals.

Imports.

Over a third of the lithium salts used in the United States are imported, and in 1902 the imports amounted to 21,216 pounds, valued at $22,951, or a little over $1 per pound. This importation included 5,530 pounds of lithium carbonate, valued at $8,088, and 15,686 pounds of other lithium salts, valued at $14,913.

Ic

Nickel And Cobalt.

By Joseph Hyde Pratt

Introduction.

The two metals, nickel and cobalt, are treated together for the reason that nearly all the ores that contain one of these metals contain also a small percentage of the other. Furthermore, in the reduction of the ores of these metals both the nickel and cobalt go into the matte which is afterwards refined. The Canadian nickel ores, which furnish most of the nickel used in this country, are smelted at the mines, but the resulting matte is for the most part shipped to the United States and England for refining, the greater part being sent to this country.

There has been a slight increa?e in the demand for .cobalt and at a slight advance in price, but the demand for salts of this metal is still limited, and there could readily be an overproduction. The demand for nickel still remains firm, and with the increased uses for it there should be a still further demand.

Occurrence.

In addition to the nickel and cobalt occurrences described in the report for 1901 there is an occurrence in Idaho that has attracted considerable attention on the Pacific coast. The deposits are on Meadow Creek, Blackbird district, Lemhi County, but on account of their distance from railroad transportation they are being but little developed. The minerals are in the form of sulphides, but it is not definitely known as yet what values in nickel and cobalt the ores will carry. Dr. A. H. Franklin, president of the Blackbird Mining Company, writes that in one of their properties they encountered a streak of ore on the foot wall 2 feet wide, which assayed 20 per cent of cobalt, no statement being made regarding the nickel contents.

Mr. William Beddig, of Nampa, Idaho, who has been prospecting in the nickel fields of Oregon, has located what he considers promising deposits, and during 1902 he took out about 6 tons of ore, which were shipped for experimental pui-poses.

The North Carolina nickel deposits near Webster, Jackson County, have been worked during the last year, and several carloads of ore were shipped for experimental purposes. As described in the last report, this nickel ore occurs in a peridotite rock in the form of the mineral genthite or gamierite, a variety of genthite. Good results are claimed from the development work thus far done. The mineral itself carries a good percentage of nickel, but it is not yet known what the ore will carry. It does not occur in defined veins, but as thin seams, filling the crevices and cracks in the rocks from which it has been leached.

It is rumored that the Gkip nickel mine, in Lancaster County, Pa., which formerly produced a considerable amount of nickel ore, will be reopened and explored for nickel-ore bodies that are still believed to exist in it. Since the shutting down of this mine there has been little or no nickel or cobalt produced in the United States, except from Mine La Motte, in Missouri, which is an important lead mine.

Practically no work was done in 1902 on the deposits of nickel and cobalt in Oregon, Washington, Wyoming, Nevada, and Arizona, beyond the necessary assessment work. In most cases the deposits are too remote from railroad transportation to make them available at the present time.

At the Mohawk mine, in the Lake Superior copper district, Michigan, an arsenide of copper, nickel, and cobalt has been found in some quantity, and it is said to have been treated successfully by the company at their smelter at Hackensack Meadows, N. J.

Nearly all the nickel used in the United States is obtained from the large mines in the Sudbury district, Canada, and from the mines of New Caledonia, an island belonging to France, in the Pacific Ocean, off the east coast of Australia.

Uses.

New uses are continually being devised for nickel, and in addition to those enumerated in the report for 1901 should be added the growing demand for nickel-steel rails. These have been tried for a number of years at Cumberland Gap and have given the best satisfaction. The initial cost of rails of this character is considerably more, but it is claimed that they will outlast three ordinary rails. Another use that is being favorably considered is the manufacture of a nickel-steel wire rope. It would be less corrosive and have more tensile strength than the ordinary steel wire ropes used at present.

The use of nickel in the manufacture of dies and shoes in stamp mills should also receive favorable consideration. Mr. R. S. Tappenden, in The Iron Age, July 17, 1902, states that the fact that a fracture in nickel steel is not nearly so liable to increase in size as in common

a Western Min. World, Oct. 25, 1902. jigitized by Vj UV IC

Niokejl And Cobalt. 265

steel will tend to increase its use to a much larger extent in our merchant marine. .The Nickel Steel and Forge Company, of Philadelphia,* is erecting a plant in Carnegie, Pa., for the manufacture of a nickel steel that will contain a sufficient amount of nickel to make the alloy noncorrosive.

There is described in a British patent issued to Herr Kugel, of Berlin, a method of so depositing nickel electrolytically in layers of such thickness that the product is equivalent to rolled nickel in respect to its toughness, durability, and ductility.* The nickel solution is acidified with a mineral acid which is unalterable by the electric current, and it is prevented from spoiling the bath and causing the deposit to flake off by keeping the electrolyte at a temperature of over 30° C. A homogeneous noncrystalline metal is said to be deposited and may be put down in sheets of any required thickness.

An interesting article has recently appeared in the Electrochemical Industry on the "History and present development of electrolytic nickel refining," by Titus Ulke. A number of the different refining plants and their methods are described. He also discusses the proposed copper and nickel refining at Sault Ste. Marie by the Consolidated Lake Superior Company. In conclusion Mr. Ulke says:

In the processes for the electro-deposition of nickel with insoluble anodes no very recent progress has been shown. When the metal is re-covered on a large scale by the aid of soluble anodes the electrolyte is kept constantly at a predetermined degree of saturation and at the point of neutrality, on which condition largely depends the nature of the deposit and the commercial success of the process. When insoluble anodes are used in refining nickel, however, an equivalent of free acid is left in the electrolyte for every equivalent of metal deposited, and in consequence the nickel deposit is apt to deteriorate, the chemical and electrical conditions of the bath are changed, polarization ensues, and the resistance of the electrolyte increases. This, of course, means that the voltage and power required must be increased proportionately, and the cost of refining with insoluble anodes may thus become next to prohibitory, as compared with a similar process using soluble anodes. These and other difficulties have been the chief reasons why our electro-chemists, instead of making pure metallic nickel by electro-deposition, have preferred to work the nickel solutions into marketable sulphates, double sulphates, and chlorides, which have had a ready sale until recently, but which now seem likely to become a drug on the market, just as copper sulphate was before the adoption of electrolytic refining method&

Production.

Beyond the few carloads of nickel ore shipped from North Carolina, and the small amount from Oregon for experimental purposes, the only nickel and cobalt ores produced in the United States during 1902 were as by-products from ores obtained from Mine La Motte, Missouri. The 20 tons of matte containing these metals, which were refined at the works of the Mine La Motte Lead and Smelting Com-

a Am. Mfg., July 24, 1902. e Electrochemical Induatry, Vol. 1, Feb., 1903.

Mineral Besoubges.

pany, yielded 5,748 pounds of metallic nickel and 3,730 pounds of cobalt oxide. This is a decrease of 952 pounds in the production of nickel and of 9,630 pounds of cobalt oxide, as compared with 6,700 pounds of nickel and with 13,360 pounds of cobalt oxijle produced in

In the table following are shown the production and value of nickel obtained from domestic ores from 1887 to 1902, inclusive:

Production ofnickdfrom domestic ores in the United States, 1887-190$,

Year.

Quantity.

Value.

Year.

Quantity.

Value.

Pounds.

Pounds. 17,170 23,707 11,145 22,541 9,715 6,700 5,748

In the table following is given the production of cobalt oxide in the United States from domestic ores from 1869 to 1902, inclusive:

Production of cobalt oxide in the United States, 1869-190S. [Pound.s.]

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

a 18, 840 8,491

a Including cobalt oxide in ore and matte.

Nickel And Cobalt.

Canadian Production.

As most of the nickel vmed in the United States is obtained from Canada, a table is given below showing the amount' of nickel ore mined and smelted in Canada and the amount of matte obtained from it for the years 1896 to 1902, inclusive:.

Productimi of nickel in Canada, 1896-190£,<

Year.

I Ore pro- I duced.

Lo/ngiOfM,

Ore smelted.

Long torn. 73,505 121,924 171,280 211,960 270,380 288,338

Matte obtained.

Longtons. 9,733 14,034 21,101 23,448 46,184 24,691

Nickel In matte.

Pounds, 8,897,000 8,996,000 6,567,000 5,744,000 7,060,000 8,882,000

a Ab reported by the director of the bureau of mines, Ontario, Canada.

The final quantity of matte obtained and shipped for refinement in 1902 amounted to 24,691 long tons, this being but little more than one-half the amount of matte shipped in 1901, which was 46,134 tons. The nickel content of the matte shipped in 1902, however, was nearly 2,000,000 pounds greater than that shipped in 1901, the increase being due to the fact that a considerable proportion of the ordinary matte was re-treated and converted into a much higher grade of matte. There was also a certain amount of bessermerized matte produced by one of the plants, which does not make any low-grade matte. The total amount of this higher grade matte was 13,832 tons. This increase of 1,811,410 pounds in the production of nickel in 1902 illustrates the large growth in the nickel industry and the constantly increasing demand for the metal.

The Canadian Copper Company, of the International Nickel Company, is entirely remodeling its plant at Copper Cliflf, Ontario, Canada, at a cost of about $500,000. When finished, it will be the most complete and best equipped plant of its kind in the world. It will produce a high-grade matte, which will be refined in the United States.

Minebal Be80Ubge8.

Imports.

In the tables below are given the quantity and value of cobalt oxide and nickel imported into the United States since 1868, the larger part of the nickel being obtained from the Canadian mines:

CobaU oxide imported and entered for consumption in the United Slaieg, 1868-1902.

Year ending-

Oxide.

Year ending-

Oxide.

Quantity.

Value.

Quantity.

Value.

June 30-

Pounds.

December 31—

Pounds. 19,866 26,882 27,446 41,455 33,338 23,643 32,833 24,020 36,155 27,180 24,771 83,731 46,791 54,073 71,969

Nickel imported and entered for consumption in the United States, 1868-1902.

Year ending-

Nickel.

Nickel oxide, alloy of nickel with copper, and nickel matte.

Total Talue.

Quantity.

Value.

Quantity.

Value.

June 80—

Pounds,

Pounds.

a 194, 711

5,978 7,48& 10,496 38,276 17,933 22,906 19,015

a Including metallic nickel.

Ic

Nickel And Oobalt.

Ifickd imported and entered for consumption in the United States, 1868-1909— ContiDued,

Year ending-

Nickel.

Nickel oxide, alloy of nickel with copper, and nickel matte.

Total Value.

Quantity.

Value.

Quantity.

Value.

December 31—

Pounds,

Pounds.

ni7,864,887

i33,942,710

S141.546

n, 849, 620

i 1,437. 649

a 1141, 546

tf 138, 290

d 156, 331

a Including $465 worth of manufactured nickel.

Mncluding 9879 worth of manufactured nickel.

Including $2,281 worth of manufactured nickel.

Including $131 worth of manufactured nickel.

eClasslfled as nickel, nickel oxide, alloy of any kind in which nickel is the element or material of chief value.

/Classified as nickel and nickel matte.

9 Includes all nickel imports except manufactures; nearly all of this is nickel in matte from Canada containing about 20 per cent nickel.

*Ore and matte; in addition 455,188 pounds of nickel, nickel oxide, etc., were imported, valued at $139,786.

Including $209,966, the value of imports of 635,697 pounds of nickel, nickel oxide, alloy, etc., and $2,498, the value of Imported manufactures of nickel, not specially provided for.

/Besides nickel ore and nickel matte, these figures include 752,630 pounds, valued at $251,149, of nickel, nickel oxide, and alloys in which nickel is the chief constituent of value; and $30,128, the value of manufactures of nickel not specially provided for.

Although the importation of nickel in various forms in 1902 was over 83,000,000 pounds less than in 1901, the decrease in value of the imports was only $411,971. This decrease in quantit}' can readily be accounted for by the higher grade of matte shipped from the smelters and by the importation of a smaller amount of ore. This will also account for the proportionally small decrease in values.

Exports.

These figures do not mean that there was a smaller amount of nickel used in this country in 1902 than in 1901, for it must be taken into consideration that of the matte and ore imported a considerable amount is exported after refining. The amount and value of the nickel exported from the United States since 1894 are given in the following

-

Exports of nickel oxide and matte from the United States, 1894-1902,

Year.

Quantity.

Value.

Year.

Quantity.

Value.

Pounds. 1,235,588 1,061,285 2,766,604 4,255,566 5,657,620

Pounds. 5,004,877 5,869,906 5.869.655 3,228,607

a Last six months; not separately claasifled prior to July 1, 1894.

As is seen from this table, the exports were 2,641,048 pounds less in* quantity in 1902 than in 1901 and $696,712 less in value, which shows that there was proportionally a larger amount of nickel consuiiied in this country in 1902 than in 1901.

The International Nickel Company, which controls the refining of nickel matte in this country, also owns or controls some of the more important nickel deposits in Canada and New Caledonia, but does all its refining at the present time in this country.

Foreign Production.

There is given in the following table the production of nickel in Canada, France, and Germany from 1889 to 1901. The French production is from the New Caledonia mines, and the German from the New Caledonia and the Norwegian mines. In comparing this table with that of the nickel imported into the United States it must be borne in mind that the quantity given in the table of imports represents nickel matte, ore, etc., and not the metallic nickel as is given in the table below.

Production of nickel in Canada, France, and Germany, 1889-1902,

Year.

Canada.

Quantity. Value,

Pounds. 830,477 1,485,742 4,626,627 2,413,717 3,992,982 4,907,430 8,888.525 3,397,113 3,997.746 5,517,690 5,744,000 7,080,000 8,882,000 10.698.410

France.

Quantity. Value.

Metric tons.

Germany.

Quantity.

Metric totis.

Value.

uogle

Antimony.

By Joseph Struthers.

The process of smelting antimony ores and refining the metallic product is very difficult, and few metallurgists know the complete details of modem practice. Successful smelting, therefore, can be accomplished only under special conditions. This fact, together with the large production of the metal in foreign countries, the removal of the duty, in April, 1902, on ciiide antimony (which is partly refined antimony sulphide), and cheap ocean freight rates, precludes the profitable treatment of domestic antimony ores in the United States. The control of the production and trade in antimony continues to remain in the hands of Mathison & Co. , of London, which firm operates the smelting plant at Chelsea, Staten Island, New York., and the works of the affiliated concern, the Chapman Smelting Company, of San Francisco, Cal.

The sources of supply of antimony for consmnption in the United States are four in number, here given in the order of their importance:

1. Hard lead, derived from the smelting of foreign and domestic ores.

2. Regulus or metal imported into the United States.

3. Antimony ores imported into the United States.

4. Antimony ores from domestic sources.

The quantity of hard or antimonial lead produced in the smelting of foreign and domestic lead ores in 1902, was 20,970,000 pounds, containing approximately 6,808,000 pounds of metallic antimony, as compared with 17,878,000 pounds, containing approximately 4,469,600 pounds of antimony, during 1901. Hard lead is used for the manufacture of various alloys and is obviously an important source of the antimony consumption in the United States.

During 1902 the net imports of foreign antimony, as regulus oi refined metal, amounted to 5,388,739 pounds, valued at 1333,601, as compared with 3,640,505 pounds, valued at $254,529, for the year 1901.

The antimony content of all ores imported varies from 35 to 65 per cent, and for all practical purposes the average antimony content may be taken at 52.5 per centi Assuming a smelting extraction of 42 per cent, the quantity of antimony derivable from the net importation of foreign ores during 1902 was 1,314,000 pounds, as compared with 706,566 pounds in 1901.

The quantity of antimony metal derived from domestic ores during 1902 was nil, as compared with 100,000 pounds during 1901. The production of metal from domestic ores has always played a very unimportant part in the quantity of antimony needed to supply the consumption in the United States.

The aggregate quantity of antimony from the above-mentioned sources available as metal or as alloy in the United States during 1902 amounted to 12,510,739 pounds, as compared with 8,916,671 pounds, during 1901.

Antimony is used chiefly for making alloys with lead, tin, zinc, and other metals. The addition of antimony to lead increases its hardness up to twelvefold, and the addition of a small quantity (0.5 to 2 per cent) of bismuth to the lead-antimony alloy (type metal) causes it to expand at the moment of solidification, thus yielding a casting with clean, sharp faces, which is of special value in the manufacture of type. The most important alloys of antimony are: Type metal, composed of lead and antimony, with or without the addition of tin and bismuth; hard lead, produced in refining antimonial lead, containing genei-ally about 25 per cent antimony; britannia metal and pewter, used extensively for tableware, the former being an alloy of tin with from 10 to 16 per cent antimony and 3 per cent copper, and the latter an alloy of tin with a smaller content of antimony; antifriction metal, also called white metal and babbitt metal, which consists of antimony and tin, with the addition of small quantities of lead, copper, zinc, bismuth, and nickel.

The principal salts of antimony are tartar emetic, an antimonypotassium tartrate, used in medicine, and in dyeing as a mordant for vegetable fiber; antimony cinnabar, a fiery red colored pigment used in oil painting, consisting of antimony trisulphide with a small amount of antimony trioxide; and antimony pentasulphide, used as a red pigment for vulcanizing rubber.

The only antimony ore of commercial importance in the United States is stibnite, antimony trisulphide (SbjS,). Although many deposits of the mineral occur in the Western States, the production of metal from domestic ore has never reached an important position, the largest quantity produced in one year being but 295 short tons in 1895 in an estimated total production of 4,000 tons of metal from all

Antimony.

sources. Since 1895 the production of antimony from domestic ores has declined until there was practically none so produced in 1902, as compared with 60 short tons in 1901.

The annual production of antimony in the United States from 1880 to 1902, inclusive, is shown in the following table:

Pwductwn of metallic antimony from domestic and foreign ores and that contained in hard lead in the United States, 1880-190.

Year.

Contained In haid lead.a

Produced from foreign and domestic ores.

Total.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

ore 880

O460

O601

d408

d657

Short tons.

a Estimated at 25 per cent of the total quantity of hard lead produced from both foreign and domestic ores, except for the year 1902, when an average of 27 per cent was taken. b No statistics available. 0 Principally from imported ores. d Exclusive of foreign ores Imported and reexported.

Imports.

The subjoined table gives the aggregate quantity and value of antimony ore (including crude antimony) and metallic antimony (regulus) imported into the United States from 1867 to 1902, as reported by the Bureau of Statistics of the Treasury Department. An inspection of the table shows that the quantity of ore imported has increased from 116,496 pounds in 1893 to the maximum quantity of 6,089,134 pounds in 1900, a year in which there was a marked over-importation of both ore and metal. In 1901 the importation of antimony ore was 1,731,956 pounds, valued at $,266, of which quantity 49,656 pounds, valued at $1,536, were exported, leaving a net import of 1,682,301 pounds, M R 1902 18

Mineral Resources.

valued at $22,720. In 1902 the importation of antimony ore was 3,337,600 pounds, valued at $67,760, of which 208,531 pounds, valued at $4,602, were exported, leaving a net import of 3,129,069 pounds, valued at $62,968.

The imports of antimony as regulus or metal in 1902 were 5,425,923 pounds, valued at $336,311, of which 37,184 pounds, valued at $2,710, were exported, the remaining net import for 1902 being 5,388,739 pounds, valued at $333,601, as compared with 3,640,505 pounds of impoii;ed regulus or metal, valued at $254,529, in 1901.

Anlimony and antimony ore imported and entered for consumption in the IMUed States,

Year ending—

Metal and regulufi.

Quantity. Value.

Crude antimony and ore.

Quantity. Value.

Total value.

June 30, 1867., 1878.,

Dec. 31,1886.

Pounds.

Pounds.

M, 682, 301

a 18, 806

129,918 164,179 240,567 187,439 148,612 131,969 120,141 187,631 132,209 145,440 268,122 271,268 812,258 298,146 156,924 214,712 212,824 178,582 260,198 810,279 441,838 863,639 400,099 248,594 212,798 288,686 180,877 198,770 196,927 289,112 '868,806 278,066 896,669

a Includes 8737, value of ground antimony for which no quantity was given.

Antimony.

The large increase in the quantities of antimony regains and ore imported and exported during 1902 has been due to a peculiar condition of the freight rates from China, which, strangely enough, were about 10 shillings per ton from China to New York and 30 shillings from China to England. The freight rate from New York to England being about 10 shillings per ton, shipments were made first to New York, whence the metal was transshipped to England, and thus practically one-third of the cost of direct transportation was saved.

Consumption.

The consumption of antimony in the United States from 1880 to 1902 is given in the subjoined table, the imported ore being estimated to contain an average of 52 per cent antimony, and to yield 42 per cent of refined metal by smelting operations. Crude antimony, which is refined or concentrated ore and not metal, is included in the quantity of ore imported. Antimony regulus is taken as equivalent to the metal. The antimony contained in hard lead is calculated at 25 per cent, except for 1902, when an average of 27 per cent was taken.

Estimaied conmmpHan of antimony in the United SUxtes, 1SS0-19M,

Year.

im,

Contained

in hard

lead.

Sfiortions.

Short Uma.

Nil.

From imported ores and crude antimony.

Short Uma.

Imported metal or regulus.

Short tons, 1,010

Total.

Short tont.

al,oe7

a 1,615

al,775

ol,011

al,807

al,602

al,447

al,526

al,401

al,047

al,627

a2,200

a Not including antimony contained in hard lead, for which statistics are not ayailaUe. 5 Separation estimated. All antimony smelted, whether from domestic or foreign ores, was reported as of domestic production.

The decrease in the total quantity of antimony estimated to have been consumed in the United States in 1901, as compared with 1900,

Mineral Bb8Oub0B8.

was due to the very large overimportation of antimony ore and, to a less extent, of antimony regains in 1900. The above table shows the constantly increasing quantity of antimony obtained from foreign ores from 1898 to 1900, inclusive, which has been due mainly to the cheap ocean freight rates from foreign countries where the ores are mined and partly refined at a low cost.

The following table, showing the output and value of antimony metal of the world in 1901, has. been compiled from the official governmental reports of the respective countries:

WorlcPs production of antimony metal in 1901.

Country.

United Statesa .

Austria

France

Germanyo

Hungary

Quantity.

Short ions.

Value.

Country.

Italy.. Servia.

Quantity.

Short tofu. 1,896

Value.

a Does not include the antimony contained in hard lead. b Includes product of Algeria.

Prices,

o Includes manganese.

d Crude antimony and regulus.

From 1893 to July, 1897, there was a steady decline in the price of antimony, which dropped from 16 cents per pound for Cookson's brand to 7 cents. Beginning with August, 1897, the price began to advance, and in May, 1899, it reached 12 cents per pound, and then remained nearly constant throughout the rest of the year. During 1902 there was a slight falling off in price, and the year closed with Cookson's at lOi cents per pound. The tables below show, by months and years, the ruling prices of the several brands of antimony, as reported to The Iron Age and The Engineering and Mining Journal, from 1894 to 1902, inclusive:

Prices of antimony at New York, 189jhl90X, by months. [Cents per pound.]

Month.

Cookson's.

Hallen*8.

Cookson's.

Hallett's.

Japanese.

Cookson's.

Hallett's.

Japanese.

January . . .

lot

lOi

8t 7t 7f 7f

9t

8J 8t

84 to 81 8ito8* 8 to8i 71 to 71

;ito7i 7ito7i 7ito7i 7 to7J

7 to7i 7tto7J

7 to7t

61to7

8t

8 to8i

7ito7f

7tto7f

7ito7i

7ito7i

February..

March

April

May

June

July

August September. October November. December .

6J

6;to7 6tto7

ANTIMOlfY. Prices of antimony at lew York, 1894190, by months — Continued.

m

Month.

Cookson's.

Hallett'8.

Japanese.

CJookson's.

Hallett'B.

Japcmese.

Cooksou's.

Hallett's.

United States.

January...; to February.. to

61 to 61 to 7 to7* 7 to7* 6*to7 6Jto7* 71 to to 71

to 61 6*to7 7 to7* 61 to to 61 6*to7 7 to7* 7 to7* 7 to7* 7 to7*

8 to8* 8 to8* 8 to8* 8*to9 to 91 91 to 91 91 to 91

8tto8*

8fto9

8f to9

10 tolOl 10* to 101 11* to 12 11* to 12 11* to 12 11* 11* 11* 11* 11* 11* to 11* 11* to 11*

9*to 91

to 10*

to 91

March to

April ' to

May

June

July

August

September. October November . December .

to 71 7 to7f

7 to8*

8 to8* 8 to8* 8 to8* 8 to8*

Month.

Cookson's.

Hallett's.

Cookson's.

Hallett's.

Others.

Cookson's.

Hallett's.

Others.

January... February..

March

April

May

June

10* to 11 10* to 11 10* to 11 10* to 11 10* 10* 10* 10* 10*

9ftol0

to 91

10* to 10* 10* 10* 10* 10* 10* 10* 10* 10* 10* 10* 10*

8*to8f

8*to8f

8tto8*

to 81

8*to9 to 81

to 91

9 to 9f

9 to

9 to

8 to8* 8 to8* 8 to8* 8 to8* 8 to8* 8 to8*

8 to8* to 71 7*to7f

7f to8

July

August September. October November. December.

8 to8* 8 to8* 8 to8*

to 71

By Joseph Sibuthsbs.

Production.

The production of arsenious oxide (white arsenic) in the United States during 1902 was 1,353 short tons, as compared with 300 short tons in 1901. The entire product was made by the Puget Sound Reduction Company, at Everett, Wash., which began the manufacture of this important substance in 1901. The largely increased output in 1902 is a very favorable sign of the success of the new industry.

Arsenic occurs widely distributed in nature, but only in a few localities is it in sufficient quantity to be of commercial value. The most frequent combination is with iron and sulphur, forming the mineral arsenopyrite commonly called "mispickel." With sulphur alone it occurs as realgar (AsSg) and orpiment (AsjjS,), and at Nagy Ag, in Transylvania, Hungary, it is found in the metallic condition. Arsenical ores occur widespread in the United States, especially in the West, and the manufacture of arsenic and its compounds from domestic ores should be developed to supplant the large quantities that are imported from Europe and Canada.

Previous to 1899 the supply of arsenic and its compounds was derived almost entirely from the mines in Cornwall and Devon, England, and near Fi'eiberg, Germany; but the closing of the Devon Great Consols mine, near Tavistock, in 1901, called for an increased or new supply from other localities.

In 1900 Canada contributed a small quantity, which has since been largely increased; and in 1901 the United States became a producer on a small scale, and more than quadrupled its output in 1902.

Although arsenical pyrites (mispickel FeSg+FeAs) has been reported in many localities in Ontario, the entire production of arsenic in Canada during 1901 and 1902 was obtained from the arsenical gold ores of the Deloro mine in Hastings County, which is owned and operated by the Canadian Gold Fields, Limited, a London corporation.

In addition to the gold, which assays from 8 to 15 pennyweights per ton, the ore consists essentially of quartz impregnated with arsenical pyrites and occasionally with copper pyrites, frequently accompanied

&>'-

by a large proportion of iron pyrites. The ore is crushed and amalgamated, yielding directly from 57 to 60 per cent of the original gold value in the ore. The pulp is then concentrated, the concentrates carrying practically the balance of the gold and the arsenic, and the tailings containing less than 2 per cent of the gold in the ore and but 0.5 per cent of arsenic. The concentrates are treated by the Sulman- Teed bromo-cyanide process, and from 87 to 92 per cent of the gold content is extracted, the total recovery of the gold amounting to approximately 90 per cent of the original gold value in the ore. The concentrates contain approximately 30 per cent of arsenious oxide and 16 per cent of sulphur, and to extract the arsenic they are dried and roasted in a revolving cylindrical furnace, the condensed fumes therefrom forming a crude product of 85 per cent arsenious oxide and from 2 to 4 per cent of sulphur. The crude arsenious oxide (called crude arsenic) is refined by sublimation in a reverberatory furnace, and the hot gases therefrom containing the volatile arsenious oxide have the impurities settled out by passage through a number of heated flues. Finally the fumes are delivered to a large brick chamber where the refined arsenious oxide is collected, ground to 100-mesh size, and automatically packed in wooden kegs, each holding 600 pounds. The marketable product contains from 99.6 to 100 per cent of arsenious oxide, the remaining impurity consisting of silica in a finely divided condition.

By far the greater part of the arsenious acid manufactured at Deloro during the last four years has been shipped to New York to supply the demand of consumers in the United States. Indeed, practically the entire supply derived from Canada and the United States is consumed in this country. The domestic production, however, even though aided by imports from Canada, was not sufficient to supply the demand during 1902, and there were imported from Canada, England, Germany, and Spain during the year 1,385,700 pounds of arsenious oxide, valued at $42,424, and 6,725,198 pounds of arsenic sulphide and orpiment, valued at $237,631. The white arsenic industry is a peculiar one, in that the consumption of the substance depends on a number of variables. Much of the product is used by heep raisers to kill the parasite known as the " sheep tick," which lives in the wool of the animal. In the latter part of 1902 the demand in Australia for this purpose became greatly diminished, possibly due to the extermination of the tick or to the accumulation of stocks by the sheep raisers. At all events, the diminished demand in this field resulted in increased exports from Germany and England to the United States at prices which hindered to some extent the development of the industry in this countr5\

The production of white arsenic in Canada was 52 metric tons in 1899, 275 tons in 1900, 630 tons in 1901, and 726 tons in 1902.

Ab8Eni0.

In 1901 the world's production of arsenic (arsenious oxide) and arsenic sulphide (estimating the output of Turkey the same as in 1900) amounted to 7,794 metric tons (or 17,182,624 pounds), valued at $584,793, as compared with 8,128 metric tons (or 17,918,989 pounds), valued at $736,491, in 1900.

The statistics of the world's production of arsenic and Us compounds from 1895 to 1902, inclusive, are given in the following table:

The worlcPa annual production of arsenic, 1896-1909,0 [Metric tons.]

Year.

Canada.

Qermaiiy.6

Italy.ft

Japan.

Portugal.

Quan-

Value.

Quantity.

Value.

Quantity.

Value.

Quantity.

Quantity.

Value.

1S86

. NU. NU. Nil. Nil.

Tons, 8,006 2,682 2,987 2,414 2,649

Tom.

Tona.

Year.

8palD.d

United Kingdom.

Turkey

United State&e

t-

Value.

Value.

Quantity.

Value.

Quantity.

Value.

Tons.

260,990 227,415 268,936 271,180 88&,140 197,270

Tom.

Tom.

a From official reports ol the reflective ooun tries.

& Metallic arsenic and arsenious oxide.

0 Statistics not available at time of publication.

dJABesAn sulphide.

Arsenious oxide.

Mineral Resources.

Imports,

The significance of the importation of arsenic and its compounds for the manufacturing industries of the United States may be appreciated from the statistics given in the following table:

Imports of metallic arsenic white arsenic {arsemous add), and arsenic sulphides {orpiment and realgar) in the United States, 189S-190S.

Year.

Quantity.

Value.

Year.

Quantity.

Value.

Pounds.

.

Prices.

The price for white arsenic at New York during 1902 varied from 3.34 cents per pound in January to 2.94 cents in December, the monthly average for the year being 3.16 cents. Red arsenic ranged in price from 7.03 cents per pound in January to 6.88 cents in December, the monthly average for the year being 6.86 cents a pound.

Uses.

The chief use for arsenious oxide is in the manufacture of paris green, although it is used to a minor extent to make Scheele's green, London purple, lead arsenate, sodium arsenate, potassium arsenate, and other arsenic salts. In the arts or trades paris green is used to exterminate the potato beetle-and other insects injurious to vegetables. Paris green has a peculiar light green shade possessed by no other pigment; but, owing to its poisonous character, its use as a dyestuff is very restricted. Arsenic, as a vermicide, is used in various ways ; either in the form of the oxide or of an arsenate salt (called '' sheep dip") for parasites affecting sheep and cattle; also as a weed killer. The oxide is used in the manufacture of fine grade glassware and special enamels; as a fixing and conveying substance for analine dyes; as a preservative for raw hides, both in taxidermy and in storage for manufacture into leather, and to a minor extent in the preparation of certain medicinal compounds and embalming fluids.

Bismuth

By Joseph Strijthebs.

There was no production of bismuth ore in the United States during 1902, as compared with the marketed output of 318.6 short tons in 1901, and of 220 tons in 1900. The entire production has hitherto been obtained from Colorado. The production during 1901 was purchased by the Leadville Sampler, at Leadville; the State Ore Sampling Works, at Denver; or was shipped direct to Johnson, Matthey & Co., Limited, England.

Occurrence.

Bismuth occurs both free and combined in many of the Western States. In Colorado it has been found as metallic bismuth, bismuth carbonate, bismuth telluride, and bismuth tellurate. A recent discovery of bismuth-carbonate ore is reported in Arizona, on Salt River, near its junction with the Verde Kiver, between Fort McDowell and Superstition Mountain, and excellent specimens of bismuth tellurate (the mineral montanite, BiOj . TeO, . 2 H,0) have been obtained from Salida, Chaffee County, Colo. Bismuth ore varies greatly in composition. That produced during 1901 assayed from 4 to 12 per cent of bismuth, from 1 to 2 ounces of gold, and from 5 to 6 ounces of silver per ton. That produced in 1902 contained from 7.8 to 27.1 per cent of bismuth, from 3.5 to 22.6 ounces of gold, and from 3.45 to 3.5 ounces of silver per ton.

Price.

The production and price of bismuth and its ores continue under the control of Johnson, Matthey & Co., Limited, and the government of Saxony — a combination of interests formed in order to maintain for the products a price at which the mines could be operated with profit. The supply of metallic bismuth far exceeds the demand, and unless the output be restricted the price would fall to a point which

MINEBAL BESOtTBOES.

koala render the manufacture of the metal no longer profitable. The schedule of paces of ore is based on the market price of the metal. The latest published figures for Colorado, with metal at $1 . per pound, were: Ten per cent ore, $150 per ton; 15 per cent ore, $250 per ton; 20 per cent ore, $350 per ton; 30 per cent ore, $550 per ton; 40 per cent ore, $750 per ton; 50 per cent ore, $1,000 per ton.

The price in the United States for the bismuth content of the ore varies from $8 to $11 per unit, the producers being paid also for the gold and silver contents. No price was quoted for the output during 1902, but as near as can be ascertained the value of the output in 1901 was $80 per ton, not including charges for transportation or treatment. The wholesale price for metallic bismuth throughout 1902, f. o. b. works, was $1.50 per pound.

Bismuth is usually found in ores containing other metals which render its extraction somewhat complex. The trade and the price being under control and the domestic demand being comparatively small, the erection of new works to manufacture and refine this metal in the United States is hardly attractive from a commercial point of view.

Imports.

The imports of metallic bismuth into the United States in 1902 were 190,837 pounds, valued at $213,704, as compared with 165,182 pounds, valued at $239,061, in 1901. There was also imported a small quantity of bismuth salts in pharmaceutical compounds.

Uses.

The metal bismuth is utilized chiefly in the manufacture of alloys which melt at comparatively low temperatures, and are, consequently, of great value for special purposes, such as safety plugs for wire circuits carrying electric current, safety plugs for steam boilers, light solders, amalgams in dentistry for filling cavities in teeth, for taking impressions of woodcuts, coins, etc., and as a tempering bath in steel works. The chief alloys of bismuth used on account of their low melting points contain bismuth, lead, tin, and cadmium, as shown in the subjoined table:

OomposUion of biamtUh aUoya of low melting points.

Name.

Composition.

Bismuth.

Lead.

Tin.

Cadmium.

Melting point.

Newton

Rose

Lictitenbeig

Wood..

Lipowitz

-Per cctU,

ao

Per cent,

PtT cent. Nil. Nil. Nil.

Tungsten, Molybdenum, Uranium, And Vanadium.

By Joseph Hyde Pratt,

Introdxjction.

Although there are still many inquiries being made regarding the occurrence and localities of minerals containing tungsten, molybdenum, uranium, and vanadium, there has not been any decided change in the quantity of these minerals that the market demands. That they are of value in the manufacture of the different ferro-alloys has been demonstrated, and undoubtedly the use of all of these metals for this purpose will increase to a certain extent. One of the noticeable changes in the industry of these metals is the lower prices asked for them at the end of 1902, as compared with those of 1901. The outlook for 1903 is for a greater production of all these minerals than during 1902, and within the next few years there will undoubtedly be a constant demand for them, with a more stable market value. At the present time there is no large or fixed market, and the prices are apt to fluctuate very widely.

Although it has been determined that these metals do have beneficial effects upon steel, when used in its manufacture, considerable study of them is necessary before their commercial position with respect to one another or to nickel and chromium can be definitely determined. They offer an interesting field of investigation from both a scientific and a commercial point of view, in regard to their relative value in the manufacture of tools and their effect upon different forms of iron to be used in various parts of machinery. Questions come up as to which of these various hardened irons are the best adapted for steel drills, for dies and shoes in stamp mills, jaws in crushers, rolls, car axles, carpenters' tools, etc. ; as to which retain the best cutting edge; as to which will heat the least when in use, and as to which will make the toughest iron. These questions can be most satisfactorily answered by making comparative tests with the different alloy steels. Mr. A. B. Frenzel, of Denver, Colo., has offered prizes at a number of the schools of mines in the United States for investigations relating to these ferro-alloys, in respect of the questions-raised above with regard to the physical and chemical properties of the alloys, with regard to

the effect of the variation in amount of the hardening metal added, and with regard to the methods of analysis.

Sufficient deposits of all these ores are known to supply any demand that may arise for them, so that at the present time it is not a Question of supply, but of market.

Tungsten&quot;. Production.

The production of crude tungsten ores during 1902 was 184 short tons, of which not more than a few tons were sold. This does not represent the amount of tungsten ore sold in 1902, for there were 76 tons of concentrated ore mined in 1901 that were sold in 1902. Some of the tungsten ore was put on the market in the crude state and some was concentrated to from 60 to 66 per cent tungstic oxide. A product containing this percentage of tungstic oxide is valued at $2.50 to $3 per unit. In 1901 the production amounted to 179 tons of concentrated ore valued at f 27,720. The larger part of the production of 1902 was from Colorado, with a smaller amount from Connecticut. There were no new localities developed during 1902, and all the production was from the old deposits. The use of tungsten steel is being introduced for steels in drilling, and it seems very probable that it will be found especially adapted for this purpose.

The Great Western Exploration and Reduction Company, of Boulder, Colo., the largest producers, placed some of their product on the market as concentrated ore and some as ferro-tungsten alloy.

There were small amounts of tungsten ore (wolframite) and tungsten iron imported into the United States in 1902, which were valued, collectively, at $7,046.

As a result of the many inquiries made for the ores of molybdenum, there are a number of localities that have been developed in 1902, and preparations have been made to place their product on the market. The most work of this character has been in Washington County, Me., where the American Molybdenum Company has been developing a deposit of molybdenite near Cooper. It has erected a mill for treating the ore and expects to be in a position to ship the commercial product during 1903. The molybdenite is of good quality and is apparently in quantity.

Although there are a number of other good deposits of this mineral in the United States, there was but little development work done on them, owing chiefly to the uncertainty of the market.

Tungsten, Molybdenum, Uranium, And Vanadium. 287 Production.

With the exception of a few tons mined for experimental purposes, the entire production of commercial molybdenite was by the Crown Point Mining Company, of Seattle, Wash., from their property in the western part of Chelan County. This production amounted to 10 or 12 tons, approximately the same as that of 1901, but none of the product was shipped in 1902. The value of these molybdenum ores is very erratic, the highest price quoted up to this time being $1,600 per ton and the lowest $100. It is very probable that with any constant demand for these ores they would be furnished in quantity at a price varying from $100 to $200 per ton for a 50 to 55 per cent ore.

Uranium And Vanadium.

There has, perhaps, been more progress in the development of deposits of minerals containing uranium and vanadium during 1902 than of those containing tungsten or molybdenum. Mr. A. B. Frenzel, of Denver, Colo., has been carrying on extensive development work on the deposits at La Salle Creek, southwest of Paradox, Montrose County, Colo. The demand has increased for these metals for use in the manufacture of ferro-uranium and ferro-vanadium alloys, and also for the manufacture of salts of these metals. The larger proportion of the product mined is exported. Promising deposits of vanadinite, the vanadate of lead, have been found during the last year in Arizona and are now being investigated by Mr. Frenzel, who states that he has perfected a process for the extraction of vanadium oxide from these ores.

Production.

There was a marked increase in the production of uranium and vanadium minerals in 1902, which, as reported to the Survey, amounted to 3,810 tons, valued at $48,125, or $12.62 per ton. This, of course, represents the crude ore. In 1901 the production was 375 tons of crude ore. A portion of the uranium ore was treated, giving a concentrated product of 25 tons, which was valued at $8,000, or $320 per ton. What percentage of uranium oxide this concentrated ore contained is not known. The crude vanadium ore, of which there were 3,000 tons produced, contained from 2.5 to 4 per cent of vanadium oxide, and the crude uranium ore from 2.5 to 5 per cent of uranium oxide. All of this production was not sold in 1902. It consisted principally of the mineral camotite, with smaller amounts of uraninite (pitch blende) and vanadinite.

Imports.

Nearly all of the uranium and vanadium ores have been shipped abroad in the crude state, as mined. It has been estimated that there are manufactured annually different salts of these metals to the value of about $200,000. Of this amount, about $15,000 in value per annum has been imported into the United States. In 1902 the value of the imports of the salts of uranium and vanadium was $12,491.

By Edwakd W. Pabkeb.

Two prominent features connected with the coal-mining industry in 1902 were, first, the great strike in the anthracite regions of Pennsylvania, and, second, the utterly inadequate transportation facilities throughout most of the bituminous-coal regions. Replete as is the history of the anthracite regions with strikes, lockouts, and boycotts, there has never before been a time when the mines were so completely tied up and the supply of anthracite so entirely shut off as during the summer and early fall months of 1902. Never before had the public of the Eastern States been made to feel how dependent it was upon this source for fuel. The strike, which began on May 12, was not terminated until October 25, when, at the request of the operators and miners, a Commission was appointed by the President of the United States 'to inquire into, consider, and pass upon the questions in connection with the strike in the anthracite region, and the causes out of which the controversy arose." It was agreed that upon the appointment of this Commission the miners should immediately return to work, in order that the needs of the public might be filled, and that both parties should, in good faith, abide by the findings and award* of the Commission. Owing to the fact that many of the mines had filled with water or been otherwise damaged by the five and a half months of idleness, full operations could not be resumed immediately, audit was several weeks before production assumed normal proportions. Fortunately, the winter was an unusually mild one, for otherwise great distress must have ensued. The Conunission completed its labors and made its report to the President on March 18. It was immediately transmitted to the Senate, sitting in extra session, read,, and ordered to be printed. It was given to the public on Saturday, March 21, five months after the date of the appointment of the Commission. Notwithstanding statements to the contrary which have appeared from

M R 1902-

Vic

time to time in the sensational press, there has evidently been an earnest effort on the part of both operators and nuners to abide by the decisions of the Commission, and it is believed that the agreement to do so for a period of three years will insure general peace in the region for that length of time at least. The effect of the strike upon the production is referred to in the subsequent pages. The report of the Commission, which can be obtained upon application, contains some interesting statistical data in addition to the decisions rendered upon the points in controversy.

What distress there was would have been appreciably mitigated had the railroads been able to meet the demands made upon them by the miners and shippers of bituminous coal, which commodity was in enormous demand. It has been impossible, however, for the transportation companies to provide equipment and motive power rapidly enough for the great increase in business of the last five years. Cars, locomotives, and even trackage facilities fell far short of the requirements, and the greater distance of the bituminous fields from the eastern markets simply added that much more of a burden to an already overloaded industry. Large quantities of soft coal did, of course, find their way to the eastern markets, and for three or four months the atmospheres of Boston, New York, Philadelphia, Baltimore, and other cities of the Atlantic coast States were nearly as smoke-laden as some of their industrial rivals in the Middle West. It is well within moderate bounds, however, to state that if the transportation companies had been able to take care of the business offered them the production of bituminous coal would have exceeded by 20,000,000 tons the record actually made.

Outside of these notable features, the most interesting facts brought out by the statistical inquiries for 1902 were (1) an increase of nearly 8,000,000 short tons in the total production, notwithstanding a loss of over 26,000,000 short tons in the output of anthracite; (2) a marked increase in the use of mining machines, and in the tonnage produced by them; (3) comparative immunity from strikes in the bituminous regions, with the exception of West Virginia, Kentucky, and Michigan; (4) the development of large areas of new coal lands and the opening of many new mines, and the combining or merging under one head of many formerly independent concerns; (5) a perceptible increase for 1902 in the productive capacity per man employed, both for the year and for each day worked, as compared with 1901. These features are all discussed in some detail in the following pages.

The United States retains its position as first among the coalproducing countries of the world, a position taken in 1899 and strengthened each year since that date. This country now produces about one-third the entire world's supply of coal, and consumes from 97 to 98 per cent of it within its own borders. j

Coal. 291

The writer desires to express again his sincere appreciation of the many courtesies extended to him in the preparation of this report by the individual mine operators and by the officials of mining companies, who have not only willingly furnished the statements of their production, but have, without exception, cheerfully replied to any special inquiries incident to the investigation. Acknowledgments are also due to the special agents and field assistants of the Geological Survey and to the special agents of the Twelfth United States Census, who have assisted in the collection of the statistical data compiled in this report. Reviews of the coal trade in some of the important industrial cities, which have been contributed by well-known local authorities, are acknowledged by name in connection with their contributions. The subchaptoron anthracite production has been, as formerly, prepared by Mr. William W. Ruley, Chief of the Bureau of Anthracite Coal Statistics; in Philadelphia.

Unit Op Measurement.

The standard unit of measurement adopted for this report is the short ton of 2,000 pounds, although it is necessary in a few instances to use the long ton. All of the anthracite product is mined and sold upon the basis of the long ton of 2,240 pounds, and the laws of Maryland require the use of the long ton in that State. Hence, when considering the production of Pennsylvania anthracite the long tcm is used, and this unit is also employed in the table showing the shipments of bituminous coal from the Cumberland region. The long ton is also used in the statistics of imports and exports. In all other cases where the production is reported in long tons the figures have been reduced to short tons, and unless otherwise expressly stated the short ton is meant when any quantity is expressed in the text.

COAIi FIELDS OF THE ITNTTED STATES.

The coal areas of the United States are divided, for the sake of convenience, into two great divisions, anthracite and bituminous.

The areas in which anthracite is produced are confined almost exclusively to the eastern part of Pennsylvania, and as a usual thing, when the anthracite fields of the United States are referred to, those of eastem Pennsylvania are qpnsidered. This region is included in the counties of Susquehanna, Lackawanna, Luzerne, Carbon, Schuylkill, Columbia, Northumberland, Dauphin, and Sullivan, and underlies an area of about 484 square miles. In addition to these well-known anthracite fields of Pennsylvania there are two small areas in the Rocky Mountain region where the coal has been locally anthracited, although the production from these districts has never amounted to as much as 100,000 tons in any one year. One of these localities is in Gunnison County, Colo., and the other in Santa Fe County, N. Mex.

The coal, although only locally metamorphosed, is a trae anthracite, and of a good quality. In previous years some coal which was classed as anthracite was mined and sold in New England. The productive area was confined to the eastern part of Rhode Island, and the counties of Bristol and Plymouth, in Massachusetts. This product, however, is in reality a graphitic and not an anthracite coal, and is no longer mined for fuel purposes. The production in the last few years has been included with the graphite production.

The bituminous areas are scattered widely over the United States, and include altogether an area of something over 335,000 square miles. They are divided into the following subdivisions:

(1) The Triassic field, embracing the coal beds of the Triassic or New Red Sandstone formation in the Richmond Basin, in Virginia, and in the coal basins along the Deep and Dan rivers in North Carolina; (2) the Appalachian field, which extends from the State of New York on the north to the State of Alabama on the south, having a length northeast and southwest of over 900 miles and a width ranging from 30 to 180 miles; (3) the northern field, which is confined exclusively to the central part of Michigan; (4) the central field, embracing the coal areas in Indiana, Illinois, and western Kentucky; (5) the western field, including the coal areas west of the Mississippi River, south of the forty *third parallel of north latitude and east of the Rocky Mountains; (6) the Rocky Mountain field, containing the coal areas in the States and Territories lying along the Rocky Mountains; (7) the Pacific coast field, embracing the coal districts of Washington, Oregon, and California.

By far the most important of these, from a productive standpoint, is the Appalachian system, which includes the areas contained in western Pennsylvania and in Ohio, Maryland, Virginia, West Virginia, eastern Tennessee and Kentucky, Georgia, and Alabama. This region contains an area underlain by coal of 70,807 square miles, and it produced in 1902 173,274,861 short tons, or 66.6 per cent of the total bituminous product of the United States. Next in importance is the central field, which contains 58,000 square miles and produced in 1902 46,133,024 short tons, or 17.73 per cent of the total. The western coal field, the third in productive importance, contains 94,076 square miles, and produced in 1902 20,727,495 short tons, or 7.97 per cent of the total. The Rocky Mountain region is the Jargest in point of size, having a little over 100,000 square miles of area, and produced in 1902 16,149,645 short tons, or 6.21 per cent of the total.

For a more extended description of the coal producing areas of the United States the reader is referred to the Twenty-second Annual Report of the Survey, Part HI.

The following table shows the approximate areas of the coal fields in the various States, grouped according to the divisions mentioned ftbove, with the total output from each, from 1898 to

Goal. 298

CoaLfiddi of ihe United SkUes and their produdumy 1898-1909.

Area.

Sq.mae$,

Short tont.

Short toiu.

Short ioru. 41,873,605 93,987

Colorado and New Mexico

Trlaasic:

Viignia

r 16,206 1 28,000

North Carolina

Ohio

Maryland

Virginia

West Virginia

KaHtem Kentucky

Tennessee

Georgia

Alabama

Northern:

Michigan

Central:

Indiana

Western Kentucky

Western:

Iowa

Kansas

Indian Territory

' 2,820,666

Texas

Rocky Mountain, etc.

North Dakota

Montana

Wyoming

Utah

Colorado

New Mexico

Neyada

Pacific coast:

Wfliihington

l,884,6n

7\>tal production, including colliery consumption

o Includes brown coal or lignite, semianthracite, semibituminous, etc., and scattering lots of anthracite.

Mikebal Besoubces.

The total production of each field since 1887 has been as follows:

Total production of each fidd, 1887-1 90S.

Anthracite.

Bituminous.

Triassic.

Appalachian.

Northern.

Area equare miles..

rear.

Short ton$, 39,548,255 43,971,688 45,600,487 46,468,641 60,665,981 62,537,467 54,061,121 51,992.671 58,066.516 54,425,578 62,680,756 53,429,739 60,514,201 57,466,319 67,688,686 41,467,682

Short totu. 30,000 33,000 49,633 29,608 87,645 48,889 86,878 68,979 82,682 103,483 116,960 38,938 28,853 57,912 12,000 89,206

Shoriioru, 55,888,068 60,966,245 62,972,222 78,008,102 77,984,563 83,122,190 81,207,168 76,278,748 90,167,696 90,748,806 97,128,220 114,289,156 129,843,906 142,298,206 160,601,214 173,274.861

Shorttons. 71,461

45,979 70,002 112,322 '92,882 223,592 815,722 849,475 1,241,241 964,718

Central.

Western.

Rocky Mountain, etc.

Pacific coasU

AfQj RQiiare mlleii..

Year,

Short tons. 10,172,634 11,842,764 10,086,366 10,470,439 11,023,817 11,685,185 11,651,296 11,608,623 11,749,803 U, 759, 966 13,164,069 13,987,897 15,820,373 17,549,628 19,665,965 20,727,496

Short tons. 3,646,280 4,583,719 6,048,418 6,205,782 7,245,707 7,577,422 8,468,860 7,175,628 7,998,594 7,925,280 8,854,182 10,043,798 11,949,468 13,898,556 14,090,862 16,149,545

Shorttons. 854,306 1,385,750 1,214,767 1,435,914 1,201,376 1,333,266 1,379,168 1,221,288 1,340,548 1,391,001 1,641,779 2,104,648 2,278,941 2,705,865 2,799,607 2,834,058

In order to show the development of the six principal bituminous areas since 1887, the following table has been prepared, which gives the amount produced in each field in that year, and also in 1900, 1901, and 1902, with the percentages of the total contributed by each, and the increases in 1902 as compared with 1901 and with 1887.

Co At.

Ptoduetion of the six principal bituminous coal fields in 1887, 1900, 1901, and 1902

compared.

Field.

Quantity.

Per cent of total.

Quantity.

Per cent of total

Quantity.

Per cent of total.

Quantity.

Per cent of total.

Appalachian —

Central

Western

Northern

Rocky Mountain Pacific coast

Short totu. 66,888,088 14.478,888 10,172,634 71,461 8,646,280 854,908

Short tons. 142,298,208 35,358,164 17,549,628 849,475 18,398,556 2,705,865

Short tons.

'6.2

Short tons. 173,274,861 46,138.024 20,727,495 964,718 16,149,545 2,834,058

Field.

Increase in 1902 over

Quantity. Percent.

Increase in 1902 over

Quantity. Per cent.

Appalachian

Central

Western

Northern ,

Bocky Mountain Pacific coast

Short tons. 117,386,773 31,654,141 10,654,861 893,257 12,603,265 1,979,760

Short tons.

22,778,647 8,682,158 1,061,510 a276,528 2,059,183 84,451

a Decrease.

Production.

The total production of anthracite and bituminous coal in the United States during 1902 amounted to 301,590,439 short tons, valued at $367,032,069 against 293,299,816 short tons, valued at $348,926,069 in 1901, and 269,684,027 short tons, valued at in 1900. The net increase in production in 1902 over 1901, notwithstanding a loss of over 26,000,000 short tons in the output of anthi-acite, was 8,290,623 short tons, or 2.8 per cent. |The gain in value amounted to $18,106,000, or 5.2 per cent, and represented $2 per ton on the increase in product.

It is just twenty years since the production of coal in the United States reached a total of 100,000,000 tons, that figure having been attained in 1882 when the output amounted to 103,285,789 short tons. Fifteen years later, in 1897, the production passed, for the first time, the 200,000,000-ton mark, and in five years from that date another 100,000,000 tons were added to the record. From the time that coal mining first began, about 1814, until the first 100,000,000 tons of production was reached, a period of over sixty years was required, the second 100,000,000 mark was passed in fifteen years and the third in five years. This great development in the last two decades has been due simply to the industrial growth of the United States, a fact abundantly proved by comparing the statistics of coal

production with the statistics of our increase in population. Unfortunately, from lack of reliable data, this comparison can not be carried back to an earlier date than the census year of 1870, but even for this period the comparisons are interesting. In 1870 the population of the United States was 38,558,371; the coal production in that year amounted to 36,806,560 short tons, an average of 0.95 ton per capita. Ten years later, when the population was 50,189,209 the output of coal amounted to 71,481,569 short tons, or 1.42 tons per capita. In 1890 the population had grown to 63,069,756, an increase of 26 per cent over 1880, while the coal production had more than doubled to 157,770,903 short tons, the per capita production being 2.50 tons. At the latest census, in 1900, the population had increased 21 per cent to 76,303,387, while more than 70 per cent had been added to the coal production of ten years before and it had reached a total of 269,684,027 short tons, or an average of 3.53 tons for each inhabitant. In other words, while the population from 1870 to 1900 had shown an increase of 98 per cent the production of coal had increased 633 per cent. Carrying this comparison a little further we find that the production of Pennsylvania anthracite, particularly in the last twenty years, has been more nearly in proportion to the population of the States in which it finds its chief market. In 1880 the per capita production of anthracite coal in the territory naturally tributary to it was 1.82 tons; in 1890 it was 2.47 tons, and in 1900, 2.53 tons. Bituminous coal production per capita on the other hand, taking the entire population as consumers, was 0.85 ton in 1880, 1.76 tons in 1890, and 2.78 tons in

The production of anthracite in Pennsylvania in 1902 amounted to 36,940,710 long tons, or 41,373,595 short tons, valued at $76,173,586, against 60,242,560 long tons, or 67,471,667 short tons, valued at $112,504,020, in 1901. The decrease in output in 1902, as compared with 1901, was 23,301,850 long tons, or 26,098,072 short tons, with a loss of $36,330,434 in value. The percentage of decrease in tonnage was 38.7, and in the value 32.3. The decrease was due entirely to tJie prolonged strike in the summer and fall of 1902, which is discussed elsewhere and need not be more fully referred to here.

The bituminous coal product, as collated for this report., includes the true bituminous coals, coking or noncoking, and also such other varieties as semianthracite, semibituminous, cannel, splint, block, and lignite-or brown coals. It also includes the small anthracite product of Colorado and New Mexico. This output in 1902 amounted to 260,216,844 short tons, valued at $290,858,483, which, as compared with the 225,828,149 short tons, valued at $236,422,049, in 1901, shows an increase of 34,388,695 short tons, or 15 per cent in quantity, and of $54,436,434, or 23 per cent in value. The average price of $1.12 per ton received for the bituminous coal product, of highest record made since 1885.

Goal. 297

Of the 30 States and Territories included in the following tables 23 increased their production over 1901, while 7 showed decreases. The most notable decrease was made in Pennsylvania, where, on account of the five-months' strike in the anthracite region the total output of the State fell off 9,829,651 short tons. In the other six States, where decreases were shown, only one, Michigan, is located east of the Mississippi River. Two, New Mexico and Wyoming, are among the Bocky Mountain States, and two, California and Oregon, are on the Pacific coast. The sixth, Texas, is included in the areas of the Western coal field. The largest decrease in the six bituminous-coal producing States was sustained by Michigan (276,523 tons), and was due to a strike called for the purpose of enforcing certain demands of the union in the coal mines of that State. The next heaviest loss was sustained by Texas, and was due to the competition of fuel oil, brought about by the large production of that fuel at Beaumont, Sour Lake, etc. The decrease in California is also attributed to the great increase of oil production and its consumption for fuel in that State, and this was also probably responsible for the decrease in Oregon, whose principal coal market is in California. No special cause is assigned to the decreases in New Mexico and Wyoming.

The principal labor troubles in 1902 were in the .anthracite regions of Pennsylvania, in the southern counties of West Virginia, and in Michigan. The total number of men on strike in 1902 was about 200,000, of whom 145,000 were anthracite workers. The aggregate time lost amounted to 16,672,217 days of ten hours. In 1901 the total number of men on strike during the year was 20,593 and the time lost 733,802 days.

The statistics regarding the use of machines in the bituminous coal mines of the United States show that in 1902 there were 5,418 machines in use, against 4,341 in 1901 and 3,907 in 1900. The machine-mined product has increased from 52,784,623 tons in 1900 to 57,843,335 tons in 1901 and to 69,611,582 tons in 1902. That the use of machines for mining coal is increasing in faster ratio than the total production is shown by the fact that the percentage of the total mined by machines has increased each year. The percentage of the total product mined by machines in the States using them was 27.09 in 1902, 25.68 in 1901, and 25.15 in 1900.

The total number of men employed in the coal mines of the United States in 1902 was 518,197, against 485,544 in 1901. The distribution of this labor in 1902 was as follows: In the anthracite mines of Pennsylvania 148,141 men, who averaged 116 days each in working time; in the bituminous coal mines, 370,056 men*- average working time 280 days.

In considering the coal product, these reports include not only the coal marketed either by shipment to distant points or sold locally, but also that consumed by mine employees and by the mine operators fn

MINEBAL BEBOUBOEd.

locomotives and for other power or heating purposes in connection with the mining operations. This latter factor is usually considered and reported as colliery consumption. There are occasional exceptions in the bituminous fields where operators use only slack, an otherwise wasted product, of which no record is kept and which is not reported in the production. It does not appear in the product nor is the miner paid for mining it. These exceptions are few and the amount is comparatively small. The coal consumed in the manufacture of coke is also considered in this report. The amount of coal made into coke at the mines in 1902 was 34,169,730 short tons. The coal sold to local trade and employees and used in the manufacture of coke is included in the marketable product. The colliery consumption in the anthracite region, which is not considered in the value of the anthracite product, ranges from 8 to 10 per cent of the total anthracite output. The colliery consumption of the bituminous mines averages between li and 2 per cent of the total bituminous product. Deducting the colliery consumption from the total in 1902, the marketable product is shown to have been 291,594,578 short tons, as compared with 282,920,270 short tons in 1901.

Coal production of the United States in 1901 j hy States,

State.

Alabama . . Arkanaas . . California . Colorado ..

Oeor$:ia and North Carolina .

Idaho

Indiana

Indian Territory .

Iowa

Kentucky

Maryland

Michigan

Missonrl

Montana

New Mexico

North Dakota

Ohio

Oregon

Pennsylvania

Tennessee

Texas

Utah

Virginia

Washington

Loaded at mines for shipment.

Sold to local trade and used by employees.

Short Urns.

Used at

mines

for steam

and heat.

Short tons.

Short tons.

Made into coke.

Short tons. 2,182,477

1,839,09619,120,261 60, 461 j 685,919 19,1471

Total quantity.

Total value.

Short tons.

27,831,552 6,918,225, 2,421,781 5,617,499 4,900,528 5,469,986| 5,113,127, 1,241,241 8,802,088' l,396,08l| 1,086,616 166,601

Average

price per ton.

Average number of days active.

Average number of employ-

Goal.

Coal production of the Uniied States in 1901, by SlkKea— Continued.

State.

Loaded at mines for shipment.

and used fortteam

Bold to local trade

by employees.

Used at mines

and heat.

Made into coke.

Total quantity.

Total value.

Averpnoeper

ton.

Average number of days active.

Average number of employ-

West Virginia . Wyoming

Short tons.

Short tons.

Short tons. 256,618 195,069

Short tons.

Short tons. i4, 068, 402 4,485,374

to. 87

Total bituminous . . ,

Pennsylvania anthracite

Grand total,

Coat prodiuiion of the United States in 190g, by States.

State.

Loaded at mines for shipment.

Sold to local trade and used by employees.

Used at mines for

steam and heat.

Made into coke.

Total quantity.

Total value.

Average price per ton.

Average number of days active.

Average number of employ-

Alabama

Arkansas

California and Alaska

Colorado

Georgia and North Carolina

Short tons. 7,271,146 1,864,912

Idaho

Indian Territory Iowa

Kentucky

Maryland ,

Michigan

Missouri

Montana

New Mexico

North Dakota ...

Ohio

Oregon

Pennsylvania ...

Tennessee

Texas

Utah

Virginia

Washington

West Virginia... Wyoming

Short tons.

tons.

Short tons.

Short tons.

Total bituminous...

Pennsylvania anthracito

Grand total.

Los

Loo

Mineral Bs8Oub0E6.

Production In Previous Years.

In the following table are shown the quantity and value of the coal produced in the United States for the last five years, with the increases and decreases in 1902 as compared with 1901:

Quantity and value of coal produced in the United Staler, 1898-190.

State or Territory.

Quantity.

Value.

Quantity.

Value.

Quantity. Value.

Alabama

Arkansas

California and Alaska

Colorado

Geoixla and North

Carolina

Idaho

Indiana

Indian Territory

Iowa

Eauflu

Kentucky

Maryland

Michigan

Montana

Nebraska

New Mexico

North Dakota

Ohio

Oregon

Pennsylvania:

Anthracite

Bituminous

Tennessee

Texas

Utah

Virginia

Washington

West Virginia

Wyoming

Total

Short tOM. 6,686,288 1,206,479

256,632 al,069 18,699,299 4,920,748 1,881,466 4,618,842 8,406,666 8,887,908 4,674,884 816,722 2,688,321 1,479,808

Short tOM, 8,394,276 1,447,946

a Includes Nebraska.

fr Included in Idaho.

Coal. 801

QuantUy and value of coal production in the United States, 1898-190 — Continued.

State or Territory.

Quantity. Value.

Quantity. Value.

Increase, 1902.

Quantity.

Value.

Per cent of increase.

Quantity.

Value.

Arkauav

California and Alaska'.

Colorado

GeoiiriA and North Carolina ,

Idaho ,

Illinois

Indian Territory . . . .

Iowa ,

Kansas

Kentucky

Maryland

Michigan

Missouri

Montana

New Mexico

North Dakota

Ohio

Oregon

Pennsylvania:

Anthracite

Bituminous

Tennessee

Texas

Utah

Virginia

Washington

West Virginia

Wyoming

SkoftUms. 9,099,0G2tlO, 1,816,136

Total 293,299,816848,926,069801,500,489

Short Uma.

a66,183 1,701,328

a 276, 523

a 37, 783

a8,S68

al86,806 1,965,921

1,453,891 533,378 a99,872 667,478 484,131 a 46, 422 111,816

a88.3

6861026, 098, 072 a86, 16,268,421 749,678 a206,041 261,907 457,120 102,997 502,424 a55,883

1,

a 429, 779

a 824, 123

a22.8

a3.5 a4.9

a88.7 a 18. 6 al.26

a5.7

a8.0

a7.8

a82.3 a22.5 a 13. 6

a Decrease.

In the following table is presented a statement of the annuai production of anthracite and bituminous coal from 1880 to the close of 1902, a period of twenty-three years. It is interesting to note in connection with this table the rapid growth of the bituminous, or soft, coal production as compared with that of anthracite. It is seen that while the production of anthracite has increased from 26,580,189 long tons in 1880 to 60,242,560 long tons in 1901 (owing to the abnormal conditions in 1902 that year is not taken as a basis for comparison), or an increase of 136 per cent, bituminous production has increased from 42,831,758 short tons in 1880 to 225,826,849 short tons, a gain of over 400 per cent in 1901, and to 260,216,844 short tons, an increase of over 500 per cent in 1902. ic

Minebal Resoubges.

It is not to be expected that anthracite production will increase materially in the future. In addition to the fact that the markets are becoming compar*ively more and more restricted on account of the increased use of other fuels and to the changing conditions of life in the large cities of the east, the 'bonanza" seams are Jecoming exhausted; and workings are being constantly carried to greater depths, which means gi*eater expense in the operation of the mines, and in getting rid of enormous quantities of water. As mining conditions become more exacting the higher are the wages to be paid foi mining; and the operators are therefore faced with a constantly to be expected increased cost of production, which must be added to the selling price of the fuel. The construction of the modern office buildings and apartments in the large cities of the east have had a perceptible influence on the consumption of anthracite, in the fact that thousands of former individual users of domestic sizes of anthracite now live in steam heated houses and use gas for cooking purposes. These buildings have, on the other hand, created a market for the small and formerly unusable sizes of coal, which to some extent makes up for the loss of markets for the domestic or profitable sizes.

When all the problems surrounding the future of the anthracite industry are considered, little hope can be held out to consumers that the prices for domestic sizes will be materially lower than those that are current at the present time.

Anntud production of coal in the United SUUes, 1880-1902.

Year.

Pennsylvania anthracite.

Bf tumlnouji coal.

Quantity.

Value.

Quantity.

Value.

Long Umt.

Short Umt.

18tf3

Coal

Annual production of coal in the United 8UU£y 1880-1909 — Continued.

Total.

Year.

Quantity.

Value.

Long ions. 63,822,830 76,865,357 92,219,454 102,867,969 106,906,295 99,069,216 101,500,024 116,651,974 132,731,613 126,097,869 140,866,931 160,505,954 160,115,242 162,814,977 152,447,791 172,426,366 171,416,390 178,771,130 196,407,382 226,554,635 240,789,309 261.874,836 269,277,178

Short iow. 71,481,669 85,881,080 103,286,789 116,212,125 119,735,051 110,957,522 113,680,027 180,650.211 148,659,407 141,229,613 157,770,968 168,566,668 179,329,071 182,352,774 170,741,526 193,117,680 191,986,857 200,229,199 219,976,267 253,741,192 269,684,027 293,299,816 801,590,439

The statistics regarding the distribution for consumption of the coal product of the United States have been collected only since 1889. They are shown in the following table, together with the value and the statistics of labor employed and the average working time miade:

Distribution of the coal product of the United States, 1889-1909,

Year.

Toaded at mines for shipment.

Sold to local trade and used by employees.

Used at mines

for steam and

heat.

Made into coke.

Short Urns. 113,776,701 128,383,658 92,615,738 146,372,098 152,941,890 142,838,319 158,380,289 159,176,165 165,603,626 180,960,111 208,764,746 223,782,088 245,010,812 247,642,852

ShoH tons. 8,508,699 9,009,286 7,816,891 9,704,678 9,728,815 8,764,688 9,665,505 9,502,927 9,922,276 8,927,614 9,076,766 9,077,242 9,595,308 9,781,996

Short tons. 6,382,265 5,063,963 1,750,169 6,210,767 6,712,284 6,307,296 6,677,639 7,184,832 6,941,419 7,921,289 8,662.864 9,189,746 10,379,546 9,995,861

Short tons. 13,661,848 15,331,760

DiarUnOion of the coal product of the United Stata i6;S9~i:?— Oontinaed.

Year.

Total product.

Total Talue.

Avenge

price per

ton.

Average number of days active.

Average number of employees.

Shortioru. 141,229,518 157,788,656 117,901,288 179,829,071 182,352,774 170,741,526 193,117,580 191,986,857 200,229,199 219,976,267 258,741,192 289,684,027 298,299,816 801,590,489

tL18

LOl

PRODUCTION OP COAL, BY STATES, PROM THE EARLIEST TIMES TO THE CLOSE OP 1902.

The early hurtory of coal production in many States has not been recorded in any o£Bcial reports and the writer's efforts to secure some definite information regarding it have not met with the most abundant success. In some cases it has been possible to secure scattered statistics of production interspersed with more or less accurate estimates," but there are only one or two instances where consecutive records are obtainable. The accompanying table has been prepared from all available sources, missing data being supplied by estimates based upon the best information obtainable. The most complete record of coal production which we have is that of the anthracite region of Pennsylvania from which shipments began in 1820, and since that date the records have been carefully preserved. The earliest record of production I that region was six years earlier, when an output of 22 short tons is reported to have been obtained. An estimated production of about 800 tons is distributed through the period between 1814 and 1820. The records of anthracite shipments, as reported elsewhere, have in this table been reduced to short tons and 10 per cent has been added to the shipments as an estimate of the coal sold to local trade or consumed at the collieries. In the eighty-nine years from 1814 to 1902, inclusive, the total production, of anthracite in Pennsylvania has amounted to approximately 1,554,200,000 short tons.

So far as we know, the earliest production of bituminous coal was made in the Richmond basin of Virginia. One authority states that 54,000 short tons were produced there in 1822, and that in 1824 the production amounted to 67,040 tons; in 1826 to 88,720 tons, and in 1828

Ic

Goal. 805

to 100,080 tons. In each of these years the output exceeded that of Pennsylvania anthracite, but that condition ceased permanently in 1820, although the production of the Richmond basin continued to increase until 1832. It then began to decline and by the middle of the last century had almost disappeared.

The development of the Piedmont region, which at that time belonged to Virginia, began in 1855, and until the opening up of the Pocahontas region in 1882 and of the Wise County fields in 1891 and 1892, practically all of Virginia's production came from the northern part of the State.

Next to the anthracite region of Pennsylvania, the most authentic records we have of coal production in the United States are of the Cumberland-Piedmont district of Maryland and West Virginia. The first openings were made in Maryland on the north side of the Potomac River, and shipments began as early as 1842, 1,708 long tons of 2,240 pounds having been shipped in that year. In the accompanying table the production of the Cumberland field has been reduced to short tons and the percentage for colliery consumption has been added in order to arrive at the total production. Until 1855 all of the shipments were from Maryland.

The early records of Pennsylvania bituminous production are sadly wanting. The census for 1840 showed that the total production in that year was 464,826 short tons. This is the earliest date of which we have any record, although it is pi-actically certain that some bituminous coal was produced in Pennsylvania prior to that year. Another authority gives the bituminous production of the State in 1846 as 760,000 tons, while still another states that in 1847 it was only 399,840. From 1841 to 1845, inclusive, and from 1848 to 1869, inclusive, there are no records of production. The census of 1860 states that the output was 2,679,773 short tons. In 1864 the production had increased to 5,839,000 tons, and in 1870 it amounted to 8,736,399 tons, since which date the records are practically complete. Estimating the production in the years for which the records are not obtainable, we find that the total output of bituminous coal in Pennsylvania has amounted, approximately, to 1,251,000,000 short tons, or about 300,000,000 tons less than the production of anthracite in the same. State, making the entire production of coal in Pennsylvania during the history of the industry in that State, approximately, 2,805,000,000 short tons.

Next to anthracite mining in Pennsylvania and the records of the Richmond basin, in Virginia, the earliest statistics of coal mining which we have are for the State of Illinois. The report of the bureau of labor statistics of that State for the fiscal year ending June 30, 1902, sets forth that the records of the early history of coal mining in Illinois are very meager. The first record found is that coal was mined in Jackson County in 1810; the locality was on the Big Muddy River,

and the mine was worked by drift along the outcrop in the bluffs. A flatboat was loaded with coal at this place and shipped to New Orleans. Again it is stated that in 1832 several boat loads were sent from the same vicinity to the same market. Another record is found stating that in 1833, 160,000 bushels (6,000 tons) of coal were mined in St. Clair County and hauled by wagon to St. Louis. The census of 1840 states that coal was mined in 19 counties of Illinois, with a production of 16,968 tons. From 1840 to 1860 (a period of 20 years) the Bureau of Statistics is without any general or special data in regard to the development of the coal-mining industry in the State, although there are some scattering statistics to be found in the geological reports of the State. The statistics of production from 1841 to 1859, inclusive, and for the other years for which no special information is obtainable, have been estimated by the writer. From these statistics of production and from the statistics of such years for which there are records it has been found that the total output of the State in the seventy years from 1833 to 1902, has amounted to nearly 442,000,000 short tons.

In the well-known work, "Statistics of Coal," by R. C. Taylor (1848), the author states:

The exifltence of this combustible [coal] was proved by the French explorers at an early period. It was certainly known to Father Hennepin in 1679 (almost a hundred years before the Pennsylvania coal was discovered), and is marked on the map which illustrates his journal. He points out a "cole mine" about Fort Crevecoeur, on the Illinois River, near to the site of the present Ottawa.

Although some coal was undoubtedly produced in Ohio prior to 1838, that is the first year in which any production is recorded, the output being 119,952 tons. The census of 1840 shows that the production was 140,536 short tons, and the census of 1860 gives the State an output of 1,133,596 short tons, the history of production of the years between 1S40 and 1860 being entirely lacking. Since 1860 the records are fairly accurate. Estimating the production in such years of which there are no recoixls, as has been done in the case of Illinois and Pennsylvania, the production of Ohio is found to have been somewhat over 358,250,000 tons.

Among the States west of the Mississippi River the earliest production reported is in Missouri and Iowa, by the census of 1840, Missouri being credited with an output of 9,971 short tons and Iowa with 360 short tons. It is probable that very little coal was mined in either of these States prior to that time, and it may be considered that the industry began at about that date. The records of both States for the next twenty-five or thirty years are meager, but the production has been estimated from the best sources of information accessible.

The first coal discovered on the Pacific coast was in the State of Washington, in 1852, and the first mine was opened in Whatcom

Coal. 307

in 1854, shipments being made from there to San Francisco by water until 1870, when the Seattle, Renton, and Talbot mines, in King County, were opened and began shipping coal also to San Francisco. There are no records, however, of any production prior to 1870, when an output of 17,844 tons was reported.

Although California has never taken high rank as a coal-producing State, it comes next in order in the history of early production, an output of 6,620 tons being reported in 1861. This increased almost steadily each year until 1874, when the maximum output of the State (215,253 short tons) was attained. It then declined rapidly until 1876, when the production was just about one-half what it had been three years before. Since that time the industry has been rather irregular, the production depending upon many outside influences.

Among the States whose history of coal production does not antedate 1863, the records are fairly complete, although we can feel satisfied that in a number of instances coal mining began prior to the earliest dates given in the accompanying statement. In Indiana, for instance, the initial production is given for 1870, with an output of 490,414 short tons. Coal mining began in the State probably twenty-five years prior to that date, but records of production are entirely wanting. Four other States — Kentucky, Tennessee, Alabama, and Washington — whose initial reported coal production is given in the census of 1870, were undoubtedly producing coal before that time.

According to the following table, the entire coal output of the United States, from the earliest times to the close of 1902, has amounted to 4,853,844,191 short tons. It is doubtful if the production not reported here has amounted to more than 6,200,000 tons, so it is safe to estimate our total coal production to December 31, 1902, at 4,860,000,000 short tons. The cubical dimensions of a ton of coal will vary from 33 to 40 cubic feet. Taking 37 cubic feet as an average for the total product of the United States, we find that this mass of 4,860,000,000 tons would contain approximately 160,000,000,000 cubic feet. A pyramid built of this material as high as Pikes Peak (14,108 feet) would have for its base a rectangle 1.14 miles square. A cube constructed of it would cover an area of 2.4 square miles. If spread out over the States of lihode Island and Connecticut, it would cover both of them to the. depth of 12 inches.

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MIKEBAL RESOtTBGES.

BANK OF COAIi-PRODUCING STATES,

In the following table the coal-producing States are arranged according to rank in 1901 and 1902, first in amount of production and then in the value of the product, with the percentage of both quantity and value contributed by each State. There are comparatively few changes in i*ank during the two years. The first seven States retain their relative positions. Kentucky succeeds Iowa in eighth place, and Tennessee changes places with Missouri. The Indian Territory displaces Washington, and Montana drops below Utah. In the rank according to value the most notable change is the drop of Wyoming from ninth to fourteenth place.

Rank of coal-producing States in 1901, ivUh quantity and value of product, and percentage

of each.

Production.

Rank.

State or Territory.

Pennflylvania:

Anthracite

Bituminous . . .

niinois

West Virginia

Ohio

Alabama

Indiana

Colorado

Iowa

Kentucky

17 I Indian Territor>' - -

Quantity.

California

Oregon

Total.

Short ions.

Per cent of total production.

Value.

Rank.

State or Territory.

Value.

Pennsylvania:

Anthracite 1112,

Bituminous — I 81,

Illinois I 28,

Ohio I 20,

West Virginia 20,

Alabama 10,

Iowa 7,

Tfidin-Tni. 7|'

Colorado

Wyoming 6,

Kansas 5,

Kentucky ' 5,

Maryland 5,

Missouri I 4,

Washington 4,

Tennessee

Indian Territory.

Virghila

Arkansas

Montana

Texas

Michigan 1,

Utah 1,

New Mexico 1,

Georgia

California

North Dakota.. Oregon

Total 848,926,069

Per

cent

of total

value.

Digiti-zed by

Bamk of coal-producing fftates in 1902 wUk quantity and value ofprodudy and percentage

of each.

Production. 1

Value.

Rank.

State or Territory.

Quantity.

Per cent of total production.

Rank.

State or Territory.

Value.

Per

cent of total value.

Pennsylvania:

Anthracite

t Bituminous Illinois . . ;

Pennsylvania:

Anthracite

Bituminous Illinois

West Virginia

Ohio

Ohio

Alabama

Colorado

Iowa

Kentucky

Colorado

Iowa

Kansas

Maryland

Kentucky

Maryland

Tennessee

Tennessee

Miasouri

Mifflourl

Wyoming

Virginia

Washington

Indian Territory . . . Montanar

Indian Territory . . .

Washington

Artanwfl

Virginia...

Ariranms

Montana ! 1.560.823

Utah

New Mexico

Michigan

New Mexico

Texas

Texas

Georgia and North Carolina.

North Dakota

California and Alaska.

Oregon ..,

Georgia and North Carolina.

North Dakota

California and Alaska.

Oregon

Idaho

Total

Total

KINDS OF COAIi PRODUCED TS 1902.

In discussing elsewhere the coal production of the United States in 1902, only two general classes are considered — antiiracite (in Pennsylvania) and bituminous coTal, the latter including the small anthracite production of Colorado and New Mexico and comprehending lignites, semianthracite, and semibituminous coals, and the several subvarieties of bituminous coal. Inquiries are frequently received, however, for information as to the amount of these different varieties produced in each State. The following table has accordingly been prepared, classifying the total product in 1902 by varieties and States. It should be remembered that this classification makes to

MIKEBAL BESOtTBOES.

technical exactness. It is simply made up from replies by operators to the inquiry ''Kind of coal produced," and such replies are in some minor cases based on quite uncertain information. It is believed, however, that the classification indicates approximately the amount of each kind of coal produced an4 that it is sufficiently correct for practical purposes. The table is arranged to show the States and the kinds of coal according to their importance.

Classification of the coal product of the United States in 190S, by States and Territories,

state or Territory.

Bituminous.

Anthracite.

Semibltuminous.

Lignite.

Short torn,

Short tons. 41,373,695

Short txm.

Illinois

West Vlrolnia

Ohio

Alabama

Indiana

Colorado

Kentacky

Iowa

Maryland

Kansas

Wyoming

Tennessee

Mifflourl

Virginia

Indian Territory

Washington

Arkansas

Utah

Montana

New Mexico

Michigan

Texas

Georgia

North Dakota

California

OrfgOn ,,,..,.T,x---,-,,,,rrr.r,.T,

North Carolina

Alaska

Idaho

Total

Coal,

(XasstficcUion of the coal product of the United States in 1902y by States and Territories—

Continaed.

state or Territory.

Semianthracite.

Block.

Gannel.

Total.

Short toM.

Short tm.

Short tOM,

Short tons,

' Short tOM. 189,947.962

Illinois

a 184, 701 8,007

Ohio

Alftbama ,r. ,,t ,

Indians

M, 101, 644

Colorado

M,872

Kentnclcy

Iowa

Maryland

Tennfwee .t-,.,-,, ,

Mlnoari

Virginia.

Indian Territorv # r t

WMingtOn ,T ,,.r,-,r-,,.-,-.

Arkansas ,..T Tww-->.r-->

Utah

Montana

New Mexico

Michigan

,

Georgia

North Dakota

Calilomia

North Carolina

Alaska

Idaho

Total

a Includes 124,701 tons of semlcannel coal. Mncludes 27.482 tons of semihlock coal. 0 Includes 1,000 tons ol semicannel coal.

MIKEBAL BESOUBCEti.

IiABOB STATISTICS.

The following tables show the number of men employed and the average number of days made by each during the last four years, by States, and the total number of men employed in the anthracite and bituminous fields of the United States, with the average time since 1899:

StatiMics of labor employed in coal mines of the United States j 1899-190S.

State or Territory.

Number of days active.

Alabama

Arkansas

California

Colorado

Georgia

Idaho

Illinois

Indiana

Indian Territory

Iowa

Kansas —

Kentucky

Maryland

Michigan

Missouri

Montana

New Mexico

North Dakota

Ohio

Oregon

Pennsylrania bituminous.

Tennessee

Texas

Utah

Virginia

Washington

West Virginia

Wyoming

Total

Pennsylvania anthracite .

Grand total.

n287

&291

Average number

employed.

Number of days active.

Average number

Number of days

ployed, active.

&291

Average number

employed.

Number of days active.

a802

Average number

employed.

16,489 3,695 a2l7 8,966

a Includes Alaska.

b Includes North Carolina.

Coal. 319

Statigtics of labor employed in coal mines of the United States 1890-190S.

Pennsylvania anthracite.

Bituminous.

Year.

Number of days active.

Average

number

employed.

Number of days active.

Average

number

employed.

From the preceding tables, showing the production and the statistics of labor employed, the following table, in which is shown the average daily and annual tonnage per man, has been compiled. It shows that in 1890 the annual production per man employed in the anthracite region was 369 short tons. The average tonnage per man per day was 1.845 short tons. In the bituminous region it was 679 short tons per man per year, and 2.56 short tons per man per day. In 1901 the anthracite employees produced an average of 464 short tons per man per year. The average production per day per man was 2.37 short tons. The average production of bituminous coal per man in 1901 was 664 short tons. The average tonnage per man per day in the bituminous fields was 2.94 short tons. The average eflSciency, or daily tonnage per man, in the anthracite region has decreased from 2.50 in 1899 to 2.37 in 1901; the bituminous average has decreased from 3.05 to 2.94. On account of the long period of idleness in the anthracite region in 1902, that year does not form a fair basis for comparative statistics. It shows, however, the lowest tonnage per man for the year for the entire period since 1890. Compared with 1901 the yearly tonnage per man in 1902 shows a decrease of 40 per cent. The decrease in anthracite production was 38.8 per cent. On the other hand, an increased efficiency is shown in the labor performed during the time the mines were operated, from the fact that the daily tonnage per man increased from 2.37 to 2.4. The benefit secured by the average bituminous coal miner from the idleness of his competitors in the anthracite field is exhibited in an increased tonnage per day, from 2.94 in 1901 to 3.06 in 1902, and in an increase from 664 to 703 in the average tonnage per man for the year.

Minebal Be80Ub0E8.

Production of coal according to number of persona employed, 1890-190£.

Anthracite.

Year.

Men employed.

Days worked.

Average Average tonnage tonnage

per day. per year.

Men employed.

worked.

Average tonnage per man per day.

Average tonnage per man per year.

On account of the peculiar conditions which existed in 1902 it is believed that the following table, showing the average tonnage per man, per year and per day, in each State during 1901 and 1902, will be of interest. As having a possible bearing upon duch average capacity a statement of the machine-mined tonnage for each State in both years is also given. It should be remembered, however, that the extraordinary demand for soft coal in 1902 created a strenuousness for tonnage which to some extent overcame the influence exerted thereon by the use of mining machines. The following table shows that in addition to anthracite mining there were seven instances in which the yearly tonnage per man in 1902 was less than in 1901. In five of these instances the percentage of machine-mined coal to the total product for that State was larger in 1902 than in 1901. There were only four cases in which the average bituminous tonnage per man per day decreased, and in all but one of these the percentage of machine-mined coal was increased. The average tonnage per man per year varied from 861 in the Indian Territory to 958.8 in Maryland during 1901, and from 278.7 in Pennsylvania (anthracite) to 905 in Maryland for 1902. The daily tonnage per man was lowest in Texas for both years, namely, 1.38 and 1.43. It was highest in Maryland—3.66 in 1901 and 3.74 in 1902.

Ooal.

Average production per man compared with production

machines in 190 J and 190S

State.

Alabama

Arkaiuas

Colorado

Indiana

Indian Territory

Iowa

Kanww

Kentucky

Maryland

Michigan

Montana

New Mexico

Ohio

Pennsylvania:

Anthracite ..

Bitumlnoas .

Tennessee

Texas

Utah

Virginia ...

Washington

West Virginia... Wyoming

Average tonnage.

Per year.

Per day.

Production by machines.

Total tonnage by machines.

Per cent of machine coal to total.

COAIi-MINTNG ACCIDENTS.

In the following table is presented a statement showing the number of fatal and nonfatal accidents occurring in the coal mines of the United States during 1901 and 1902, so far as it has been possible to obtain statistics of this kind. The statement shows also the number of men killed per thousand employed, and the total number of tons of coal mined in each State for each life lost. These statistics have not been collected directly by the Geological Survey, but have been obtained from the reports of State oflScials or by correspondence with the mine inspectors or other constituted authorities. The sources of the information included in the following tables have been as follows:

Alabama, the annual report of Mr. J. De B. Hooper, State mine inspector; Arkansas, Mr. Martin Rafter, State mine inspector; Colorado, Mr. John D. Jones, State coal mine inspector; Illinois, from the annual report of Mr. David Ross, secretary of the bureau of labor statistics; Indiana, from Mr. P. H. Penna, State coal mine inspector; Indian Territory, from the report of Mr. William Cameron,

Mr 1902 21

Hinebal Besoubges.

Territorial coal mine inspector; Iowa, from the annual report of the State mine inspectors; Kansas, Mr. D. R. Castleman, the State secretary of mine industries; Kentucky, from the report of Mr. 0. J. Norwood, State inspector of mines; Maryland, Mr. James P. Carroll, State mine inspector; Michigan, from the report of the Bureau of Labor; Missouri, from Mr. Charles Evans, inspector of coal mines; New Mexico, from the annual report of the Territorial mine inspector; Ohio, from Mr. £. G. Biddison, State mine inspector; Pennsylvania, from the annual repoft of Mr. James £. Roderick, chief inspector of mines; Utah, from Mr. Gomer Thomas, State mine inspector; Washington, from Mr. C. F. Owen, State inspector of coal mines; West Virginia, from Mr. James W. Paul, chief mine inspector; Wyoming, from Mr. Noah Young, chief mine inspector.

To each of these oflScials the writer desires to express his sincere appreciation of the assistance rendered by them in the preparation of these statistics.

In the States and Territories included in the following tables the total number of lives lost in 1902 was 1,951, as compared with 1,467 in 1901; the total number of men injured was 3,643 in 1901 and 3,438 in 1902. The largest number of lives lost per 1,000 employees in 1902 was in Wyoming; the smallest number was in Missouri. The smallest production for each life lost in 1901 was in the Indian Territory, and the largest was in Maryland. In 1902 the smallest production for each life lost was in Tennessee and the largest was in Indiana. The largest number of men killed per thousand employed in 1902 was in Tennessee, where 200 men out of a total of 226 were killed by the explosions in the Nelson and Fraterville mines.

FoUal and nonfakd accidents in coal minen of United Stales in 1901.

state.

of men kUled.

Number of men injured.

Number of lives lost per 1,000 employees.

Number

of tons

mined for

each life

lost.

Fiscal ye

lar ending

Alabama

Arkansas

Colorado

imnoi85

Indiana

Indian Territory h

Iowa

Kansas

Kentucky

Maryland

Michigan

Missouri

Montana

New Mexico

Ohio

a Not reported,

Coal.

FaUU and nonfatal acddents in coal mines of UnUed Stales in 1901 — Continaed.

State.

Number of men Jdlled.

Number of men Injured.

Number of lives lost per 1,000 employees.

Number

of tons

mined for

each life

lost.

Pennsylvania:

Anthracite

Bituminous

Tennessee

Utah

Washington

West Virginia

Wyoming

Total for 18 States and Territories,

M88,668

FaOal and nonfaUd accidents in coal mines of United States in 190f,

State.

Alabama

Arkansas

Colorado

Illinois

Indiana

Indian Territory . lowao

Number of men killed.

Kentucky

Maryland

Michigan

Missouri

Montana

New Mexico Ohio

Pennsylvania: Anthracite . Bituminous.

Tennessee

Utah

Washington

Wyoming

Total for 20 States and Territories .

Number of men injured.

Number of lives lost per 1,000 employees.

Number

of tons

mined for

each life

lost.

a Not reported, b Averaged.

c Fiscal year ending June 80, 1902, taken from State report, d Includes only men so injured as to lose one month of time.

Prices.

The following tables show the fluctuations in the average prices prevailing in each State since 1898, and also the average prices for anthracite and bituminous coal in the United States since 1880. These averages are obtained by dividing the total product, including colliery consumption, into the total value.

Mikebal Sesoubges.

Average prices for coal at the mines since 1898. [Per short ton.]

State or Territory.

Alabama

Arkaxiflds

California

Colorado

Georgia

Idaho

Illinois

Indiana

Indian Territory

Iowa

Kansas

Kentucky

Maryland

Michigan

M isBouri

Montana

New Mexico

North Carolina

North Dakota

Ohio

Oregon

Pennsylvania bituminous

Tennessee

Texas

Utah

Washington

Wyoming

Total bituminous. . . Pennsylvania anthracite .

General average

a2.66

ti.io

a2.65

tl.20

a 8. 14

e2.50

a Includes Alaska. Mncludes North Carolina.

o Includes Nebranka. Included in Georgia.

Average price per short ton of coal in United States for 23 years.

Year.

Anthracite.

tl.47

inous.

Year.

Anthracite.

Bituminous.

Jil

jiLized by

Ooa.L. 325

COAIi MUTED BY MACHINES.

Although there were a number of States in which there wan a decided decrease in the use of mining machines in 1902 as compared with 1901, the total for the United States exhibits a marked increase in the number of machines used, in the machine-mined product, and in the percentage of machine-mined coal to the total output. The States in which the number of machines and the machine-mined tonnage decreased in 1902 were, with the exception of Wyoming, States in which comparatively little development in the mechanical production of coal had been made. All of the States where the use of machines had exerted any significant effect upon the production prior to. 1902 showed substantial increases in that year. Ohio enjoys the distinction of the largest proportionate production by the use of machines, more than hf the product of that State in 1902 having been machine mined. Ohio also stands second in the total of machine-mined coal, Pennsylvania being first Illinois ranks third in the amount of coal produced by machines. West Virginia fourth, Kentucky fifth, and Indiana sixth. It will be noted that these six States comprise the well-known ''competitive" coal fields. They produced 75 per cent of the total output of bituminous coal in the United States and 94 per cent of the total machine-mined tonnage in 1902.

The total machine-mined product reported for 1902 was 69,611,682 short tons, an increase, as compared with 57,843,335 short tons in 1901, of 11,768,247 short tons, or 20 per cent. As the total production of bituminous coal in the United States in 1902 was 15 per cent larger than in 1901, it will be seen that, on the whole, the production by the use of machines has more than kept pace with the increased output. In fact, as shown in the following table, the percentage of the machinemined product to the total output has increased from 25.68 in 1901 to 27.09 in 1902.

The statistics for 1902 as compiled in the following tables have all been obtained from the reports of the coal-mine operators to the Geological Survey. It is possible that the falling off in machine production in some States has been due to the failure of operators to reply to this particular inquiry on the Survey schedules. Where no machines have been reported, it has been considered that none was in use, although the same mines may have reported the use of machines in

Of the 5,418 machines in use in 1902, 3,185 were of the "pick" or *'puncher" type, 2,182 were chain-breast machines, and 51 were of the long-wall design.

The statistics in regard to the production of coal by machines in the last five years are presented in the following tables, which show the number of machines in use, the number of tons mined by machines, th6 total production of the States in which machines were used, and the percentage of the machine-mined product to the

Mineral Be80Ub0Es.

Bituminous coal mined by machines in the United States in JS9S, J899, 1900 1901, and

State.

Alabama

"Arkannw

Colorado

Indiana

Indian Territory

lowa

Kansas

Kentuclcy

Maryland

Michigan

Missouri

Montana

New Mexico

North Dakota ...

Ohio

Pennsylvania ...

Tennessee

Texas

Utah

Virginia

Washington

West Virginia... Wyoming

Number of machines in u."e,

l6

State.

Alabama

Arkansas

Colorado

Illinois

Indiana

Indian Territory .

Iowa ,

Kansas

Kentucky

Maryland

Michigan

Missouri

Montana

New Mexico

North Dakota . . . .

Ohio

Pennsylvania —

Tennessee

Texas

Virginia

Washington

West Virginia Wyoming ,

Totol 82,413,144

Number of tons mined by machines.

Coal.

Bituminous coed viined by machines in the United States in 1898, etc. — Continued.

State.

Alabama

Colorado

niinola

Indiana

Indian Territory .

Iowa

Kanaafl

Kentucky

Maryland

Michigan

Minourl

Montana

New Mexico

North Dakota . . . .

Ohio

Pennsylvania

Tenneaiee

Texas

Utah

Virginia

Washington

WestVlqrinia Wyoming

Total.

Total tonnage of States using mining machinery.

6,535,288 1,205,47V 4,076,847 18,509,299 4,920,743 1,881,466 4,618,842 8,406,555 8,887,906

State.

Percentage of total product mined by machines.

Alabama

Arkansas

Colorado

nunols

Indiana

Indian Territory lowa

Kentucky

Maryland

Michigan

Missouri

Montana

New Mexico... North Dakota..

Ohio

Pennsylvania .

Tennessee

Texas

Utah

Virginia

Washington . . . West Virginia. Wyoming

Average.

ABTIFICTAIi FUEIiS.

In this report for 1901 all the information obtainable on the manufacture of fuel briquettes was ven in a brief paragraph, which stated that the manufacture of artificial fuel had made little or no progress in the United States, the chief reason being the cheapness and superiority of raw fuels. Since that paragraph was written the conditions have undergone several changes, some of which are of considerable importance. From one cause or another or from a combination of a number of causes the cost of coal to the consumer in 1902 was higher than for many years. Prices have been advancing steadily since 1898, and in 1902 the average selling value per ton at the mines for both anthracite and bituminous coal was 40 per cent higher than in 1898. The altered conditions affecting the consumption of anthracite are referred to elsewhere in this report, and statistics are given showing to what an extent the small sizes of anthracite coal formerly wasted are now being utilized and how these are being recovered by washeries from the old culm banks in the anthracite region. There is, however, a large amount of coal lost in the form of dust or finely pulverized material which may be utilized if it can be put into convenient shape for domestic consumption. The slack now wasted or sold for little or nothing at many of the bituminous mines in the United States can be utilized to advantage if compressed into briquettes; and results obtained in foreign countries in the use of lignite and peat in briquetted form should encourage the producers in this country to similar methods. And in fact there are many indications that the time is not far distant when these now neglected fuel resources will be utilized. This is particularly true in regard to the bituminous slack and lignites of the Middle West and Rocky Mountain States. Some of the more important producers in those sections have been making investigations of the subject with the idea of ascertaining the most practical and economical methods to apply to their particular products. It is understood that an important feature of the mining exhibit at the Louisiana Purchase Exposition will consist of a series of practical tests of ores and other minerals, and prominent among these will be tests for making briquettes with different fuels and binding materials.

Coal. 829

The scenes of the principal labor diflSculties in 1902 were laid in the anthracite regions of Pennsylvania, the New and Kanawha river districts of West Virginia, and in the State of Michigan: The anthracite troubles resulted in a decrease of nearly 40 per cent in production to the operators as compared with 1901; 145,000 men were made idle for 98 working days (based on an average of 4 working days for each man a week); and the public was put to greater inconvenience and annoyance for want of fuel than had ever been known before in the history of the country. The strike in the anthracite region of Pennsylvania in 1902 will be long remembered by operators, miners, and the public as one of the most stubbornly contested struggles between employers and employees that has ever taken place in the United States, and it was finally terminated through the friendly intervention of President Boosevelt, acting in the capacity of a private citizen. The total number of working days lost by this strike is estimated at 14,210,000, which, at an average of $2.50 a day, meant a loss of about 5,000,000 in wages.

The strikes in West Virginia were for the purpose of forcing a recognition of the union upon the operators. This was finally accomplished in the Kanawha River, but in the New River district the attempt failed of its purpose. The time lost in West Virginia in 1902 was nearly twice as much as that lost by strikes in all the United States in 1901. The estimated loss of tonnage for the State caused by the strike was about 4,500,000 tons, although on account of increased activity in other portions of the State there was no actual decrease in output as compared with 1901. The principal issue involved in the Michigan strike was the delivery of mine cars, the miners claiming that the companies should deliver the cars to and take them from the working places, instead of to and from the room entrances. The strike was lost. Michigap's production, which has only been developed to proportions of importance during the last three or four years, lost nearly 25 per cent in tonnage by the strike of 1902.

The statistics of labor troubles in the coal mines of the United States in 1901 and 1902 are shown in the following tables:

Statistics of labor strikes in Vie coal mines of Uie Ihited Slates in 1901,

State or Territory.

Number of men on strike.

Total dajB lost.

Average number of days lost per man.

Alabama

Colorado

Indiana

Iowa

Kansas

Kentucky

Missouri

Montana

New Mexico.. North DakoUi.

Ohio

Pennsylyanla.

Tennessee

Texas

Utah

Vliginla

West Virginia Wyoming

Total ...

gss

SUdislics of labor strikes in the coal mines of the United States in 190f.

State or Territory.

Nuifiberof men on strike.

Total days lost.

Average number of days lost per man.

Alabama

Arkansas

Colorado

Illinois

Indiana

Indian Territory

Iowa

Kansas

Kentucky

Maryland

Michigan

Missouri

Montana

New Mexico

North Dakota

Ohio

Pennsylvania bituminous. Tennessee

Texas

Viiginia

Washington

West Virginia

Total

Coal. 381

Imports And Exports.

The following tables have been compiled from official returns to the Bureau of Statistics of the Department of Commerce and Labor, and show the imports and exports of coal from 1867 to 1902, inclusive. The values given in both cases are considerably higher than the average "spot" ratea by which the values of the domestic production have been computed.

The tariff from 1824 to 1843 was 6 cents per bushel, or $1.68 per long ton; from 1843 to 1846, $1.75 per ton; 1846 to 1857, 30 per cent ad valorem; 1857 to 1861, 24 per cent ad valorem; 1861, bituminous and shale, $1 per ton; all other, 50 cents per ton; 1862 to 1864, bituminous and shale, $1.10 per ton; all other, 60 cents per ton; 1864 to 1872, bituminous and shale, $1.25 per ton; all other, 40 cents per ton. By the act of 1872 the tariff on bituminous coal and shale was made 75 cents per ton, and so continued until the act of August, 1894, changed it to 40 cents per ton. On slack or culm the tariff was made 40 cents per ton by the act of 1872; was changed to 30 cents per ton by the act of March, 1883, and so continued until the act of August, 1894, changed it to 15 cents per ton. The tariff act of 1897 provides that all coals which contain less than 92 per cent fixed carbon, and which will pass over a half -inch screen, shall pay a duty of 67 cents per ton. Slack or culm was not changed by the act of 1897. Tons are all 2,240 pounds. Anthracite coal has been free of duty since 1870. During the period from June, 1864, to March, 1866, the reciprocity treaty was in force, and coal from the British possessions in Nortii America was admitted into the United States duty free. A special act of Congress placed all coal on the free list for one year from January 1, 1903, in order to relieve the shortage caused by the anthracite strike of 1902.

The exports consist both of anthracite and bituminous coal, the amount of bituminous being the greater in the last few years. They are made principally by rail over the international bridges and by lake and sea to the Canadian provinces. Exports are also made by sea to the West Indies, to Central and South America, and elsewhere.

The imports are principally from Australia and British Columbia to San Francisco, from Great Britain to the Atlantic and Pacific coasts, and from Nova Scotia to Atlantic coast points.

The statistics of the exports for 1902 show that the amount of anthracite exported decreased from 1,993,307 long tons in 1901 to 907,977 long tons in 1902, a loss of- 1,085,330 tons, or nearly 57 per cent. The enormous home demand for bituminous coal in 1902, added to the almost constant shortage of cars, caused a slight decrease in the export trade of that conmiodity also. The amount of bituminous coal exported in 1902 was 5,218,969 long tons, a decrease of 171,117 long

Ic

Minebal Resources.

The imports of anthracite coal are comparatively insignificant. A considerable increase has been shown in the last two years in the imports of bituminous coal, due to the establishment of the plant of Otto-Hoffman coke ovens by the New England Gras and Coke.Gompany at Everett, Mass., the fuel for which is brought from the mines of Cape Breton, Nova Scotia. The amount of this fueK brought to the port of Boston in 1902 was 1,001,520 long tona, about half of which was slack used in the coke ovens at Everett.

Coal imported and entered for consumption in the United States, ISSJ-IOOS,

Year ending-

Anthracite.

Quantity. Value.

Bituminous and shale.

Quantity. Value.

June 30, 1867.. 1872., 1874- , 1876.,

Dec. 31, 1

Long tons.

a 170. 211

' 1,001,374

a IncludeH 93,571 tons of anthracite containing less than 92 per cent fixed carbon, imported duty free under the special act of 1902. b Includes 767,582 tons of slack or culm paying f> screen.

Coal.

Coal of domestic production exported from the United States, 1867-190S.

Year ending-

Anthracite.

Quantity. Value.

Bituminous and shale.

Quantity.

Value.

June 80, 1867.

Dec. 31, 1886.

COAIi PRODUC?nON OF MEXICO.

Owing to the fact that the Mexican Government does not maintain any bureau for the collection of mining statistics, other than for the precious metals, there are no oflBcial records regarding the coal output of that country. Mr. Edwin Ludlow, general manager of the Mexican Coal and Coke Company, of Las Esperanzas, Coahuila, has, however, taken considerable trouble to obtain for this report all the information possible regarding the developments of the coal-mining industry in that country. Mr. Ludlow places the total production of coal in Mexico for the year ended December 31, 1902, at 709,654 metric tons (equivalent to 782,252 short tons), all of which three companies operating in the State of Coahuila.

The workable coal fields of Mexico from which any production has so far been obtained are found almost exclusively in the eastern part of the State of Coahuila, mining having commenced on the completion of the Mexican International Railroad in 1884. The first company to produce any coal in this region was known as the Sabinas Coal Mines. This company went out of existence in 1887, being succeeded by the Coahuila Coal Company in June of that year. The Sabinas Coal Mines produced in the three years of their existence a total of 101,000 metric tons. The next company to begin the production of coal was the Alamo Coal Company, whose operations began in March, 1888. It ' was followed by the Fuente Coal Company in 1894.

The controlling interest in all of these companies was owned by the late C. P. Huntington, and they were operated in connection with the Mexican International Kailroad, of which Mr. Huntington was also the principal stockholder. The output of these mines has been as follows:

Metric tons.

Sabinas Coal Mines, from 1884 to 1887 , 101,000

CJoahuila Coal Company, from Jmie, 1887, to December 31, 1902 1, 943, 000

Alamo Coal Company, from March, 1888, to December 31, 1902 1, 017, 000

Fuente Coal Company, from Jmie, 1894, to December 31, 1902 793, 000

Total 3,864,000

-Included in the output of Coahuila Coal Company is the tonnage used in making 325,000 tons of coke.

The next company to begin operations was the Mexican Coal and Coke Company, which was organized under a chai-ter from the State of New Jeraey by New York capitalists in the fall of 1889. This company built 10 miles of railroad from the station of Barroteran on the Mexican International Railroad, about 90 miles south of Eagle Pass, to the Las Esperanzas coal fields of which it had secured control. Shipments begun in June, 1900, and the total output of coal and coke from these mines from that date to the close of 1902 has been as follows:

Production of the Las Esperanzas coal mines from June, 1900, to December 31, 190,

Year.

Sold.

Coked.

Total.

Coke.

Total

Coal.

The total output of coal f oj-the mines connected with the Mexican International Railroad and those of the Las Esperanzas district has therefore been 4,548,945.6 metric tons, or 5,014,302 short tons, to December 31, 1902. The Mexican Coal and Coke Company exported to the United States 2,271 metric tons of coke, most of which was sold to foundries in Texas and to smelters in Arizona.

The total production of the coal mines of Mexico for the year ending December 31, 1902, has been as follows:

Production of coal in Mexico, 1909, [Metric toDB.]

Coal.

Coke.

Omhnllii And Coke Co

Faente Coal Co

M ezln Owl mid Coke

Total

The coal used in the manufacture of coke shown in the above table is included in the production of coal. The Coahuila Coal Company owns 120 ovens, 60 of which were in operation in 1902, and the Mexican Coal and Coke Company has 226 ovens, 200 of which were in active operation on December 31 of last year.

A Government report of the importation of coal and coke through the various custom-houses of the Republic during the fiscal year ending June 30, 1902, shows that the consumption exceeded the production by 761,938 tons of coal and 175,395 tons of coke.

Ic

Mineral Resources.

The detail of importation of coa] and coke through the various custom-houses for the fiscal year 1902 was as follows:

Imports of coal and coke into Mexico in 190. [Metric tons.]

Custom-houFe.

Coal.

Coke.

Ciudad Jaares

Cludad Porfirio Diaz

Laredo

Tampioo

Veracruz

Total

Production of mines in Mexico

Total consumption of Mexico.

These figures are complete, with the exception of the coal and coke imported into the State of Sonora for the mines and smelters of the Cananea Consolidated Copper Company and for those of Phelps, Dodge & Co., as it was impossible to obtain the figures from the customhouses through which the imports were made.

Ic

Ooal.

WOBM>'S PRODUCTION OF COAIi.

. In the following table is given the coal production of the principal countries for the years nearest the one under review for which figures could be obtained. For the sake of convenience the quantities are expressed in the unit of measurement adopted in each country and reduced for comparison to short tons of 2,000 pounds. In each case the year is named for which the production is given:

TTie worUPs production of coaL

Country.

do...

other countries a do...

Total

Percentage of the United States.

Usual unit in producing country.

So. 196. 994

Equivalent in short tons.

a Includes China, Turkey, Servia, Portugal, United States of Colombia, Chile, Borneo and Labuan, Peru, Greece, etc.

It will be seen from this table that, the United States is now producing a little more than one-third of the entire coal supply of the world and stands well in the lead of all the coal-producing countries. This country passed Great Britain in 1899, that country having until that year led the world in the production of coal. Since that time the United States has annually increased its lead and in 1902 exceeded its former rival by 47,000,000 short tons. If to the production of Great Britain in 1902 is added that of Canada, India, New South Wales, and all her other dependencies for the latest years for which the statistics are available, the production of the British Empire is found to have been 280,866,897 short tons, an amount exceeded by the United States in 1902 by 20,723,542 short tons, or nearly 8 per cent. by M B 1902 22

Mineral Besouboes.

The steps by which the United States has attained its present rank among the coal producing countries of the world are exhibited in the following table, which shows the production of each country for each year for which the figures are obtainable since 1868. At the beginning of that period the United States held third place, with Great Britain first and Germany second. The latter country was permanently displaced in 1877, although in four years previous to that date, in 1871, 1872, 1873, and 1874, our production had exceeded that of Germany. In 1902 the United States produced more than 80 per cent more coal than Germany.

In 1868 Great Britain produced 3.6 times as much coal as the United States. In 1880 Great Britain's product was 2.3 times that of the United States. In 1890 it was a little more than 1.4 times as much as ours, but in 1900 the United States produced about 7 per cent more coal than Great Britain. In the thirty-five years from 1868 to 1902, inclusive, the coal production of the United Staftes increased 852 per cent, while that of Great Britain increased only 120 per cent. In 1868 the United States produced 14.36 per cent of the total world's supply of coal, and Great Britain produced a little over 50 per cent. In 1902 the United States produced 34 per cent of the total world's supply and Great Britain not quite 29 per cent.

Worlds 9 production of coal, by countries, 1868-190S.

Year.

United states.

Long tons. Short tons.

Great Britain.

Long tons. Short tons.

Germany.

Metric tons. Short tons.

108,141,157 107,427,557 110,431,192 117,852,028 123,497,316 128,680,131 126,690,108 133,306,485 184,125,166 134,179,968 132,612,063 133, f 20, 393 146,969,409 154.184,300 156,499,977 163,737,327 160,757,779 169,351,418 157,518,482 162,119,812 169,935,219 176,916,724 181,614,288 185,479,126 181,786,871

U&#x27;

Coal.

WorUTspraduciion of coal, by oountriea, 18$8-190g—Contmued.

Year.

United States.

Long tons. Short tons.

Great Britain.

LonsT tons. Short tons.

Germany.

Metric tons. Short tons.

Year.

Austria-Hungary.

Metric tons. Short tons.

France.

Metric tons. Short tons.

Belgium.

Metric tons. Short tons.

Minebal Besouboes.

Worlds 9 production of coal, by countries, 1868-190S. — Continued.

Year.

Metric tonB. Short tons.

Japan.

Metric tons. Short tons.

Other countries.

Short tons.

Total.

Short tons.

Percent

of United

States.

473,895 638,610 735,922 1,143,447 l,272,38d 1,400,620 1,844,475 1,968,251 1,939,824 2,738,141 3,169,466 3,570,413 3,792,365 4,049,24f 4,317,606 4,266.332 4,639,216 4.967,895 4,921,762 6,719,011 6,862,674 6,633,219 6,871,905 7,614,996 8,807,837 9,609,168 10,006,210 10,170,358 12,360,638 13,662,810 16,730,846 17,799,016 17,9M,201

a Latest available figures are used in making up totals for 1901.

h This Includes, in addition to the countries named on the following pages, the output of Holland, 862,888 tons; Natal, 637,604 tons (1901), 663,960 tons (1902); Cape Colony, 222,265 tons; Tasmania, 48,171 tons; China, Turkey, Servia, Portugal, etc. (estimated), 2,240,000 tons; total, 3,600.828 tons (1901).

Coal.

ProducUon of minor coalffroducing cowrUtria 18$S-190fi.

Year.

New South Walee.

Long toDB. Short tons.

Long tons. Short tons.

New Zealand.

Long tons. Short tona.

1,068,789 1,080,147 972,791 1,006,688 1,188,917 1,886,006 1,461,115 1,480,296 1,478,806 1,617,684 1,764,666 1,778,887 1,642,122 1,961,949 2,862,396 2,824,082 8,079,002 8,224,827 8,169,796 8,278,197 8,667,867 '4,094,806 8,428,181 4,622,480 4,234,684 3,671,727 4,112,726 4,1,040 4,378,659 4,909,622 6,804,820 6,146,671 6,168,897 6,664,687 6,666,062

8U,412

Production of minor codlrprodueing eauniries,

Year.

Victoria.

Canada.

India.

Spain.

Short tons.

eOiort tons.

Long tons.

Short tons.

Metric tonn.

Short tons.

Goal.

Production of minor ooairprodudng countries, 186&-190S— Continued.

Year.

Italy.

Sweden.

South African Republic.

Metrlo tons.

Short tons.

Metric tons.

Short tons

Long tons.

Short tons.

COAIi REVIEW.

The strike in the anthracite region was the overshadowing factor connected with the coal trade of the United States in 1902. Its influence was felt not only throughout the States of the Atlantic seaboard, where anthracite is the chief domestic fuel, but beyond the Mississippi River. The elimination of over 25,000,000 tons of anthracite coal from the fuel supply of the eastern States naturally created a demand upon the bituminous fields nearest to those markets. Attracted by the high prices obtainable in the eastern cities, a large amount of soft coal mined in Pennsylvania, Maryland, Virginia, and West Virginia was diverted from its customary channels, which in turn had to be supplied from the mines of Ohio, Indiana, Illinois, and Kentucky. To further complicate matters and render conditions

Mineral Besouboes.

even more serious, there was, throughout almost the entire year, an inadequate supply of transportation facilities. The phenomenal industrial activity since 1897 had outstripped the capacity of the railroad companies in both motive power and rolling stock, the builders of which were unable in turn to meet the demands put upon them by the railroad companies.

An interesting feature of the development of our coail-mining industry during the last two decades has been the comparative decline in the production of anthracite. The output has increased, it is true, and in somewhat greater proportion than the increase of population, but as compared with the production of bituminous coal anthracite mining has shown a decreasing tendency. In order to illustrate this the following table has been prepared in which the output of anthracite and bituminous coal is shown in 1880, the average by five-year periods from 1881 to 1900, and the total production in 1901 and 1902. This table shows that the average production in the five years from 1881 to 1885 was about 7,500,000 tons more than that of 1880. The average annual production from 1886 to 1890 was 6,000,000 tons more than that for the five years previous. The average for the next five years shows an increase of over 11,250,000 tons, but in the period from 1896 to 1900 the increase is only a little more than 2,200,000 tons. Comparing this with increase in bituminous production shows that in 1880 the total amount of bituminous coal mined was about one and one-half times that of the anthracite. The average production from 1881 to 1885 was nearly double that of anthracite, and from 1886 to 1890 it was two and one-fourth times the anthracite production. In the period from 1896 to 1900 the bituminous production was more than three times that of anthracite, and in 1901 the production of bituminous coal was about three and one-third times that of anthracite. On account of the great loss to the anthracite trade by the strike of 1902 the comparison with bituminous production in that year is not a fair indication of the average conditions. Bituminous production laat year was more than six times that of anthracite.

OomparaJtive increases in (he production of anthracite and bUuminotu coal.

Period.

Anthracite.

Bituminous.

47,508,138 70,856,570 9<, 488, 681 125,216,327 171,498,143 225,828,149 260,216,844

uogle

Goal.

In the following table shown a statement of the coal receipts iii some of the principal cities of the United States since 1898:

OocU receipts at imporumt centers, 1898-190B.

18W.

Increaae,

Decreaae,

Anthraeite

Anthracite

Bitominons ,

Anthracite ,

Bttominoos ,

Anthracite

Bitmninons

Anthracite ,

Bitaminona

Anthracite

Bitominons

Anthracite

Bitominons

a Including foreign (mostly Nova Scotian) coal imported, which amounted to 1,001,520 long tons in 1902, 588,031 long tons in 1901, 551, 817 tons in 1900, and 201,671 in 1696. Prior to 1896 such receipts were insignificant.

fr Anthracite and hituminoua.

Ic

PRODUCTION OF COAXi BT bTATES.

Including Alaska, where a small amount of coal was mined, there were 30 States and Territories which contributed to the total coal production of the United States in 1902. Of these there were only 9 in which the output was less than 1,000,000 tons. Four States — Pennsylvania, Illinois, West Virginia, and Ohio — each produced over 20,000,000 short tons, Pennsylvania's output being nearly seven times that amount. Alabama reached a total of 10,000,000 tons for the first time in her history, and Indiana passed 9,000,000 tons for the first time. Colorado exceeded 7,000,000 tons, and 4 other States— Iowa, Kansas, Kentucky, and Maryland — each produced over 5,000,000 tons. The 6 most important producers are all east of the Mississippi, and all but 2 of them — Illinois and Indiana — belong to the Appalachian system. There are 13 coal-producing States east of the Mississippi River and 17 coal-producing States and Territories west of it. The 13 States east of the river produced in 1902, 261,786,404: short tons, or 86.8 per cent of the total product, and the 17 States west of the river produced 39,805,035 short tons, or 13.2 per cent of the total.

In the following tables are shown the statistics of production in the Eastern States divided by the Ohio and Potomac rivers, and in the States west of the Mississippi River. The figures are given for the years 1880, 1890, 1900, and 1902. An interesting feature of this statement is the percentage of increase shown between 1880 and 1902 in these different sections. The States east of the Mississippi River and north of the Ohio and Potomac rivers have a little more than trebled their production. The States west of the Mississippi have increased their production eight and one-half, and in the States east of the Mississippi and south of the Ohio and Potomac rivers the production in 1902 was thirteen times that of 1880.

Goal.

Coal production in States north of Ohio and Potomac riven in 1S80, 1890, 1900 j and 190S,

State.

Quantity.

Value.

Quantity.

Value.

Illinois

Indiana

Maryland

Michigan

Ohio

Pennsylvania:

Anthracite

Bltominouji

Total

State.

niinoia

Indiana

Maryland

Michigan

Ohio

Pennsylvania:

Anthracite

Bituminous

Total

Short Urns, 6,116,877 1,464,327 2,228,917 100,800 6,008,696

Short txma. 16.292,420 8,806,737 3,867,818 74,977 11,494,506

Quantity. Value.

Quantity.

Value.

Short tffM,

S49,476

Short toM, 82,939,373 9,446,424 6,2n,609 964,718 23,619,894

Coal production in States south of Ohio and Potomac rivers, 1880, 1890, 1900, and 190,

state.

Quantity.

Value.

Quantity.

Value.

Alabama

Georgia

Kentucky

North Carolina

Tennessee

Viiginla

West Virginia

Total

state.

&

Qeoigia

Kentucky

North Carolina

Tennessee

Virginia

West Virginia

Total

Short toM.

Short tout.

Quantity.

Value.

Quantity.

Value.

Short tons.

Short tons.

MnTEBAL BESOUBOES.

Cbal production in Suae west of Mmssippi River, 1880, 1890, 1900, and 190fS.

state.

Arkimflas

California

Colorado

Idaho

Indian Territory.

Iowa

Kansas

Missouri

Montana

Nebraska

New Mexico

North Dakota

Oregon

Texas

Utah

Washington

Wyoming

Quantity.

Short totu.

Value.

Quantity.

SJiorttotu.

Value.

Total.

State.

Quantity.

Value.

Quantity.

Value.

Arkansas

California .

Colorado

Idaho

Indian Territory .

Iowa

Kansas

Missouri

Montana

Nebraska

New Mexico

North Dakota...,

Oregon

Texas ,

Utah

Washington ,

Wyoming ,

Total,

Short ioM. 1,447,945 172,908 6,244,864 1,922,298 5,202,989 4,467,870 3,540,106 1,661,776

Shorttona, 1,943,982 a 87, 196 7,401,843 2,080 2,820,666 5,904,766 6,266,065 8,890,154 1,660,823

a Includes Alaska.

The production of coal in the several States and Territories in 1902 and preceding years is discussed with more detail in the following

Goal. 349

Alabama.

Total production in 1902, 10,354,570 short tons; spot value, $12,419,666.

For the first time in the history of the State the output of coal in Alabama in 1902 reached a total exceeding 10,000,000 short tons. The rise of Alabama as a coal-producing State forms one of the interesting chapters of our industrial development. Prior to the civil war little, .if any, coal was mined in any of the Southern States. Some coal was probably produced in Alabama during the war, but there are no official records of the amount mined. The coal-mining industry in the State may be said to have had its birth in 1870, when, according to the Ninth United States Census, the production amounted to 13,200 short tons. In the first decade following that date the production gradually increased, until in 1881 it had reached a total of 420,000 tons. Discoveries, about this time, of rich iron-ore deposits created a boom in the coal-mining industry and stimulated development and production, until, in 1885, the output of coal amounted to nearly 2,500,000 tons. Then followed the inevitable reaction, the boom collapsed, and the coal production in 1886 fell oflf to 1,800,000 tons.

With a return to normal conditions the coal-mining industry revived upon a conseiTative and rational basis, and production has increased with the healthful industrial development of the State until in less than a third of a century the output has grown to a total of 10,354,570 short tons. For several years Alabama has ranked fifth among the coal-producing States, being preceded by Pennsylvania, Illinois, West Virginia, and Ohio. In the manufacture of pig iron Alabama ranks fourth, being exceeded only by Pennsylvania, Illinois, and Ohio.

Compared with 1901 the production of coal in Alabama for 1902 shows an increase of 1,255,518 short tons, or 13.8 per cent. The output of 1901 exceeded by 704,777 short tons, or 8.4 per cent, that of 1900, which in turn exceeded that of 1899 by 800,859 short tons, or 10.5 per cent. The tonnage of 1902 shows a gain of over 36 per cent as compared with 1899. In each of the last eight years the coal production of Alabama has been the maximum up to that time.

Notable as was the amount of production in 1902, it was surpassed by the increase in value which, influenced partly by the extraordinary demand for fuel and partly by increased cost of mining, advanced from $10,000,892 in 1901 to $12,419,666 in 1902, a gain of $2,418,774, or 24 per cent, as compared with the increase of 13.8 per cent in quantity produced. The average price per ton in 1902 ($1.20) was the highest obtained since 1887, a period of fifteen years.

Including the number of men employed in the small local banks there were 16,439 men engaged in coal mining in 1902, against 17,370 in 1901, when men working at country banks were.jjit xg

The average number of working days for each employee was 256 in 1902, against 236 in 1901. From these data it is deduced that the average tonnage per each employee was 630 in 1902 and 524 in 1901. The average tonnage per day per man was 2.46 in 1902 and 2.22 in 1901, an increase in daily productiveness per man of a little more than 10 per cent.

This increase in productive capacity per employee was apparently due to a greater "intensity of labor" on the part of the men. The statistics relating to the use of machines show that the total tonnage mechanically undercut in 1902 was only slightly greater than that of

1901, the figures being, respectively, 289,061 in 1901 and 300,670 in

1902. The number of machines in use in 1902 was 66, against 82 reported for the preceding year. The latter figure, however, was evidently erroneous, as the returns for 1 902 indicate that some machines were moved from one mine to another belonging to the same company in 1901, and were reported separately from each mine, having been in use at several different mines during the year. This is also shown by the fact that only 54 machines were used in 1900.

There were two periods of labor disturbances worthy of note in the coal mines of Alabama during 1902. The first one was caused by the demand 6f the miners' union for an 8-hour day, a semimonthly pay day, and an advance from 55 to 60 cents per ton in the maximum rate to be paid for mining coal. The rates for mining are fixed by fluctuations in the price of pig iron, with a minimum and maximum limit. As the operators refused the demands of the union, a strike was called, to go into effect July 1. The strike was settled on July 11 by mutual concessions and work was resumed July 14. The other notable strike was one ordered against the Tennessee Coal, Iron and Railway Company because of the refusal of that corporation to withhold from the pay of its men, unless instructed to do so by the men themselves, an assessment of $1 each, levied against them by the United Mine Workers for the benefit of the men on strike in the anthracite fields of Pennsylvania. Other strikes of minor importance due to local causes occurred during the year. The total number of men idle by reason of strikes during the year was 6,059 and the aggregate time lost amoimted to 139,783 working days. Except for this lost time, the production of coal in the State in 1902 would have been further increased by about 340,000 tons, bringing the total up to nearly 10,700,000 short tons.

In the following tables is presented a statement of the production of coal in Alabama during 1901 and 1902, by counties, showing the distribution of the product for consumption, the value, and the statistics of labor employed in the State. This table shows that in 1902 there were 2,760,298 short tons made into coke. The actual amount of coal made into coke in this State last year was 4,237,491 short tons. This difference is due to the fact that a large amount of coal is shipped from the mines to ovens at a distance. Many of the ovens are located in the

Ooal.

vicinity of Birmingham, and the coal is shipped to them from the mines, some distance away. In these cases the coal is reported on the coal schedules as shipped from the mines. In 1901 the amount of coal made into coke in Alabama was short tons, though it appears in this report as 2,182,477 short tons.

Coal production of Alabama in 1901, by counties.

County.

Loaded at mines for shipment.

Sold to local trade and used

by employees.

Usedat mines

for steam

and heat.

Made into coke.

Total quantity.

Total value.

Averprice ton.

Average number of days active.

Average numberof employees.

Bibb

Short ton*.

Short

Short totu.

Short tons.

Short tons.

Blount and Cullman.

Etowah

Jefferson

Marion and Winston.

Shelby

Tuscaloosa

Walker

Small mines

Total

Coal production of Alabama in IdOS, by counties.

County.

Sold to local trade and used

by employ-

Used at mines

for

steam

and

heat

Made into coke.

Total quantity.

Total value.

Average

per ton.

Average number of days active.

Average number of employ.

Bibb

Etowah

Jefferson

St. Clair

Shelby

Tuscaloosa

Walker

Winston

Blount, Cullman. and Marion

Short ton$.

Short tona.

Short

tOM.

Short tons.

Short

tOM.

Total ,7,271.146

In the following table is presented a statement of the distribution of the coal product of Alabama for a period of fourteen years. As previously stated, the amount reported as loaded at mines for shipment includes considerable quantities of coal shipped to other points m the State and there made into coke. About one-third the amount of coal

Hinebal Besoub0S8.

that finally goes into coke is reported in the coal shipped from the mines.

DistrilmHon of the coal product of Alabama, 1889-1902,

Year.

Loaded at mines for shipment.

Sold to

local

trade

and

used by

employees.

Used at

mines

for

and heat.

Made into coke.

Total quantity.

Total value.

Averpnce

Average number of days active.

Average

of employees.

Short torn.

Short tons.

Short tons.

n.io

In the following table is shown the total production, by counties for the last five years, with the increases and decreases in 1902 as compared with 1901. The most notable increase in 1902 was in Walker County, where the gain in output amounted to 619,951 short tons, or nearly 50 per cent. Other important increases were in Jefferson County, 306,821 tons, and Bibb County, 228,554 tons. Production increased in every county of the State except Shel by and Winston. The apparent decrease in the production from small mines is due to the distribution of this factor among the several counties in 1902.

Coal production of Alabama, 1898-190£, by counties. [Short tons.]

County.

Increase in 1902.

Decrease in 1902.

Bibb

a28,220

a49,863

a268,178

Blount

Cullman

Etowah

Jefferson

St. Clair

Shelby

Tuscaloosa

Walker

Winston

Small mines

Total

a Includes production of Marion County. r-v r-v rr 1

b Small-mine production included in county di8tributioi.by IC

Net increase.

Goal.

In the f oUowiDg table is shown the total production of Alabama since 1870:

Annual coal prodttcUon of Alabama 1870-190S,

Quantity.

Year.

Quantity.

Short Urns.

Alaska.

There are a number of localities in the Territory of Alaska where coal seams of workable thickness and quality have been located, but it has been impossible to secure exact statistics in regard to the production. Mr. Alfred H. Brooks, of the United States Geological Survey, in his report entitled " The Coal Resources of Alaska," states that the coal mines of Alaska which have produced some coal in the past may be divided naturally into three separate provinces or districts. These are the Pacific coast district, which includes all the mines located on Pacific coast waters and one deposit at Kootznahoo Bay, one at Controller Bay, one at Homer (on Cook Inlet), and three on the Alaskan Peninsula — at Chignik River, Herendeen, and Unga Island. The second, which may be designated as the Yukon district, includes all the mines tributary to the Yukon River. Of these there are six, three of which — known, respectively, as No. 1, Williams, and Blatchford — are on the Yukon River between Anvik and Nulato. The Pickart mine is located a short distance northeast of Nulato, on the Yukon River; the Drew mine near Rampart and Nation River, between Fort Yukon and Fortymile. The Arctic coast district includes two mines, the Corwin and the Thetis, located on the Arctic Ocean near the seventieth degree of north latitude. Mr. Brooks states that at the time of his visit to the region, in 1902, the mine on Kootznahoo Bay, the only one in

M R 1902 23

a Twenty-fieoond Ann. Kept. U. S. Geol. Survey, Part UI.

southeastern Alaska, had been shut down. He also reports that at Controller Bay, 30 miles east of the mouth of the Copper River, an excellent coal has been discovered, and extensive preparations are under way for developing the field. It is probable that this mine will become a producer within a short time.

The only mines in American territory from which any production was reported for 1902 were the Williams mine, on the Yukon River below Kaltag, and the Homer property, on Cook Inlet. The firatmentioned property produced, in 1902, 1,700 tons of coal, which was used principally on the steamers plying on the Yukon River. The Pickart mine, also on the Yukon River, was operated for a short time during 1902, but was closed down in July. No exact information as to the amount of coal obtained during this time has been secured. The Homer mine, on Cook Inlet, produced 512 tons, most of which was obtained in the course of the development of the property. At this point a railway about 7 miles in length connects the mine with the navigable waters of Cook Inlet, where docks and coal bunkers have been established. The three mines on the Alaskan Peninsula have been operated at different times during the last two decades, but no production was reported from them in 1902, although the one on Chignik River is known to have produced some coal to supply the local steamers, and the same is true of the one on Unga Island. A company was organized during 1902 to extend the developments of the mines on Herendeen Bay, but no production was reported from it during the year. The two mines in the Arctic coast district have been worked from time to time during the last twenty years to supply whalers and revenue cutters, but the operations have never reached the dignity of an industry, and no record of their actual production has been secured. Some attempt, however, at systematic development has been recently made, and a small amount of coal was shipped to Nome, where it was said' to have brought a good price.

Mr. Arthur J. Collier, assistant geologist, United States Geological Survey, who made a special investigation of the coal resources of the Yukon, has published his results in Bulletin No. 218.

During the field season of 1902 Mr. Collier was able to secure more definite data in regard to the production of the different mines along the Yukon River than have heretofore been obtained. He states that the Williams mine, on the Yukon River, 50 miles below Kaltag, which was first known as the Thein mine, was the only mine in American territory on the Yukon which was worked continuously during the season of 1902. This mine was opened in 1900 and produced some coal in that year.

The Pickart mine, 10 miles above Nulato, was opened in 1898, and produced some coal each year from that time until 1902, when it was abandoned. No definite statement as to the amount of coal produced

Ic

Goal. 855

during this time has been obtained, but the output was probably between 2,000 and 3,000 tons. The first mine to be opened on the Yukon River was what is known as the Nation River mine, 62 miles below the international boundary. About 2,000 tons of coal are said to have been produced from this mine in 1897; the mine has since been shut down and is not now operated. The next mine to be opened was what is known as the Drew mine, about 25 miles above Rampart. This mine wasworked from 1897 to 1900, during which time the entire production is estimated to have amounted to about 1,200 tons. The Blatchford mine, 9 miles below Nulato, was opened in 1898 and produced some coal in 1899, 1900, and 1901. It is estimated that about 300 tons were produced at this mine during these years. What is known as Mine No. 1, about 26 miles below the Williams mine, was worked during the winter of 1898, and produce about 900 tons. Since that time it has been shut down. Mr. Collier estimates that the total amount of coal produced in American territory on the Yukon from 1897 to 1902, inclusive, is about 9,000 tons — this total being distributed annually approximately as follows:

Produdion of coal on the Yukon River ,- 18S7-190S,

Year.

Name of mine.

Quantity.

Value.

Nation Rlyer

No. 1, Drew, and Plckart

w, Plckart, and Blatchlord

Drew, Pickart, Blatchlord, and Bein .

Pickart, Blatchford, and Thein

Williams

All of these mines are located immediately on the Yukon River. The coal from them has been used principally on the river steamers, though a smaller amount has been used for domestic purposes at Dawson and other points along the river. At Dawson the coal sells at from $15 to $20 per ton. Coal delivered at the river banks from the Yukon mines sells for from $10 to $12 per ton at present, though in years past prices have been higher, and in 1900 coal was selling for $15 per ton at the Drew mine. Adding the production of the Cook Inlet mine to that of the Williams mine in 1902, the total production reported for the Territory is found to be 2,212 tons, valued at $19,048. It is known, however, that some coal was also produced at the Corwin mine, at Chignik, and at Herendeen Bay, but since no definite reports have been obtained from these localities they are not included in the above statement. The actual production in the Territory for 1902 was, therefore, probably somewhat larger than that reported.

Arkansas.

Total production in 1902, 1,943,932 short tons; spot value, $2,539,214.

Compared with 1901, the production of coal in Arkansas in 1902 shows an increase of 127,796 short tons, or 7 per cent, while the value of the product increased $470,601, a gain of 22.7 per cent. Aside from the increase in production the principal items of interest connected with the coal-mining industry of the State were (1) the practical exemption from labor troubles and (2) the decided decrease in the use of mining machines. There was only one instance reported of a suspension of work because of strike, and this was of short duration, affecting only 14 men who were idle ten days. The mechanical production of coal in Arkansas has almost disappeared. In 1900 the amount of coal undercut by machines was 219,085 short tons. In 1901 this had decreased to 102,220 short tons, aifd in 1902 only 8,989 tons were reported as machine mined.

A large part of the coal product of Arkansas consists of a semianthracite quality, which is highly prized, particularly as a domestic fuel. Its use is growing steadily, and it has largely superseded anthracite in Memphis, and in St. Louis and other large cities in the Mississippi Valley west of the river. This coal is practically smokeless, burns with a short, hot flame, and leaves a comparatively small amount of ash. Of the total product in 1902, 1,432,266 short tons, or nearly three-fourths, consisted of this semianthracite coal. As an indication of the present prosperous condition of the coal-mining industry in Arkansas it may be stated that there were 13 new firms or corporations which contributed to the product of 1902. These 13 firms had a total initial production of 150,51 short tons. Three more new operations were reported which had not reached the productive stage at the close of 1902. Of additional interest in connection with the new developments was the taking over of all the coal-mining interests of the Kansas and Texas Coal Company by the Central Coal and Coke Company, of Kansas City.

As in the case of Alabama, an increase in the intensity of labor is shown in the statistics for Arkansas in 1902 as compared with 1901, although the total tonnage per each employee for the year shows a decrease. The total number of tons mined for each man employed in 1901 was 577.7, while in 1902 it was only 540.7 tons. The average tonnage per man per day, however, increased from 2.59 in 1901 to 2.88 in 1902.

In the following tables are presented the statistics of production in 1901 and 1902, with the distribution of the product, by counties, and according to consumption:

Coal.

production of Arkansas in 1901, by counties.

County.

Loaded at mines for shipment

Sold to local trade and used by employees.

Used at

mines

for

and

heat

Total quantity.

Total value.

Averprice

Average number of days active.

Average number of employees.

8hoH

tOM,

Short

tOM,

Short

SAort toiw.

Franklin, Logan, and Pone

ftmail mines.

Total

Coal production of Arkansas in 1909, by counties.

County.

at mines for shipment.

Sold to

local

trade and

used by

employees.

Used at

mines

for steam

and heat

Total quantity.

Total value.

Average

price per ton.

Average number of days active.

Average number of employetib.

Franklin

Johnson

Logan

Pope

Sebastian

Ouachita and Scott,

Total

Shortions. ShortioM.

Short toru. 888,013 198,268 21,751 84,966 1,826,181 30,763

Since 1889, the distribution of the coal product of Arkansas has been as follows:

Distribution of the coal product of Arkansas, 1889-1909,

Year.

Loaded at mines for shipment

Sold to

local

trade and

used by

employees.

Used at mines for

and heat,

Total quantity.

Total value.

Aversge

pnce per

ton.

Average number of days active.

Average number of employees.

Shorttons.

U,T78

Shorttons.

Short tons.

fl.42

Ic

Minebal Besouboes.

The production by counties during the last five years has been as follows:

Coal production o/ArkansaSf 'lS9&-190g, by oomUies. [Short tODB.]

Ctounty.

Franklin

a 442, 466 999,479

Johnson

Logan

Pope

Onachita and Scott

Small mines

Total

a Includes also production of Logan County.

b Small mine production included with county distribution.

The earliest production of coal in Arkansas, of which there is official record, was in 1880, when the Tenth United States Census reported a total output of 14,778 short tons. Since that date the production of the State has grown to large proportions, as is shown in the following table:

Annual production of coal in Arkanms, 1880-190g, [Short tons.]

Year.

Quantity.

Year.

Quantity.

California.

Total production in 1902, 84,984 short tons; spot value, $254,350.

The increased production and consumption of petroleum in California is reflected in the decreased production of coal in the State. The coal developments in Kern County, mention of which was made in the report for 1901, had not reached a productive stage up to the close of 1902. The larger part of the production of the State continues to come from Alameda County, about 80 per cent of the output in 1902 being from that county. ic

Coal.

The statistics of production in the State since 1889 have been as follows:

Distribution of (he coal product of California, 1889-190S,

Year.

Loaded

at mines

for shipmeut

.

Sold to

local

trade and

used by

employees.

Shorliona.

Used at mines for

steam and heat.

Total qnantlty.

Short Urns.

7,b4A

Short toru. 121,820 110,711 93,301 85,178 72,603 67,247 76,468 85,992 144,288 160,716 171,708 161,079 84,984

Total value.

Average

price per ton.

Average number of days active.

Average number of employees.

The annual production since 1883 is exhibited in the following table:

Coal production of California, 188S-J90g, [Short tons.]

Year.

Quantity.

Year.

Quantity.

76,162 77,486 71,C16 100,000 60,000 96,000 121,820 110,711 93,301 86,178

Colorado.

Total production in 1902, 7,401,343 short tons; spot value, $8,397,812.

Colorado is one of the States which experienced in her coal production the full benefit of the remarkable industrial activity which prevailed throughout 1902. As compared with 1901 the production of coal in 1902 increased 1,701,328 short tons, or 29.8 per cent In this report for 1901 it was stated that the building of the extensive iron works at Pueblo would probably augment the production of

Mineral Be80Ub0E8.

diction which has been abundantly realized. In fact, the industrial development of the State as reflected in its coal production has been without interruption since 1894, the output having increased each year since that date, and the production in 1902 being more than two and one-half times that of eight years before.

In comparing the statistics for 1902 with those for 1901 a decided increase is shown in the quantity of coal produced per employee. In

1901, 8,870 men worked for an average of 253 days and produced 5,700,016 tons of coal, or at the rate of 642.6 tons per man for the year. In 1902, 8,956 men worked an average of 261 days and produced 7,401,343 tons, equivalent to 826 tons per*man. The daily average shows even more striking comparisons, the average production per day per man increasing from 2.54 tons in 1901 to 3.16 tons in

1902. A good portion of this increased capacity was due to the increased production by coal-cutting machinery. The production, by counties, in 1901 and 1902, is shown in the following tables:

Coal production of Colorcuio in 1901, by counties.

County.

Toaded at mines for shipment

Sold to

local

trade

and

used by

employees.

Used at mines

for

steam

and

heat.

Made into coke.

Total quantity.

Total value.

Averprlce

Average number of days active.

Average number

of employees.

Boulder

Short tons.

ShoH Urns.

Short tons.

Short tons.

Short tons.

Delta

Fremont

Garfield

Gimninon.

Huerfano

La Plata

Las Animas

Pitkin

Routt

Weld

Arapahoe and Lanxner

Jefferson, Rio Blanco, Mesa, Montezuma, and Montrose

Total

Ooai..

Coed production of Colorado in 190$, by counties.

Tinaded at mines for shipment.

Sold to

local

trade

and

used by

employee*.

Used at mines

for steam and heat.

Made into coke.

Total quantity.

Total value.

Averprice

Average number of

Average numbe* of employees.

Boulder

ShoH tons.

ions.

Short tons.

ShoH tons.

Short tons.

Delta.

Fremont.

Gaiileld

Hnerfano

La Plata

Animftfl ...

Boutt

Weld

Other counties a

Total

a Arapahoe, Larimer, Mesa, Montezuma, Ouray, Pitkin, and Rio Blanco.

The influence exerted by the growth of the iron industry upon the production of coal in Colorado is shown in the following table, which exhibits the distribution of the product during a period of fourteen years. The statement sbows that while the coal shipped in 1902 was about two and one-half times that of 1889, the amount of coal made into coke for blast-furnace use in 1902 was more than five times that of 1889.

Distribulion of the coal product of Colorado, 1839-190$.

Year.

Loaded at mines for shipment.

Sold to

local

trade and

used by

employees.

Used at mines

for steam and heat.

Made into coke.

Total quantity.'

Total value.

are pnce

ton.

Aver- Sige number of days active.

Aver- Age number of employ-

Short tons,

ShoH tons.

Short tons.

Short tons.

Short tons.

iigmi

Si. 54

Mikebal Besouboes.

All the coal-producing counties of any importance participated in the increased production in 1902 with the single exception of Gunnison County. The greatest gain was made by Las Animas County, whose output increased 769,133 short tons, or 31 per cent over 1901. The production of Boulder County increased 319,396 short tons, or 66 per cent, from 482,975 tons in 1901 to 802,371 tons in 1902. The other notable increases were in Huerfano County, 270,704 short tons, and Fremont County, 159,686 tons. Practically all of the increased production in Colorado during 1902 was due to the greater activity at the older mines rather than to the opening of new properties. Thirteen new mines contributed to the production in 1902, but the aggregate output of these new operations amounted to only 53,989 short tons, scarcely 3 per cent of the total increase of production.

The production of the State, by counties, since 1898, with the increases and decreases in 1902 as compared with 1901, is presented in the following table:

Coed production of Colorado 1898-1902, by counties. [Short tons.]

County.

Increase,

Decrease,

Boulder

Delta

Fremont

Garfield

Gunnlflon

Huerfano

Jefleraon

La Plata

Pitkin..

Routt

Weld

Othfli"

Total

al, 701, 828

a Net increase.

Colorado entered the list of coal-producing States in 1864, with an output for that year of 500 short tons. The growth of the industry since that date is exhibited in the following table:

Coal.

Coal production of Colorado, 1864'190S. [Short tons.]

Year.

Quantity.

Year.

Quantity.

U7,666

Georgia.

Total production in 1902, 414,083 short tons; spot value, $689,018.

All of the coal produced in Georgia comes from two counties, D?de and Walker, in the northwestern comer of the State. The coal found in this section of the State is in reality the eastern limit of the Warrior coal fields of Alabama. The coal as found here is of excellent quality and enjoys a high reputation as a steam-raising fuel. It is in good demand for bunker coal at South Atlantic ports. It also makes a good grade of coke, which finds a market among the iron furnaces in the vicinity of Chattanooga. Coal production in the State has increased steadily since 1899, and in 1902 reached the maximum production for any one year. The largest previous production was obtained in 1893, when a total of 372,740 tons was mined. Compared with 1901, the production in 1902 shows an increase of 71,258 short tons in quantity, and of $177,333 in value. The average price per ton obtained was the highest since 1901, and was a little more than double that obtained in

As stated in the previous reports, a considerable number of the miners employed in the production of coal in Georgia are convicts leased from the State authorities. The efficiency of this class of labor varies materially from year to year, and the labor statistics of Georgia, therefore, are hardly comparable with those of other States.

Ic

Mineral Besoubobs.

The statistics of production during the last fourteen years are presented in the following table:

Coal production of Georgia since 1889.

Year.

Loaded at mines for shipment

Sold to local trade and used by employees.

Used at

mines

for steam

and heat.

Made into coke.

Total quantity.

Total value.

Averprice

Average number of days active.

Averare number of employees.

Short Urns.

ShoH tons.

Short tons.

Short

ShoH tons.

Si. 50

Coal mining in Georgia, so far as the records of production show, began in 1884, with a production of 160,000 tons. Since that date the total output of the State has been as follows:

Coal production of Georgia, 188Jhl902. [Short tons.]

Year.

Quantity.

Year.

Quantity.

854, lU 260,998 288,546 196,869

Idaho.

Idaho once more enters the list of coal-producing States in 1902, this time with a production of 2,030 tons, the output being obtained from the counties of Boise, Lemhi, and Fremont. The market for the product is limited to the demands of ranchmen in the vicinity of the mines. The entire product is lignite, of rather infifttgHijiy ic

Ooal. 865

Illinois.

Total production in 1902, 32,939,373 short tons; spot value, $33,- 945,910.

Illinois, like many other States of the Union, eclipsed in 1902 all previous records in coal production. Compared with the preceding year the output in 1902 shows a gain of 6,607,821 short tons, or 20.5 per cent. The value increased in exactly the same proportion, the amount of gain being $5,781,973. Once before, in 1899, the production of coal in this State showed an increase over the preceding year as remarkable as the one in 1902, but the output in 1898 had been considerably reduced by strikes among the mine workers, whereas in 1901 the production was larger than in any previous year in the history of the State.

Illinois continues to hold second place among the coal-producing States, the rivalry of West Virginia for this honor having been greatly lessened in 1902 by the protracted strikes in the Pocahontas, New River, and Kanawha districts of the latter State, while Illinois enjoyed comparative peace in this particular. In fact, since 1898 labor troubles have given little disturbance to the coal-mining industry of Illinois. In 1900 there were 34 mines in which strikes occurred, the total number of men on strike being 3,909, who lost an average of 34 days. In 1901 strikes occurred in 74 mines, 3,740 men being idle for an average of 21 days. In 1902, 26 mines were affected by short-lived strikes, the total nimiber of men niade idle thereby being 3,916, and the average time lost 16.6 days. In none of these cases was the total loss of time sufficient to materially affect the production of the State. As the miners' union has had its greatest strength developed in this State, and as the system of collective wage-scale settlements between the Illinois CJoal Operators' Aiisociation and the United Mine Workers has been carried on for several years, this statement contains special interest. At the same time, however, it should be stated that the average price of coal at the mines has advanced from 78 cents in 1898 to $1.04 in 1900, and $1.03 in 1901 and 1902.

It is also interesting to note in this connection that the tonnage per employee in 1902 shows a decided gain over 1901. The total average production per man increased from 653 in 1901 to 695 in 1902, and the average production per man per day increased from 2.97 tons to 3.08 tons. Part if not all of this increased efficiency was due to the increased use of mining machines. The reports for 1901 show that 464 machines were in use and that 5,774,639 tons of coal were machine-mined; in 1902, 508 machines were used in the production of 7,112,039 tons.

The statistics of production, by counties, during 1901 and 1902 are

Minebal Sebouboes.

OocU prodwiion of lUinoia in 1901, by counUes.

County.

Loaded at mines for shipment.

Bold to local trade and used by employees.

Used at mines for

steam and heat.

Total quantity.

Total value.

Average

price per ton.

ae number of days active.

Average number of employees.

Bond

Bureau

Calhoun

Christian

Clinton

Fulton

Gallatin

Greene

Grundy

Hancock

Henry

Jackson

Jefferson

Johnson

Kankakee —

Knox

Lasalle

Livingston ...

Logan

Macon

Macoupin

Madison

Marion

Marshall

Menard

Mercer

Montgomery .

Morgan

Peoria

Perry

Randolph

Rock Island . .

St. Clair

Saline

Sangamon

Schuyler

Scott

Shelby

Stark

Tazewell

Vermilion

Warren

Washington . .

Will

Williamson... Woodford Small mines..

Short ton8.

tons. 58,141 4,965 73,276 50,848 22,625 4,800

Short tons.

Short tons.

2S2 20G

Total.

igitiSfed by U UV ii:

Ooal,

Coal producUon of lUinou in 190 , by counties.

County.

Loaded at mines for shipment.

Soldto

local ' Used at trade and mines for

used by

employees.

steam and heat.

Made into coke.

Total quantity.

Total Talue.

Average

pnce per ton.

Average number of days active.

number of employees.

Short tens.

Brown

Bureau

Christian

Clinton

Fulton

Gallatin

Greene

Grundy

Hancock

Henry

Jackson

Jersey

Johnson

Knox

Lasalle

Livingston —

Logan

Macoupin

Madison

Marion

Manhall

Menard

Mercer

Montgomery ..

Morgan

Peoria

Perry

Randolph

Bock Island . . .

8t. Clair

Saline

Sangamon

Schuyler

Scott

Shelby

Stark

Tazewell

Vermilion

Waiien

Washington . . .

wm

Williamson Other counties . .

Total.

ShoH Unu.

Short tons.

Short tons.

Short tons.

&10, 141

a Bond, Calhoun, Cass, Edwards, Hamilton, Jeilenon, Kankakee, Macon, Wabash, and Woodford.

Minebal Be80Ubge8.

The distribution of the coal product of Illinois since 1889 has been as follows:

DittribuHon of the coed product of lUinoiSf 1889-190f.

Year.

Loaded at mines for shipment.

Sold to local trade and used by employees.

Used at mines

for steam and heat

Made into coke.

Total quantity.

Total value.

Averpnee

Average number of days active.

Avenge number of employees.

ShaH toru.

Short torn.

Short ions.

8r300

Short

tOM.

to. 97

To what an extent the prosperous condition was distributed throughout the coal-mining districts of Illinois is shown by the fact that out of 60 counties from which a production was reported in 1902 there were 43 in which the output showed an increase over the preceding year, only 7 showing a loss. In 1901 there were 27 out of a total of 48 counties in which the output exceeded that of 1900. It should be stated, however, that in 1902 the production from the small mines is included in the county distribution and was not so included in 1901. This accounts for the increase of 2 in the number of coal-producing counties in 1902, and affects also in some degree the output of some of the smaller producing counties.

In the following table is shown the total output, by counties, during the last five years, with the increases and decreases in 1902 as compared with 1901:

Coal.

OocU production of Illinois in 1898, 1899, 1900, 1901, and 1902, by counties.

Bond

Brown

Barean ,

Calhonn ,

Christian

Clinton

Fulton

Gallatin

Greene

Gnindy

Hamilton

Hancock

Henry

Jackaon

Jefferson

Jersey

Johnson

Kankakee

Knox

Lasalle

Livingston . . .

Logan

Macon

Macoupin

Madison

Marion

Menard

Mercer

Montgomery . Morgan

Peoria

Perry

Randolph Rock Island. .

8t. Clair

Saline

Sangamon

Schuyler

Scott

Shelby

Stark

Tazewell

Vermilion

Warren

Washington..

Will

Williamson... Woodford Small mines..

5,e00

U,149

Total 18,599,299 24,439,019 25,767,981 27,331,552 32,089,373 a5,007,

Jigitized by

r,oio

Increase Decrease 1902. 1902.

u B 1902 24

a Net increase.

Mineral Besouboes.

The census of 1870 reports the coal production of Illinois at 2,624,163 tons. The report for 1880 gives the output for that year at 6,115,377 tons. Since that date the annual production has been as follows:

OocU production of Illinois, 1870-190S, [Short tons.]

Year.

Quantity.

Year.

Quantity.

Indiana.

Total production in 1902, 9,446,424 short tons; spot value, $10,399,660.

Following a period of five years of uninterrupted increase in its output of coal, Indiana in 1902 exceeded all previous records and added 2,528,199 short tons, or 36.6 per cent, to the production of 1901. Accompanying this increase in production was a gain in value of even greater ratio, for the average price per ton advanced from $1.01 in 1901 to $1.10 in 1902, and the total value increased $3,382,517, or 48 per cent. The production in 1902 was 2i times in quantity and three times in value the output of 1897.

The statistics of the labor employed in the coal mines of the State show that in 1901 there were 533.5 tons produced during the year for each employee, and that the average tonnage per day per man was 2.76. In 1902 the total production per man was 611.1 tons, and the tonnage per day per man was 2.98. In connection with this increased efficiency of the labor employed in the coal mines of the State it is necessar}' to note the increasing production by the use of undercutting machines. The amount of machine-mined coal in J902 was 2,421,342, against 1,852,068 in 1901. The number of machines in use increased from 266 to 269.

Indiana, like her neighboring State of Illinois, was comparatively free from strikes during 1902. In all, 1,824 men were on strike for short periods, the total number of working days lost being 23,693, or an average of 12.9 days for each man on strike.

Coal.

The statistics of production by counties in 1901 and 1902, with the distribution of the product for consumption, are presented in the following tables:

Coal production of Indiana in 1901 by counties.

County.

Loaded at mines for shipment

Sold to

local

trade and

used by

employ-

Used at mines for

steam and heat.

Total quantity.

Total ▼alue.

Average

pnce per ton.

Average number of days active.

Average number

of employees.

Clay

Daviess and Martin .

Fountain

Gibson

Greene

Knox

Parke

Perry

Pike

Spencer

Sullivan

Vanderburg

Vermilion

Vigo

Warrick

Small mines

Short tons.

Short

tOM.

Short tons.

Short tons.

Total.

Coal production of Indiana in 1909, by counties.

County.

Loaded at mines for shipment.

Sold to local trade and used by employees.

Used at mines for

and heat.

Made into coke.

Total quantity.

Total value.

Averpiice ton.

Average number of days active.

Average number of employees.

Clay

ShoH ton$.

ShoH tons.

Short tons.

Short tons.

Short tons.

Si. 87

Daviess

Dubois

Fountain

Gibson

Greene

Knox..

Martin

Parke

Perry

Pike

Spencer

Vanderburg.. Vermilion

Vigo

Warren

Warrick

Total...

Mh

MimSBAL BE80UB0E8.

The distribution of the product for the lant fourteen years has been as follows:

Distribution of the coal prodtict of Indiana 1889-190S.

Year.

Loaded at mines

for shipment.

Sold to local trade and uaed by employees.

Used at mines

for steam

and heat.

1 Total

Total value.

Averprice ton.

Average number of days active.

Average number of employees.

Short tons.

Short tons.

2J8,398

Short tons.

ShoH Short tons. 1 tons.

As shown in the following table, the production increased in all but four counties in the State, and in these counties the decreases were insignificant. The most notable increases were those made by Parke and Greene counties, the former recording a gain of 524,426 tons, a little over 83 per cent, and the latter 719,164 tons, or nearly 76 per cent. Pike County increased nearly 90 per cent, though the amount of gain was only 240,749 tons. Sullivan County gained 358,220 tons, Vigo County 290,767 tons. Clay County 234,882 tons, and Warrick County 129,994 tons.

Coal production of Indiana 1898-1902, by counties. [Short tons.]

County.

Increase

Decrease

Clay

Daviess

Dubois

Fountain

Gibson

Greene

Knox.

Owen

Parke

Perry

Pike

Spencer

Sullivan

a Includes Martin County.

COAL. Coal production of Indiana j 1898-1 90 y hy count — Continued.

County.

Increase

Decrease

Vanderburg

Vigo

Warren

Warrick

Qmaii niinee

Total

a Small mines production included in county distribution. b Net increase.

The total production of the State since 1873 has been as follows:

Production of coal in Indiana 187S-190B, [Short tons.}

Year.

Quantity.

Year.

Quantity.

1S79

Indian Territory.

Total production in 1902, 2,820,666 short tons; spot value, 14,265,106.

Compared with 1901 the coal production of Indian Territory in 1902 shows an increase of 398,885 short tons, or 16.5 per cent in quantity, and of $349,838, or 8.9 per cent in value. Production has increased steadily since 1897 and has more than doubled in the last four years. An interesting feature in connection with the production of coal in Indian Territojy in 1902 is that the production per man for the year, and for each day, increased considerably over 1901, although the use of mining machines perceptibly decreased. In 1901, 6,706 men, working for an average of 208 days, produced 2,421,781 short tons, an average of 361 tons per man for the year and of 1.74 tons per man per da}'; in 1902, 5,674 men were emploj'ed for an average of 232 in the production of 2,820,666 tons, an average of 506 tons per man for the year and of 2.18 tons per man per day. ic

Mineral Kesouboes.

The following table shows the production of coal in the TeiTitory, the distribution of the product for consumption, and the statistics of labor employed for the last 12 3ears.

Distribution of the coal product of Indian Territory j 1891-190.

Year.

Loaded at mines for shipment.

Sold to

local

trade and

used by

employees.

Used at mines for

and heat.

Made into coke.

Total quantity.

Total value.

Averpnce ton.

Average number of days active.

Averacre number of employees.

Short tons.

ShoH tons.

ShoH tons.

Short tons.

Short tons.

The first production of coal reported for Indian Territory was in 1885. Since that date the annual output has been as follows:

Production of coal in Indian Territory, 1885-190S. [Short tons.]

Year.

Quantity.

Year.

Quantity.

Iowa.

Total production in 1902, 5,904,766 short tons; spot value, $8,660,287.

The principal features connected with the production of coal in Iowa during 1902 were an increase of 287,267 short tons, or 5 per cent in the quantity of coal mined, a gain of 837,432, or 10.7 per cent in its value, a decrease in the number of employees, and an increase in the production per employee, both for the year and for each day the mines were operated. The production in 1902 was the largest in the history

Dptized by IC'

Goal.

of the State, as was the amount for which it sold. The average price per ton was the highest recorded since 1886. The annual tonnage per man employed increased from 444 in 1901 to 475 in 1902, and the production per man per day increased from 2.04 to 2.09. The few strikes which occurred during the year were unimportant, involving only a total of 363 men for an average of 18 days. The use of machines was slightly less than in 1901, the machine-mined product being, respectively, 110,980 tons in 1901, and 110,489 tons in 1902. Reports were received from 46 new operators in 1902, whose aggregate output amounted to 219,776 short tons. About 25 of these did not exceed an output of 2,000 tons each.

The statistics of production, by counties, during the last two years, with distribution of the product for consumption, are shown in the following tables:

Coal production of Iowa in 1901, by countiea.

County.

Loaded at mines for shipment.

Sold to local trade and used by employees.

Used at mines for

steam and heat.

Total quantity.

Total value.

Average

pnce per ton.

Average number of days active.

Average number of employees.

Adams

Appanoose .

Boone

Dallas

Davis

Greene

Jasper

Jefferson ... Keokuk Lucas

Marion

Monroe

Page and Story .

Polk

Scott

Taylor

Wapello

Warren

Wayne

Webster

Small mines

Total .

Short torn.

Short tons. 14,035 17,904 17,607 10,622

Short toru. 5,802 1,427 1,145

Short ton$,

Kineral Besouroes.

Coal production of Iowa in 190, by counties.

County.

Loaded at mines for shipment.

Sold to

local I Used at trade andmines for

used by employees.

steam and heat.

Total quantity.

Total value.

Average price

ton.

Average number of days active.

Averace number of employees.

Short tons.

Adams

Appanoose .

Boone

Dallas

Davis

Greene

Jasper

Jefferson . . . Keokok Mahaska...

Marion

Monroe

Page

Polk

Taylor

Van Buren . Wapello

Warren

Wayne

Webster

Outhrle, Lucas, and Story

Shorttons.

Shorttons. 16,597 4,472 2,405

Is

Shorttons.

S2.86.

L2&amp;

Total.

The distribution of the product during the last 14 years has been as follows:

DistribiUion of (he coal product of lowa 1889-190£.

Year.

Loaded at mines for shipment.

Sold to

local trade and

used by employees.

Used at mines for

steam and heat.

Made into coke.

Total quantity.

Total value.

afe

price per ton.

Average number of days active.

Average number of employees.

Short tons.

ShoH tons.

Short tons.

Short Ions.

S7

Short tons.

Si. 88

Coal.

The production by counties for the last five years, with the increases and decreases in 1902 as compared with 1901, is shown in the following table:

Coal production of Iowa, 1898-190, by counties. [Short tons.]

County.

Increase,

Decrease,

-

Boone

Dallas

Davis

Greeno

Jssoer

Keoknk

Lncas

Monroe

Polk

8oott

Taylor

Van Buren

Wapello

Warren

Wayne

Webster

small mines

Total

a287,267

a Net increase.

The census for 1860 reported the coal production of Iowa at 48,263 tons. The production since that date so far as records are obtainable has been as follows:

Production of coal in loivGy 1860-190S, [Short tons.]

Year.

Quantity.

Year.

Quantity.

18G6

Mineral Besouboes.

Kansas.

Total production in 1902, 5,266,065 short tons; spot value, 16,862,787.

Elansas is included among the States whose coal production has shown an uninterrupted increase since the period of prosperity began in 1897. In 1892 the State's production reached for the first time a total of 8,000,000 tons, and it was not until eight years later in 1900 that the 4:,000,000-ton mark was passed. The output in 1901 was within less than 100,000 tons of attaining a 5,000,000-ton record, which was reached and passed in 1902. Compared with 1901, the production in 1902 shows an increase of 365,537 short tons, or 7.5 per cent, in quantity, and of 71,188, or 14.5 per cent, in value. The use of mining machines in Kansas had little to do with the increase of production, as only 48,000 tons of the product in 1902 were reported as machine mined, as compared with 37,979 tons in 1901. The increase, in fact, appears to have been due to greater efficiency on the part of the mine workers, as there was a decrease both in the total number of men employed and in the average number of days worked. In 1901, 9,928 men produced 4,900,528 tons, an average of 493.6 tons per man, and as the average days worked was 224 the average tonnage per day per man was 2.2. In 1902, 9,461 men were employed in the production of 5,266,065 tons, an average of 556.6 tons per man. The average number of working days in 1902 was 220, showing an average output per man per day of 2.53 tons. There was little interruption to work on account of strikes in 1902, there being only 334 men idle for an average of 51.6 days. The details of production in the last 2 years are shown in*the following tables:

Coal productum of Kansas in 1901 by counties.

Comity.

Loaded at mines for shipment.

Sold to

local

trade and

used by

employees.

Used at mines for

and heat.

Total quantity.

Total value

Average

price per ton.

Average number of days active.

Average number of employees.

Cherokee

Cloud

Crawford

Franklin

Leavenworth

Linn

Osage

Atchison, Coffey, and

Short Urns.

Lyon.

Ellsworth, Labette, and Lincoln

Small mines

Short tons.

Short tons.

Total 4,689,990 287,909 72,629 4,900,528 5,991,599 1.22

Coal.

Ooal production of Kansas in 1909, by counties.

County.

Loaded at mines for shipment.

Sold to local trade and used by employees.

Used at mines

for steam and heat

Made into coke.

Total quantity.

Total value.

Aver-price

per ton.

Average number of days active.

Average number of employees.

Cherokee

Short tons,

Short tons.

Short tons.

Short tons.

Short tons.

l.Zl

Cloud

Crawford

Leavenworth

Osage

Other counties a

Total

a Atchison, Bourbon, Coffey, Jewell, Labette, and Republic.

The distribution of the product for consumption, the total value, and the statistics of labor employed, for the last 14 years, have been as follows:

Distribution of the coal product of Kansas, 1899-190$,

Year.

Loaded at mines for shipment

Sold to

local

trade and

used by

employees.

Used at mines for

and heat.

Made into coke.

quantity.

Total value.

price

Average number of days active.

Avenge number of employees.

Short Urns.

Short Urns.

Short Urns,

Short tons,

Short Urns,

Mineral Besouboes.

The production, by counties, during the last five years, with the increases and decreases in 1902 as compared with 1901, is shown below:

Oxtf production of KamaSy 1898-190, [Short tons.]

County.

Increase,

Decrease,

Cherokee

Cloud.

Crawford

lifiaven worth

Linn

Omuto .

other counties and innii minefl

Total

b865,587

a Included In other counties.

b Net increase.

The earliest production of coal in Elansas of which we have any record was made in 1880, since which date the output annually has been as exhibited in the following table:

production of KanxaSf 1880-190. [Short ton&l

Year.

Quantity.

Year.

Quantity.

Kentucky.

Total production in 1902, 6,766,984 short tons; spot value, $6,666,967.

Kentucky, like many other of the coal-producing State's, reached its maximum output in 1902. Compared with 1901, the production in 1902 shows a gain of 1,296,798 short tons, the largest increase ever made in the history of the State. The average price per ton obtained in 1902, 99 cents, was the highest recorded in 14 years, and the total

Ic

Coal.

value exceeded that of the preceding year by $1,463,891. Much of the increased production in this State was due to the use of coal-cutting machinery, the total amount mined by machines in 1902 being 3,091,626 short tons, against 2,254,711 tons in 1901. The number of machines in use increased from 237 to 318.

The details of production during the last two years are snown in the following tables:

Coal production of Kentucky in 190 J j by counties.

County.

Bell

Boyd..!

Butler

Carter

Henderson

Hopkins

Johnson and Morgan

Knox

Laurel

Lawrence

Muhlenberg

Ohio

Pulaski

Bockcastle

Union -.

Webster

Whitiey

Breathitt and Lee. . .

Christian, Daviess, and Hancock

Small mines

Total.

Loaded at mines for shipment.

ShoH tons.

Sold to

local

trade

and

used by

employees.

ShoH Urns.

Used at mines

for steam

and heat.

Short tons.

Made into coke.

ShoH ions.

Total quantity.

ShoH tons,

Total value.

S336,874 138,902

Average

price per ton.

Average number of days active.

Average number

of employees.

Minebal Resouboes.

Coal prodtuHon of Kentucky in 190£, by counHea,

Bell

Boyd

Breathitt

Butler

Carter

Clay

Floyd

Hancock

Harlan

Henderson

Hopkins and Christian

Johnson

Knott

Knox

Laurel ,

Lawrence ,

Lee ,

Leslie

Letcher

Magoffin...: ,

Morgan ,

Muhlenberg ,

Ohio ,

Owsley

Pike ,

Pulaski ,

Union ,

Webster

Whitley

Other counties a. ,

Total.

Loaded ' at mines for shipment.

Short tont.

Sold to

local

trade

and

used by

employees.

Short tons.

Used at

mines

for

and heat

Made into coke.

ShoH I ShoH tont.

tonic.

Total quantity,

ShoH tone.

Total value.

Average price per ton.

Si. 04

Average number of days active.

24f

Average number of employees.

i,m

a Crittenden, Edmonson, Elliott, Grayson, Greenup, Jackson, Madison, Martin, Menifee, Perry, Rockcastle, Trigg, Warren, Wayne, and Wolfe.

According to the reports made to the Geological Survey, the total number of working days lost in Kentucky in 1902 by reason of labor disaffections was 22,184, which, compared with a total of nearly 3,000,000 working days made by the 13,727 mine employees, was insignificant, and, as shown by the large increase in tonnage, had no appreciable effect on the production. The most protracted strike was in Johnston County, where 76 men were idle for ninety days. Bell County reported the largest number of men on strike, 600 altogether, who were idle, however, only 12 days. These two instances wei'e

Coal. 888

responsible for more than half the total time lost. These figures, nevertheless, do not represent all the labor troubles in the State during the year. In 1901 an eflfort was made by the United Mine Workers to "unionize" the mine employees in Hopkins County, and particularly those employed by the St. Bernard Mining Company, of Earlington, which has been well known as a strictly nonunion organization. The struggle was continued well into 1902, but the efforts either to get the men of this company to strike or to associate themselves as members of the Union Mine Workers of the State were alike unsuccessful. The men employed by the St. Bernard Company continued to work, the mines suffered comparatively little, and the production for the county, of which this particular company contributes over 60 per cent, increased its output 192,786 short tons, or about 15 per cent, over 1901. The United Mine Workers of Kentucky, in spite of the struggle in Hopkins County, kept their contracts with the operators, which action met with general commendation, a report to the Coal Trade Journal stating that "their honorable conduct will make the annual adjustment of wage scales much easier in future. Kentucky miners have had more work, better pay, and better treatment this year and last than ever before, and they are too sensible to give up their understanding with the operators to join in a sympathetic strike."

The statistics for 1902, as presented in the accompanying tables, include the labor employed at all the small local banks from which reports were received. It has been customary to estimate the output of these small mines and disregard the labor employed. In connection with the Census work, however, a canvass of these small mines has been made, and the production is distributed among the several counties. This will in part account for the apparent fact that the labor efficiency in the State exhibited a decided falling off in 1902. In 1901 the tonnage per man for the year amounted to 530.7, but in 1902 it was only 493. The average production per man per day declined from 2.49 tons to 2.36 tons.

Part of this decrease in individual productiveness was also due to the large number of new mines opened in the State. Sixty-four new names were added to the list of producers in 1902, many of which, however, will not become important contributors. Probably not more than 20 should be considered as conunercial propositions. The total production from these 64 new mines in 1902 was 339,232 short tons.

The distribution of Kentucky's coal product for consumption since 1889 has been as follows:

Hikebal Besuuboes.

THstribution of the coal product of Kentucky, 1889-190$.

Year.

Loaded at mines for shipment.

Sold to local trade and used by employees.

Used at mines for

steam and heat.

Made into coke.

Total quantity.

Total ▼alue.

Averprice ton.

Average number of days acUve.

Arernumbei

of employees.

Short tons. 2,111,010 2,357,989 2,559,263 2,620,556 2,613,645 2,734,847 3,012,610 2,980,355 3,088,132 3,537,429 4,189,199 4,783,062 4,947,716 6,141,886

Short tons. 246,306 291,666 286,281 327,985 281,115 281,235 254,028 251,897 404,099 253,629 282,736 286,518 273,046 333, 5&I

Short tons. 23,981 29,568 21,363 33,856 30,969 47,344 50,294 65,447 55,083 '55,206 67,136 92,123 87,947 132,812

Short tons.

Short tons. 2,399,755 2,701,496 2,916,069 3,025,313 8,007,179 3, 111, 192 3,357,770 3,333,478 3,602,097 3,887,908 1,607,255 5,328,964 5,469,986 6, 766, 984

5,250 6,355 6,724 6,C81 8,083 7,799 7,549 7,983 7,614 7,461 9,680 10,307 13,727

As shown in the following table, there were only 3 counties in the State whose whose production in 1902 was less than that of 1901. The apparent decrease of 90,847 short tons in the last item of the table is due to the fact that the production of the small mines is included in the county distribution in 1902.

Coal prodiiction of Kentucky 1898-190$, by counlia. [Short tons.]

County.

Bell

Boyd

Breathitt and Lee .

Carter

Christian, Daviess, and Hancock

Greenup

Henderson

Hopkins

Johnson

Knox

Laurel

Lawrence

Muhlenberg

Ohio

Pulaski

Rockcastle

Union

Webster

Whitley

Other counties and small mines

Total 2,887,906 4,607,255 6,828,964 6,469,966 6,766,984 M6,998

Increase,

oo

Decrease,

a Includes Moiian County.

Netlncreaae.

0Oa.L.

Kentucky is the only one of the United States whose coal product is drawn from any two of the great coal fields. The coal-producing counties in the eastern portion of the State are included in the Coal Measures .of the Appalachian system, while those in the western portion belong to the Central coal field. The latter furnishes considerably more than half of the total output. The counties included in the two districts, and their production for the last 6 years, are shown in the following tables:

prodttction of the eastern district of Kentucky, 1898-190, [Short tons.]

County.

Increase,

Decrease,

Bell

Bovd

Breathitt

Carter

Johnson

a37,e92

Knox

Laurel

Lee

Pulaaki

Rockcastle

Whitley

other counties and small mines

Total..

a Includes Morgan County.

b Net Increase.

Coal production of the western district of Kentucky, 1898-1902. [Short tons.]

County.

Increase,

Butler

Christian

Dayieas

Hancock

Hopkins

Muhlenberg

Ohio

Union

Webster .

other counties and fiYinii mines

Total

a 600, 512

X E 1902 21b

a Net increase.

uogle

MINERAL tUSSOUBOES.

; The annual coal production in the State since 1873 hafi been as

follows:

AnntULl coal production of Keniuacy, ISVS-ISOS*

Year.

Quantity.

Year.

Quantity.

Maryland.

Total production in 1902, 5,271,609 short tons; spot value, $5,679,869. . Owing to the limited area of the Maryland coal fields and to the fact that all of the known productive territory has been taken up and developed, any great increase in the production from this State is hardly to be expected. During 1902 the mines were operated to their utmost capacity, so far as this was possible in connection with a limited car supply, in order to make up for the scarcity of fuel caused by the strike in the anthracite regions of Pennsylvania. The coal fields of Maryland and the contiguous territories in Pennsylvania and West Virginia are the nearest to tidewater of any of the ea;3tern bituminous coal fields, and naturally these were the ones first and most strenuously called upon to supply the deficiency of anthracite. So far as Maryland was concerned the effect was shown more in the advance in price than by the increase in production. Notwithstanding the great demand, Maryland's production showed a gain of only 158,482 short tons, or 3 per cent, the value increasing $533,378, or 10.6 per cent.

The reports for 1902 show that there were 25 machines in use, which produced 252,753 tons of coal, against 15 machines and 177,724 tons of machine-mined coal in 1901.

The advantage possessed by Maryland in her "big vein" and easily mined coal is shown in the fact that the annual tonnage per employee , was 958.8 in 1901 and 904.6 in 1902, the "intensity" of labor for the year being somewhat curtailed by lack of railroad cars. The average production per man per day increased from 3.66 tons in 1901 to 3.74

in 1902. IC

Coal.

The statistics of production in Maryland during the last fourteen years are shown in the following table:

Distribution of the coal product of Maryland 188190fS,

Year.

Loaded at mines for shipment.

Sold to

local trade and

used by employees.

Used at mines for

steam and heat.

Total quantity.

Shorttons.

Sftorttons.

Shorttons.

Total value.

Average price per ton.

Average number of days active.

Average number of employees.

i;Ba3..

Short tons. 2,885,336 3,296,393 3,771,5W 8,386,384 3.676,137 3,436,600 3, MO, 991 4,068,558 4,391,703 4,618,990 4,716,681 8,949,639 5,048,991 5.187,175

2Qb

Maryland and the adjoining counties in West Virginia, which make up what is known as the Cumberland region, are the only ones outside of the anthracite region of Pennsylvania where records of production have been kept from the earlier years. These have been commonly known as the Georges Creek or Cumberland and Piedmont regions. The Cumberland region was opened in 1842. The Piedmont region began shipping in 1853. The records of shipment have been carefully preserved and arc published annually in the reports of the ''Cumberland Coal Ti*ade." The following table, which shows the shipments from this entire region, has been obtained from the published report of the "Cumberland Coal Trade."

Mineral Resources.

Total shipments from the Cumberland coalfiddUm [Long tonH.]

Frostburg region.

Cumber

Baltimore and Ohio R.R.

land and Pennsylvania R. R.

Cumberland Coal and Iron Company's R. R.

Year.

By Chesapeake and Ohio Canal.

By Pennsylvania R. R.

Total.

By Baltimore

and Ohio R.R.

By

Cheaapeake

and

Ohio

Total.

Eckhi

vri Branch

"'89,'294 170,116 201,947 206,914 195,279 166,691

91,574 217,065 199,138 206,227 141,520 176,241 193,046 177, 152 289,232 214,011 360,807 372, 2a5 255,133 169,679 116,195 161,191 126,615 373, 195 250,822

Total .

a Merged In Cumberland and Pennsylvania figures.

b Includes 205,460 tons used on line of Cumberland and Pennsylvania Railroad and its branches, and at Cumberland and Piedmont; also 892,771 tons used by the Baltimore and Ohio Railroad Company in locomoUyet, rolling mills, etc.

Goal.

Maryland and West Virginia from 184 to 1902 inclusive.

Frofltburg region.

Piedmont region. Total.

Georges Creek and Cumberland R.R.

Georges Creek R. R.

Hampshire

R. R. by Baltimore and Ohio R. R.

Baltimore and Ohio R.R., and local.

Chesapeake and Ohio Canal.

Pennsylvania R.R.

Chesapeake and Ohio Canal.

By Pennsylvania R. R.

T-ocaK and Baltimore and Ohio R.R.

Total.

Aggr;ate.

2>,'795 52,940 79,571 142,449 196,848 267,679 834,178

73,725 181,303 227,245 269,210 252,368 218,318 257, 740 289,298 85,654 C9,482 266,430

Empire and

West Virginia mines. 28,036 81,218 86,441 77,682 57,492 63,637 108,723

'

"125

?!S,i80

:'irT/.';i- 277,929 3'J-.M'J 388,001 ,]ii,i'Mt 466,928 6.191 408.489

KHJ,nO

"Tt.'HM i'.-.M.f73

T.1J31.797

1, llji'-.;' 1 ij.:.96 l.til,t.c.ti 1. -UK 36-1

IJ'T'I.mii 1 'IV. (168

-:jrv.rrf;'.* i .-7/.J13

Michigan.

Total production in 1902, 964,718 short tons; spot value, $1,663,192.

Michigan enjoyed the distinction, if such it can be called, of being

one of the seven States whose production in 1902 was less than that of

1901. The conditions which brought this about in Michigan were the same which restricted the production in the New and Blanawha River districts of West Virginia, a prolonged strike having for its ultimate result the recognition of the mine-workers' union. The strike which affected many of the larger operations in the State was started on April 1 and continued until September 1. As a result the total time lost in Michigan exceeded that of any other bituminous coal producing State except West Virginia, and Pennsylvania. On account of the great magnitude of the industry in the latter State the effect upon the production of bituminous coal was inappreciable, and West Virginia increased her production in spite of the time lost by strikes. In Michigan, however, the result was a decrease in production of 276,523 short tons, or more than 22 per cent. More than 80 per cent of the mine workers (1,936 out of 2,344) were on strike for an average of 123.6 days, involving a total loss in working time of 239,146 days. As the average production per man per day for the time worked during the year was 2.4 tons, this meant a loss in output of 573,960 tons, or, in other words, except for this loss of time, the production of the State would have reached a total of about 1,500,000 tons. The operators, however, were not without some compensation for the loss in production. The scarcity of coal due to the anthracite strike and the consequent abnormal demand caused a sharp advance in values and the average price for Michigan's product rose from $1.41 per ton in 1901 to $1.71 in

1902, the total value being within $100,000 of that obtained for the output in 1901.

The number of machines in use in the mines of Michigan increased from 31 to 68, and notwithstanding the loss in total production, the machine-mined product increased from 177,969 short tons in 1901 to 196,248 tons in 1902.

The production for each employee decreased from 646.4 tons in 1901 to 411.6 tons in 1902, though the tonnage per day per man increased from 2.21 to 2.40.

Goal.

The stati3tic8 of production, by counties, in 1901 and 1902 are shown in the following tables:

Coal production of Michigan in 1901 by counties.

County.

Loaded at mines for shipment.

Sold to local trade and used by employees.

Used at mines for

steam and heat

Total quantity.

Total value.

Averprtce

Average

number of days active.

Average number

of employees.

Bav

Short torn.

Short Urn*.

Short

tOM.

ShoH tons.

Oenesee and Hnion , Jackson .-.

Total

Coal production of Michigan in 190S,

by counties.

County.

Loaded at mines for shipsnent.

Sold to local - trade and used by employees.

Csedat the mines for steam and heat.

Total quantity.

Total value.

Averpnce ton.

Average number of days active.

Average number of employees.

Bay

Short tons.

Short tons.

Short tons.

Short ions,

' 248,645

fl.65

2Si

Rium

Saginaw

Huron, Jackson, and Shiawassee

Total

The following tables show the distribution of the coal product of Michigan since 1892 and the total output of the State from the begining of the coal-mining industry:

Digtribution of the coal product of Michigan 1892-190i.

Year.

Loaded at mines for shipment.

Sold to local trade and used by employees.

Used at

mines for

steam and

heat.

Total quantity.

Total value.

Average

price per ton.

age number of days active.

Average number ployees.

18Db.

Short tons. 27,200 27,787 60,K17 80,408 83,150 188,686 282,155 674,280 7d2,6W 1,158,096 818,687

Short tons. 45,180 16,367

Short tons.

Short tons.

Mineral Bssoubces.

Coal production of Michigan 1877-1902. [Short tons.]

Year.

Quantity.

Year.

Quantity.

Prevloiis to 1877

f877

Missouri.

Total production in 1902, 3,890,154 short tons; spot value, $5,374,642.

Compared with the production in 1901, the output of coal in Missouri in 1902 shows an increase of 88,066 short tons, or 2.3 per cent in quantity, and of 67,478, or 14.2 per cent in value.

The disadvantages under which the coal-mining industry of Missouri exists in being surrounded by other coal-producing States whose product can be more cheaply mined, and in having her larger cities contiguous to such other fields, have been referred to in the preceding reports of this series. The coal mined in this State must depend upon markets comparatively local, and any increased production may be considered as indicating a growth in local population and industry. Illinois on the east, Iowa on the north, Kansas on the west, and Arkansas and Indian Territory on the south and southwest, are all more blessed by nature for producing cheap coal than is Missouri. This is shown by the fact that both in 1901 and 1902 the average productive capacity per man per day in the coal mines of Missouri was much less than in any of the other States except Indian Territory in 1901 and Iowa in 1902. Missouri's tonnage per man per day was 1.73 in 1901 and 1.98 in 1902. As compared with these rates the other States show the following averages: Illinois, 2.97 in 1901 and 3.08 in 1902; Iowa, 2.04 in 1901 and 2.09 in 1902; Kansas, 2.20 in 1901 and 2.53 in 1902; Arkansas, 2.59 in 1901 and 2.88 in 1902; Indian Territory, 1.74 in 1901 and 2.18 in 1902. To these circumstances may readily be ascribed the comparatively stationary condition of Missouri's coal production, although it has shown an increasing tendency during the last six years.

Coal.

The statistics of production in 1901 and 1902 are shown in the following tables:

Coal production of Mmouri in 1901 by counties.

County.

Loaded at mines for shipment.

Sold to local trade and used by employees.

Used at mines for

steam and heat.

Total quantity.

Total value.

Average

pnce per ton.

Average number of days active.

Aver-number

of employees.

Adair

Audrain

Barton

Bates

Boone

Caldwen ,

Callaway

Henry ,

Johnson

Lafayette ,

Ujm

Macon

Putnam

Ralls

Randolph

Ray

Vernon ,

Chariton, Grundy, and Livingston

Howardand Jacluon ,

Montgomery and Morgan ,

Small mines ,

Short tona.

Short Urns.

Short tons.

Short tons.

Total.

Ooal production of Missouri in 190 y by counties.

County.

Loaded at mines for shipment.

Sold to

local

trade and

used by

em* ployees.

Used at the mines for steam and heat.

Total quantity.

Total value.

Average pnof

n.

£n.

Average number of days active.

Average

number of employees.

Adair

Audrain.., Barton

Bates

Boone

Callaway. CanoU ... Chariton .

Henry

Howard.., Johnson.. Lafayette. Unn

Short tons,

Short tons,

Short tons.

ShoH tons.

5,

4,

7%

Ul

Mineral Besouroes.

Loaded at mines for shipment.

Sold to

local trade and used by

employees.

Used at themine

forsteam and heat

Total quantity.

Total value.

Aver-price

per ton.

Average number of days active.

Average number of employees.

Macon

Monroe

Montgomery

Putnam

Balls

Bandolph

Kay

St Clair

Schuyler

Vernon

Other counties .

Total.

Short ions,

Short

ShoH tona.

Short tons.

a Caldwell, Oedar, Cooper, Dade, Orundy, Jackson, Livingston, Morgan, Pettis, and Salinew '

The distribution of the product for consumption during the last fourteen years has been as follows:

Distribution of (he coal product of Mmouri 1889-1902,

Year.

Loaded at mines for shipment.

Sold to local trade and used by employees.

Used at mines for

steam and heat.

Total quantity.

Total value.

Average

price per ton.

Average berof days active.

Average number of employees.

Short tons.

ShoH tons.

Short tana.

Short tona.

The following table shows that in about one-half of the coal-producing counties the production in 1902 was less than in 1901. The increase, however, were greater in quantity, making a net gain of 88,066 short tons.

'

Goal.

ChcUprodiictionin Mimmri 1898-190 by counties.

County.

Increase, Decrease 1902. I 1902.

Adair

Audndn

Bates

Boone

Callavay

Cole-

Grundy

U,255

a4,101 127,983

Henry

Jackson

Johnson

Lafayette

Lhin

Livingston

Macon

Montgomery and Morgan

Ralls

Randolph

Ray

Vernon

Other counties and flTniill

Total

fc88.066

a Montgomery County only. b Net increase.

The following table, in which is exhibited the total production of the State since 1873, shows that while the output has increased annually since 1896 — that is to say, during the 6 years of industrial prosperity throughout the United States — the output in 1902 did not quite attain the record made in 1888, which continues to be the banner year of coal production in the State.

Coal production of MiSBOuriy 1878-190S, [Short tons,]

Year.

Quantity.

Year.

Quantity.

j_gQ2 Jigitized by Vj

Mineral Be80Ub0E8.

Montana.

Total production in 1902, 1,560,823 short tons; spot value, $2,443,447.

Compared with 1901, the production of coal in Montana for 1902 shows an increase of 164,742 short tons, or 11.8 per cent in quantity, and of $434,131, or 21.6 per cent in value. The output, however, did not reach the records made in either 1897 or 1900. the latter being the banner year of coal production in Montana, with a total of 1,661,776 short tons. The smaller production in 1901 and 1902 has been due to the exhaustion of the Sand Coulee mines in Cascade County. These mines when in full operation had a daily capacity of about 2,000 tons, and their exhaustion has naturally aflPected the total production of the State.

The use of machines in the mines of this State shows a decrease both in 1901 and 1902, the number in use declining from 81 in 1900 to 70 in 1901, and to 65 in 1902, the machine-mined product likewise decreasing from 1,045,115 tons in 1900 to 748,981 in 1901, and further to 691,669 in 1902. In spite of this decrease in machine mining, however, the average production for each employee increased in 1902 as compared with 1901. As shown in the following tables, 2,158 men worked an average of 231 days in 1901 and produced 1,396,081 tons of coal, an average tonnage per man of 647 for the year and of 2.8 for each day. In 1902, 1,938 men were employed for 270 days in the production of 1,560,823 tons, an average for each man of 805 tons for the year and of 2.98 tons per day.

The statistics of production by counties for the last 2 years are shown in the following tables:

CocU production of Montana in 1901, by counties

County.

Loaded at mines for shipment.

Sold to

local

trade

and

used by

employees.

Used at

mines

for

and heat.

Made into coke.

Total quantity.

Total value.

Averpnce

per ton.

Average number of days active.

Average number of employees.

Carbon

ShoH tons.

Short tons,

Short tons.

ShoH tons.

Short tons.

Cascade

Cboteau

Park

Fergus, Gallatin, Granite, and Lewis and Clarke

Total

Coal production of Montana in 190$, by counties.

County.

Loaded at mines for shipment.

Sold to

local

trade

and

used by

employees.

Used at

the mines

for steam

and heat

Made into coke.

Total quantity.

Total value.

Averpnce

per ton.

Average number of days active.

Average number of employees.

Carbon

SfioH tons.

Short tons,

ShoH tons.

Short ioru.

Cascade

Choteau

Fergus

Park

Other counties

Total..

a Deerlodge, Gallatin, Granite, Meagher.

The distribution of the product for consumption and the statistics of labor employed since 1889 have been as follows:

Distribution of the coal product of Montana, 1889-190$.

Year.

Loaded at mines for shipment.

Sold to

local

trade and

used by

employees.

Used at mines for

and heat.

Made into coke.

Total quantity.

Total value.

Averpnce

Average number of days active.

Average number

of employees.

tons.

Short tons.

Short tons.

ShoH tons.

Short tons.

S880,773 1,262,492 1,228,630 1,330,847 1,772,116 1,887,390 2,860,906 2,279,672 2,897,406 2,324.207 2,347,757 2,713,707 2,009,816 2,448,447

Minebal Bs80Ur0Es.

The production, by counties, for the last 5 years and the increases and decreases in 1902, as compared with 1901, are presented in the following table:

Prodtiction of coal in Montana 189S-190S by counties. [Short Ions.]

County.

Increase,

Decrease,

Carbon

1Q

Cascade

Oioteau

Gallatin

Lewi9 and Clarke

Park 147,154

Other counties '

Total

fi Net increase.

The earliest production of coal in Montana, so far as we have any record, was made in 1883, when a total output of less than 20,000 tons was reported. The growth of the industry since that date is exhibited in the following table:

Coal prodvction of Montana 1883-1 90iS. [Short tons.]

Year.

Quantity.

Year.

Quantity.

19,795 80,376 86,440 49, W6 10,202 41,467 863,301 617,477 Ml, 861 564, W8

New Mexico.

Total production in 1902, 1,048,763 short tons; spot value, $1,500,230.

Contrary to the general rule, the coal production of New Mexico has shown a decrease in both 1901 and 1902, and unlike the other exceptions in 1902, no particular reason seems to have existed in this case. In California, Oregon, and Texas the decreased production is attributable to the cheapness and increased consumpticm o:

Goal.

fuel; in Michigan the production was curtailed by a long and profitless strike. No such conditions are reported for New Mexico nor for Wyoming, and the only apparent reason for the decrease seems to have been simply a falling oflf in demand for coal in the Territory and State. There were some labor troubles in New Mexico, but as they entailed a total loss of only 9,820 tvorking days, or only a little more than 2 per cent of the total working time, they were not of sufficient duration seriously to curtail production.

As shown in the following tables, the number of men employed and the average time made in 1902 were both considerably less than in 1901. The eflfect of this was to cause an increase in the average production per man from 438 tons in 1901 to 567 tons in 1902. The tonnage per man per day increased from 1.96 to 2.61.

The statistics of production, by counties, in the last 2 years are shown in the following table;

Coal production of New Mexico in 1901, by counties.

County.

Sold to

worship-' JJS'

ployeea

Used at mines

for

steam

and

heat

Made into coke.

Total quantity.

Total value.

Averpnce ton.

Average number of days active.

Average number of employeea.

Colfax

Lincoln

Short ions.

I 115,886

Short tons.

Short tons.

Short tons.

Short ions.

Rio Arriba

mn JuHn

Sante Fe

Socorro

Total

Coal production of New Mexico in 190 , by counties.

County.

Loaded at mines for shipment.

Sold to local trade and used

by employees.

Used at

the mines

for

and heat.

Made into coka

Total quantity.

Total value.

Averpinoe ton.

Average number of days active.

Average number of employees.

Colfax

Short

tons. 804,221 418,981

Short tons.

Short tons.

Short ions.

Short ions.

Rio Arriba

Juan

Santa Fe

Other counties a

Total

a Lincoln, San Miguel, and Socorro.

Jigitized by IC

Minebal Resohbges.

The following table illustrates how the product of the Territory has been distributed for consumption during the last fourteen years, its total value, with the number of men employed and the average number of days worked:

DistrHmtion of the coal product of New Mexico 1889-190S.

Year.

Loaded at mines for shipment.

Sold to

local

trade and

used by

employees.

Used at mines for

steam and heat.

Made into coke.

Total quantity.

Total value.

Averprice ton.

Average number of days active.

Average number of employees.

tons.

Shtyri tons,

Short tons.

ShoH tons.

ShoH tons.

The following tables show the production in the Territory, by counties, since 1898, with the increases and decreases in 1902, as compared with 1901, and the total production of the Territory since 1882, iA which year the first output was reported:

Coal production of New Mexico, ISS-'ldOS, by counties. [Short tons.]

County.

Decrease,

Colfax

Lincoln

Rio Arriba

Santa Fe

other counties

Total

a87,783

a Net decrease.

Coal.

Coal production of New Mexico, 188S-1902. [Short tons.]

Year.

Quantity.

Year.

Quantity.

157,092 2U,847 220,667 806,202 271,285 506,084 626,665 486,948 876,777 462,828 661,880

North Carolina.

Total production in 1902, 23,000 short tons; spot value, $34,500.

The entire production of North Carolina continues to come from the Cumnock mines, in Chatham County. The output in 1902 was nearly double that of 1901, and exceeded all previous records except those of 1895 and 1899. The average price advanced from $1.25 per ton to $1.50, and the total value in 1902 was 130 per cent in excess of that of

The production and distribution of coal in North Carolina since 1889 are shown in the following tables:

Disbribuiion of the coal product of North Carolina, ISOl-lOO.

Year.

Loaded at mines for shipment.

Sold to

local

trade and

used by

employees.

Used at mines for

steam and heat.

ShoH tons.

Short tons.

Total quantity,

Short tons.

Total value.

Average

price per ton.

Average number of days active.

Average number of employees.

M R 1902 26

MINERAL BESOUBCES. Choi production of North Carolina 1889-190,

Year.

Year.

Quantity.

Short Um9. 10,262 20,855 6,679 17,000 16,900 24,901)

Short tons, 7,818

North Dakota.

Total production in 1902, 226,511 short tons; spot value, $325,967.

All of the coal produced in the State of North Dakota is lignite, which, to be mined and sold at a profit, must have a comparatively local market. It will not stand ti*ansportation well and can not compete with bituminous coals except when the price of the latter is quite high. The distance of North Dakota from the bituminous coal areas has encouraged the development of her own lignite resources with what appears to be considerable success. The producers are to be commended for the energetic manner in which they have developed the industry during the last few years. Attempts are now being made to establish a briquetting industry and thus improve the quality of the product as a fuel and enable it to be stored without deterioration.

The statistics of production, by counties, during the last two years are shown in the following tables:

Coal production of North Dakota in 1901 by counties.

County.

Loaded at mines for shipment.

Sold to

local

trade and

used

byem-

Used at mines for

steam and heat.

Total quantity.

Total value.

Aver-price

per ton.

Aver- . age number of days active.

Average number

of employees.

Burleigh and Emmons . . . McLean and Oliver

Short tons.

ShoH tons,

Short tons.

Short tons.

Morton

Stark

Ward

Total

Coal.

Coal jrroduction of North Dakota in 190, by counties.

County.

Loaded at mines for shipment.

Sold to local trade and used by employees.

Used at mines for

and heat

Total quantity.

Total value.

Aver-piece

per ton.

Average number of days active.

Average number

of employees.

Morton

Short

tOM,

Short Urns.

Shori tons.

ShoH tons.

Stark

Ward

Other countless

Total

a Burleigh, Emmons, and McLean.

The production of lignite in North Dakota in 1902 would have shown even a greater increase than that made, except for the scarcity of labor. So serious did the situation become, because of more congenial employment in other lines of industry, that application was made to an employment agency in Chicago for any kind of labor that could be secured.

The way in which the industry has grown is shown in the following tables:

DistribtUion of the coal product of North Dakota, 188&-190S,

Year.

Loaded at mines for shipment

Sold to local trade and used by employees.

Short tons.

Used at mines for

steam and heat.

ShoH tons.

Short tons.

Total quantity.

ShoH tons.

Total value.

Average

price per ton.

Average number of days active.

Average number of employees.

Mineral Resouboes.

Coal production of North Dakota, 1884-190S. [Short tons.]

Year.

Quantity.

Year.

Quantity.

' 25,955

' 84,000

Ohio.

Total production in 1902, 23,519,894 short tons; spot value, $26,953,789.

Ohio continues to hold fourth place among the coal-producing States in quantity of coal mined and third place in the value of the product. From 1883 to 1896 Ohio occupied third place both as to quantity and value of production, Illinois having superseded it as second in rank in 1883. West Virginia succeeded Ohio as third in rank in quantity of production in 1896, and has remained in that position since that date, although on account of the interruption to operations by the strikes in the southern portion of the former State in 1902, Ohio came within 5 per cent of regaining its old position.

Compared with 1901 the production in 1902 increased 2,576,087 short tons, or 12.3 per cent, in quantity, and $6,025,631, or 28.8 per cent, in value. The production has in fact increased annually since 1897, when the output amounted to 12,196,942 tons, compared with which the tonnage of 1902 shows a gain of 92.8 per cent. The value of the product in 1902 was more than double that of any year prior to

The amount of coal mined by the use of machines in 1902 was 12,094,641 short tons as compared with 9,908,316 tons in 1901 and 8,836,743 tons in 1900. The number of machines in use in 1902 was 559 against 376 in 1901 and 341 in 1900. The percentage of machinemined tonnage to the total product of Ohio in the last three years has been 46.53 in 1900, 47.30 in 1901, and 51.42 in 1902. Taken in connection with these figures it is interesting to note that the individual production in 1902 exhibits a decided decrease from 1901. In 1901 82,111 men were employed in the production of 20,943,807 short tons, or in the proportion of 652 tons for each man during the year. As the average time made was 198 days the rate per man per dav was

Coal. 405

3.29 tons. In 1902, 38,966 men produced 23,519,894 tons, an average of 604 tons each. The average working time being 200 days, the tonnage per man per day was 3.02.

As an indication of the activity in the development work carried on in Ohio .during 1902 it may be stated that 29 new producers, whose product exceeded 5,000 tons each, were added to the lists for that year, in addition to which there were 38 new operations reported which had not reached a productive stage at the close of the 1902.

One county in Ohio attained for the first time a total production exceeding 3,000,000 tons. The county making this record was Athens. Four others — Perry, Guernsey, Hocking, and Jackson in the order named — exceeded 2,000,000 tons each, and all of these but Jackson had over 2,500,000 tons each to their credit. Belmont County came within a fraction of 1 per cent of reaching 2,000,000 tons, and Jefferson Count3% with an increase of nearly half a million tons over 1901, came within 10 per cent of that figure. Two other counties — Stark and Tuscarawas — exceeded 1,000,000 tons. Only one other county — Columbiana— produced as much as 500,000 tons in 1902. Three of the principal producing counties — Athens, Hocking, and Perry — form what is well known as the Hocking Valley region, which contributes between 35 and 40 per cent of the State's entire output. These three counties combined yielded 8,704,735 tons, or 37 per cent of the total, in 1902, and 8,184,364 tons, or 38 per cent, in 1901.

There were 29 counties in the State which produced coal in 1902, and in all but 6 of these the output exceeded that of 1901. The principal increases were made by Jefferson and Belmont counties, each of which gained nearly half a million tons. Hocking County sustained the heaviest loss, with a decrease of 128,630 tons, or more than one-third of the entire decrease in the State. The losses in production in Ohio were not due to labor difficulties, as no strikes were reported in any of the counties whose production showed a decline. Such interruptions to work as were caused by strikes were comparatively unimportant.

Minebal Besouboes.

Details of production, by counties, in 1901 and 1902, together with the distribution of the product for consumption, are presented in the following tables:

Coal production of Ohio in 1901 y by counties.

County.

Loaded

at mines for shipment.

Sold to local trade and used by employees.

Used

at mines

for

steam

and

heat.

Made into coke.

Total quan- Uty.

Total value.

Average

price per ion.

Average number of days active.

Aver-agre

number of

employees.

Athens

Belmont

Carroll

Columbiana . Coshocton . . .

Ouemsey

Harrison —

Hockingr

Jackson

Jefferson

Lawrence . . . Mahoning . . .

Medina

Meigs

Morgan

Muskingum .

Perry

Stark

Summit

Tuscarawas . Vinton

Gallia. Noble, Scioto, and Washington

Portaire. Trumbull, j and Wayne !

Small mines

Short tons.

Short tons.

tons.

Short Umt.

Total 19,808,851

Short tons.

1,

.M

Loo

Coed production of Ohio in 1902y by counties.

County.

Loaded

at mines

for shipment.

Short tons,

Athens 8,281,410

Belmont ' 1,763,658

Carroll i 190,969

Columbiana 724,765

Coshocton 388,:

Gallia 16,962

Guernsey 2,615,805

Harrison , 866,192

Sold to local trade and used by employees.

Used

at mines

for steam and heat.

Short tons.

Short tons.

Made into coke.

Short tons.

Total quantity.

Total value.

ShoH tons,

Average

price per

ton.

Lw

Average number of days active.

Average number of employees.

:ie

Coal.

Coal production of Ohio in 1909 by counties — Continaed.

Ooanty.

Hocking

Holmes

Jackson

Jefferson — Lawrence . . . Mahoning . . .

Medina

Meigs

Morgan

Muskingum .

Perry

Stork

Summit

Trumbull

Tuscarawas..

Vinton

Wayne

Loaded

at mines

for shipment.

Other counties a

ShoH tons.

eoo

99q, o99

Sold to local trade and used by employees.

Shmi tons.

Used

at mines

for

steam

and

heat.

Short tons.

Totol 22,232,404 1,041,112 242,691 3, 784 28, 519, 894 26, 963, 789| 1.16

Made into coke.

Short tons.

Totol quantity.

Short tons.

2,

Totol value.

Average

pnce per

n.io

Lsi

Average number of days active.

Average number of employees.

1T2

a Noble, Portage, Scioto, and Washington.

The distribution of Ohio's coal product for consumption, its value, and the statistics of labor employed since 1889 are shown in the following table:

DiOribuHon of the coal product of Ohio, 1S89-190S,

Year.

Loaded at mines for shipment.

Sold to local trade and used by employees.

Used at mines

for steam

and heat

Made into coke.

Totol quantity.

Totol value.

Averpnce

per ton.

Average numberof days active.

Average number of employees.

Short Urns.

Short tons.

r 196, 872

Short tons.

2U,992

ShoH tons.

Short tons.

Loo

Ic

Mineral Besouboes.

In connection with this table it will be observed that the amount of coal mined in the State made into coke in 1902 was only 3,784 tons. The reason for this small report of coal made into coke is that most of the coal so used was shipped from a distance to the ovens and was reported as a part of the coal loaded at mines for shipment. The actual amount of coal made into coke in Ohio in 1902 was 219,401 short tons.

The production by counties during the last five years and the increases and decreases in 1902 as compared with 1901 are shown in the following table:

CocU production of OhiOj 1893-19018, by counties, [Short tons.]

Increase

Decrease

Athens

2S0.786

Belmont

Carroll

Colnmbiana

89S.680

Coshocton ' 867.292

Gallia

Quemsey

Harrison

Hocking

Holmes

A

Jefferson

Lawrence

Mahoning

Medina

Meigs

Morgan

If uskingum

Perry

Portage

Stark

Summit

Trumbull

Tuscarawas

Vinton

Washington

Wayne

Noble

Scioto

Small mines

b500,000

Total

a Includes Geauga County.

fr Small minen production included in county distribution.

oNet increase.

Coal.

The annual production since 1872 has been as follows:

Annual coal production of OhiOf 187-1909. [Short tons.]

Year.

Quantity.

Quantity.

Oregon.

Total production in 1902, 65,648 short tons; spot value, $160,076.

Oregon is numbered among the seven States whose production in 1902 was less than in 1901, although the number of men employed and the average working time increased. The increase in the labor employed, as well as the large amount of coal consumed at the mines in 1902, was due in all probability to the development work on the Beaver Hill mines in Coos County. The larger part of the product in 1902, as in previous years, was from the Newport mine in the same county.

The following tables show the statistics of production in Oregon for the last 11 years and the total output since 1885:

Didrihution of the coal product in Oregon, 1899-190S.

Year.

Loaded at mines for shipment.

Sold to local trade and used by employees.

Used at

mines

forsteam

and heat.

Total quantity.

Total value.

Average

number of employees.

Average number of days worked.

Short

Short tons.

Short tons.

Short tons.

a69

a The apparently large number of men employed and small average working time are due to the laiige force of men employed In developing the Beaver Hill mine, which was producing coal for shipment during only 20 days in 1895. The average time made at the Newport mine was over 200 days per man.

Mineral Resources.

Coai production of Oregon 1885-190S. [Short tous.]

Year.

Quantity.

Year.

Quantity.

Ig89

Pennsylvania.

Total production in 1902, 124,953,538 long tons, or 139,947,962 short tons; spot value, $182,206,046.

Anthi:acite: Total production in 1902, 36,940,710 long tons; spot value, $76,173,586.

Bituminous: Total production in 1902, 98,574,367 short tons; spot value, $106,032,460.

The great strike in the anthracite region of Pennsylvania which made the year 1902 one of the most notable in the annals of the coalmining industry is still so fresh in the memories of the people of the United States that it is not deemed necessary to discuss it in connection with this report except in so far as it directly affected the production of anthracite and, indirectly, that of bituminous coal. Brief reference to the causes leading up to the strike, its duration, etc., is made in the subsequent report on anthracite production, prepared by Mr. William W. Rule}', of Philadelphia, chief of the Bureau of Anthracite Coal Statistics. The report of the Anthracite Coal Strike Commission is available for those who desire more particular information.

The immediate effect of the suspension of work, which began on May 12 and lasted until October 25, was a decrease in the production of anthracite as compared with 1901 of 23,301,850 long tons, or 38.7 per cent. The value decreased in somewhat less proportion, owing to the higher prices obtained during the strike and even after its termination, but with a total falling off of $36,330,434. The returns for 1902 show that the average time made by 148,141 men employed in the anthracite region in 1902 was 116 das, or 80 days less than the working time made by 145,309 men in 1901. In 1901, a year of unusual activity and prosperity in the anthracite regions, the average working time made was 196 days of 10 hours, which shows that from one cause or another the anthmcite employees will average not more than 4 working days a week. The amount of elapsed time from the beginning to the end of the strike was 172 days, which at an average of 4

Ic

Goal. 411

working days to the week would mean an actual loss in working time of 98 days. As shown elsewhere in this report, the average daily production per man in 1902 was 2.4 short tons, equivalent to 2.14 long tons. At this rate, if the mines had been running during the time lost by strike and if the usual percentage of lost time were allowed for, the production during this period would have been approximately 28,900,000 long tons, and the total output of anthracite for the year would have been in the neighborhood of 65,750,000 long tons.

The cutting off of the supply of anthracite created an unprecedented demand for bituminous coal, which was naturally directed for the most part toward the soft-coal areas of Pennsylvania. As a result, unprecedented activity prevailed throughout the bituminous regions in the central and western portions of the State, eventuating in an increase in production over 1901 of 16,268,421 short tons, the total output of bituminous coal for the State amounting to 98,574,367 short tons, as against 82,305,946 tons in 1901. The production of bituminous coal in Pennsylvania in 1902 was nearly double that of 1896 and was more than double that of any year prior to 1895.

Large as was the production of bituminous coal in the State, and great as was the increase over 1901, it was not sufficient to overcome the loss caused by the strike in the anthracite region. Reducing the anthracite tonnage to the standard unit of measurement adopts for this report (the short ton of 2,000 pounds), the total coal product for the State in 1902 is found to have been 139,947,962 short tons, which, as compared with the output in 1901, 149,777,613 tons, exhibits a decrease of 9,829,651 short tons, or 6.6 per cent, and, notwithstanding the higher prices for both kinds of coal, the aggregate amount received for them was $11,695,560, or 6 per cent, less than the value of the product in 1901.

Mention has been made in previous reports of this series of the decided changes that have taken place in the conditions affecting the the anthracite industry, and the practical elimination of anthracite as a manufacturing fuel, with the exception of the small sizes, either used alone or mixed with bituminous coal. These small sizes, however, can not be classed among the profitable production. They must be sold in competition with bituminous coal and the prices i*received for them at the mines are frequently below the actual cost of mining. This loss must necessarily be made up from the sale of domestic sizes, which now represent pi-actically all the profitable output. During the strike of 1902 many manufacturers who had been using small anthracite were driven to the use of bituminous coal. In some of these cases the latter fuel has become established, and the anthracite operators have in consequence permanently lost markets for their by-product or small sizes. Against this, however, may be set the great increase in the construction of apartment houses, of large office buildings, and

Ic

of enormous hotels in the eastern cities of the United States where the cheapness and smokeless character of this fuel makes it desirable for use in the power plants and in the steam-heater furnaces. Still, the indications are that the anthracite producers are confronted with what appears to be a continually contracting "sphere of influence," and although increasing population in the Eastern States may cause for a few years to come an increasing production of anthracite, the gradually augmenting cost of that fuel, combined with the growing competition of bituminous coal, coke, and gas, tend to the belief that the maximum of yearly production has about been reached. The history of production during the last quarter of the last century shows that although the output of anthracite has somewhat more than doubled during that time, it has not by any means kept pace with the production of bituminous coal. In the five years from 4876 to 1880 the average yearly output of anthracite was 26,250,000 tons, and the average annual bituminous coal production of the country amounted to 36,650,000 tons, or a little more than one and one-third times that of anthracite. In the last five years of the century the average yearly production of anthracite was 55,625,165 tons, and the average bituminous coal production was 171,495,837 tons, or more than three times that of anthracite. In other words, the production of bituminous coal increased nearly five times in the same time that anthracite production a little more than doubled.

The following table shows the comparative growth of anthracite and bituminous coal production by five-year averages during the last quarter of the nineteenth century. It will be observed that the average production of anthracite in the last five years showed so little gain over the period immediately preceding as to indicate an almost stationary condition, while bituminous production increased nearly 40 per cent The production of anthracite in both 1901 and 1902 was of an unusual character and the two years are therefore unreliable for comparative statistics. In 1901 the production was unusually large in making up for the shortage created by the strike of 1900, while the production for 1902 was the smallest in sixteen years.

Production ofanihracUe and bituminous coed in twenty-five years by five-year averages.

Period.

Anthracite, quantity.

Bituminous, quantity. .

Goal.

Until 1902 Pennsylvania held the distinction of producing more than one-half of the total output of coal in the United States, but the decrease last year in connection with the general increase in production among the other States reduced Pennsylvania's percentage of the total output to 46. Even with the reduced production however, Pennsylvania continues to exceed the output of any foreign country with the exception of Great Britain and Germany. It exceeds the production of Austria, France, and Belgium combined, and amounts to about 15 per cent of the entire world's production. In 1880 Pennsylvania produced 65 per cent of the total output of the United States, and averaged 55 per cent from 1880 to 1900.

In the following table is shown the total production of Pennsylvania and of the United States since 1880, with the percentage of the total produced by Pennsylvania in each year:

Production of Pennsylvania coal compared uith total Ihited States, 1880-1909,

Year.

Total United States.

Pennaylvania.

Short iam, 47,529,711 54,820,018 57,264,507 62,488,190 62.404,488 62,137,271 62,857,210 70,872,857 77,719,624 81,719,069 88,770,814 93,463,921 99,167,060 98,088,267 91,833,684 108,216,565 108,903,534 107,029,664 118,547,777 134,568,180 187,210,241 149,777,618 139,947,962

Per cent of Pennsylvania to total.

The production of anthracite and bituminous coal in Pennsylvania is discussed separately in the following pages. The chapter on anthracite production has been prepared for this report, as heretofore, by Mr. William W. Kuley, of Philadelphia, the Chief of the Bureau of Anthracite Coal Statistics. Mr. finley is thoroughly familiar with all the conditions affecting the anthracite industry. One of the features of his report for this year is the discussion as to the proportion of the various

MINERAL BjBSOUBOES.

sizes of coal shipped to market and the changes which have taken place in recent years in this regard.

PENNSYLVANIA ANTHRACITE. By William W. Ruley.

The production of anthracite coal in 1902 was the smallest since 1886, reaching only 36,940,710 long tons, as compared with a production of 60,242,560 long tons in 1901. This decrease was due solely to the strike in the anthracite regions, which lasted from May 10 to October 23, 1902, during which period mining was practically suspended.

The causes which led to this strike, its progress and final adjustment, are so familiar to the public that nothing more than a brief account of it will be given in the latter part of this report. Those interested in a more comphrensive and detailed account are referred to the report of the Anthracite Coal Strike Commission, which is printed and ready for distribution.

Next to the small production, the most noticeable feature of the business for 1902 was the relatively large proportion of small-sized coal produced, the tonnage for sizes below ''pea" being 8,012,346 long tons, or 30.93 per cent less than in 1901, while the total production decreased 41.76 per cent. This was largely due to the fact that many washeries were kept in operation during the strike period. There has, however, been a constant increase in the production of this small coal, because of the increased number of washeries built in recent years to recover coal from the old culm banks.

To illustrate the increase of washery product as compared with the total output the following statement is given, showing the amount of coal obtained in this manner from 1890 to 1902, inclusive:

ShipTnents of anthracUe coal from tvaaheries compared with total shipmeniSf 18901902,

Year.

Shipments

from washeries.

Total shipments.

Per cent of

washery output

to total shipments.

1891, 1892' 1893,

tizeq by

FVie

J6.28

Coal.

It will be noted from this table that nearly 5 per cent of the total shipments in 1901 came from washeries, and that 6.28 per cent in 1902 came from this source. There were 40 washeries in operation in 1902.

In connection with small-sized coal reclaimed from washeries it is interesting to note the proportion of the various sizes shipped to market in 1901 and 1902, and the following table gives this information.

A comparison of the variations of these two yeara is hardly a fair one, on account of the abnormal conditions existing in 1902. The figures for 1901, however, represent a normal condition.

To illustrate the change which has taken place in the percentage of the various sizes shipped in a little more than a decade a similar statement is given for 1890.

Shipments of anthracite according to sizes in 1890, 1901, and 190!B, [Long tons.]

Size.

Lump

Broken

Egg

Stove

Chettnut

Pea

Buckwheat No. 1

Smaller than buckwheat No. 1

Total

Quanti ty . Per cent.

Quantity. Percent., Quantity. Percent.

2,187,553 4,423,58-i 6,989.330 10,561,957 10,250,5.0 7,555,948 7,894,613 8,705,066

1,227,114 2,548,930 3,8M),I04 5,757,713 5,611,471 4,162,913 4,419,775 8,592,570

It will be seen comparing the years 1890 and 1901 that the sizes above pea have fallen from 76.9 per cent to 64.24 per cent, and the sizes below pea have increased from 10.3 per cent to 21.65 per cent, and that the percentage of lump coal has decreased to less than one-third of what it was in 1890. A considerable part of this increase in small sizes is made up of washery product. It should be stated that these tables do not include the shipments from Sullivan County mines.

Of the total product in 1902, 31,486,120 long tons were shipped to market, 995,655 tons were sold to local trade at the mines, and 4,458,936 tons were used for steam and heat. The proportion of these items as compared with 1901 is shown below.

Distribution of the anthracite product in 1901 and 190S, [Long tons.]

Shipped to market

Sold to local trade

Uaed at mines for steam and heat

Total

Quantity. Per cent.

Quantity. Per cent.

Minebal Besoubges.

The much larger relative proportion of coal used for steam and heat in 1902 than in 1901 is noticeable, and is due to the fact that although little coal was taken out during the strike period it was necessary to keep the engines and pumps in operation.

The coal used for steam is mostly small sizes and culm, and its value is not considered in making up the average value per ton nor is it included in the total value of product. This average value in 1902 was $2.35 per ton, the highest recorded in recent years, and the total product was valued at 176,173,586.

In the months following the strike exceedingly high prices were realized by some of what are known as the independent operators, which accounts for the very considerable increase over the average for the previous year.

In the following table is shown the production, total value, price per ton, etc., of anthracite for the last five years:

Statistics of production of anthracite, 1898-190S.

Year.

Quantity.

Value.

Average

price per

ton.

Average number of employees.

Avenge number of days worked.

In the two following tables the production is shown according to counties for the years 1901 and 1902:

Ahthraciie production in 1901, by counties. [Long tons.]

County.

Total quantity.

Shipments.

Local trade.

Uaedat mines.

Susquehanna

Lackawanna

Luzerne

Carbon

Schuylkill

Columbia

Sullivan

Northumberland . Dauphin

Total.

Goal.

AnthracUe production in 1901S by counties. [Long tons.]

Gonnty.

Total quantity.

Shipments.

Local trade.

Used at mines.

Susquehanna — Lackawanna —

Lucerne

Carbon

Schuylkill

Columbia

Northumberland Dauphin

Total

In order to show the shipments of anthracite by years from the beginning of the industry the following table is compiled, which gives the shipments for each year, divided according to regions, since 1820:

Annual shipments Jrom the SchuylkiU, Lehigh and Wyoming regions, 1890-1909.

Year.

Schuylkill region.

Quantity. Percent.

Lehigh region.

Quantity. Percent.

Wyoming region.

Quantity. Percent.

Total.

Quantity.

Long tons.

1822., ia24. 1825., 1886., 1888., 1889., 1845.,

Long tons.

U.60 20,08

Longtont.

Mikebal Be8Oub0£S.

Annual shipment from the SchuylhiUy Lehighy and Wyoming regions 18S0-190 — Cont'd.

Year.

Wsa

Total.

Schuylkill region.

Quantity. Per cent.

Ixmgtons. 2,666,110 8,191,670 8,552,948 8,608,029 8,873,797 8,273,246 8,448,708 8.749,682 8,160,747 8,872,583 8,911,683 4,161,970 4,866,959 5,787,902 6,161,671 5,830,787 6,775,138 4,968,157 6,562,772 6,694,890 7,212,601 6,866,877 6,281,712 6,221,984 8,195,042 6,282,226 8,960,829 7,564,742 9,253,968 9,469,288 10,074,726 9,478.814 9,488,426 9,881,407 10,609,028 10,664,116 10,486,185 10,867,822 12,741,258 12,626,784 12,367,444 12,085,006 14,269,082 18,097,671 12,181,061 12,078,876 14,199,000 18,602,782 16,019,591 8,471.891

Lehlglti region.

Quantity. Per cent.

LongioM, 1,064,809 1,207,186 1,284,113 1,351,970 1,318,641 1,380,030 1,628,311 1,821,674 1,788,377 1,894,713 2,054,669 2,040,913 2,179.864 2,502,064 2,502,682 1,949,673 3,239,374 2,235.707 3,873,389 3,705,596 8,778,886 2,834,605 3.854,919 4,832,760 8,287,449 4,596,667 4,463,221 6,294,676 5,689,487 6,118,809 6,562,226 5,898.684 6,728,129 4,347,061 5.689,286 t>, 294, 073 6,829.658 6,881,838 6,461,076 6,882,852 6.706,484 7,296,124 6,490.441 6,249,640 6.253.109 6,887,909 6,918,627 7,211,974 3,470,786

Wyoming region.

Quantity. Percent.

Long tons.

a 16, 677. 753

a 17, 031, 826

a 19, 684, 929

a21,862,866

a 19, 036, 885

a 19, 417, 979

Total.

Quantity.

Long tens.

Coal.

The figures given in this table show only shipments to market and do not include coal sold to local trade or used at mines.

As has been customary in previous reports, a tabular arrangement of the various sections of the anthracite fields is given below, and a list of the railroads entering the territory.

AnthracUe ooalfidck, by field, local didrict, and trade region.

Coal field or bastn.

Trade region.

Pittston

Wilkesbarre .'

Plymoath

Kingston

fGreen Mountain

Black Creek

Eastern middle

Haxleton

Lehigh.

Beaver Meadow

fPantber Creek

Bust Schuylkill

Southern

West Schuylkill

Lorberry

Lykens Valley

Schuylkill.

West Mahanoy

Shamokin .

The above-named fields comprise an area of something over 480 square miles, and are located in the eastern middle part of the State, in the counties of Carbon, Columbia, Dauphin, Lackawanna, Luzerne, Northumberland, Schuylkill, and Susquehanna, and are classed under three general divisions, namely, the Wyoming, the Lehigh, and the Schuylkill regions. Geologically they are divided into fields or basins, which again are subdivided into districts.

The Bernice field, in Sullivan County, is not included in any of these regions. The classification of the product of this field is a matter of some contention. The fracture of the coal and some of its physical characteristics are more like some bituminous or semianthracite coals than strict anthracite, but on account of its high percentage of fixed carbon and low percentage of moisture it is classed as anthracite by the Second Pennsylvania Geological Survey, and the product is so included in this report.

The above territory is reached by ten so-called initial railroads, as follows:

Philadelphia and Beading Railway Company.

Lehigh Valley Railroad Company.

Central Railroad of New Jersey.

Delaware, Lackawanna and Western Railroad Company.

Delaware and Hudson Company's Railroad.

Pennsylvania Railroad Company.

Erie Railroad Company.

New York, Ontario and Western Railroad Company.

Delaware, Susquehanna and Schuylkill Railroad Company.

New York, Susquehanna and Western Railroad Company.

As noted in the beginning of this report, there was a general strike in the anthracite regions from May 10 to October 23.

EatIj in February, 1902, the United Mine Workers of America asked that a joint conference with the operators be set for March 12, 1902, at Scranton, to prepare a wage scale for the year commencing April 1, 1902.

This conference was not granted, and a convention of the anthracite mine workers was held at Shamokin, March 18 to 24, during which resolutions were passed demanding recognition of the union, an eight-hour day, the weighing of coal, and a uniform scale, with the notice that after April 1, 1902, miners should work only three days a week until an agreement was reached with the operators. An appeal was made to the Civic Federation to assist in securing these demands.

The request was taken up by the industrial department of the Federation, and the whole subject was discussed before it by representatives of the miners and operators. An adjournment was then taken for thirty days, at which time further discussion ensued, and a committee of the operators and miners was appointed to take the matter up and report back to the Federation. So far as known the Federation took no further action, nor did the conmiittee make any report.

These discussions failing to settle the matter, the executive committee of the United Mine Workers ordered a temporary suspension of work, beginning May 12, 1902, and called a delegate convention to decide whether a permanent strike should be ordered for May 14, 1902.

At this convention it was voted to continue the strike, which lasted until October 23, 1902, and was then ended by the appointment by the President of the United States of a commission to look into the matters in dispute and to make an award, by which both operators and miners had in advance agreed to abide. This commission made its report to the President March 18, 1903.

Pennsylvania Bituminous Coal.

Total production in 1902, 98,574,367 short tons; spot value, $106,- 032,460.

During the last five years the production of bituminous coal in Pennsylvania has not only increased annually, but since 1S98 the price also has steadily advanced, so that since 1898 the production has increased

Ic

Coal. 421

a little over 50 per cent, while the value has increased 144 per cent. The output in 1902 wa.s more than double that of any year prior to 1896. Between 1891 and 1898 the producers of bituminous coal were mining coal in the face of a steady decline in vahie. From 87 cents per ton in 1891, the average price declined each year until the lowest record ever made, 67 cents, was reached in 1898.

The reaction set in in 1899 and continued as regularly as the decline until the record high-water mark was made in 1902, with an average price per ton for that year of $1.08. The large production and the extremely high prices of bituminous coal in 1902 were caused for the most part by the cutting off of the supply of anthracite the prolonged strike in the anthracite region. The demand for bituminous coal in Pennsylvania was unprecedented, and in the efforts to supply it the transportation facilities were found entirely inadequate. Several millions of tons more would have been added to the production in 1902 if cars and motive power sufficient could have been furnished by the railroads. As it was, the output in 1902 exceeded that of 1901 by 16,268,421 short tons, or 19.8 per cent, in quantity, and $24,634,874, or 30.3 per cent, in value. The production of bituminous coal in Pennsylvania in 1902 was larger than the entire production of the United States in any year prior to 1882, twenty years before.

Of the total production in 1902, 35,058,038 tons, or 35.57 per cent, were produced by the use of mining machines. In 1901, 29,591,368 tons, or 35.95 per cent of the total, were machine mined, which shows that while the machine-mined' product in 1902 increased naore than 5,400,000 tons over 1901 the proportion that it bore to the total product was somewhat less. The number of machines in use in 1902 was 2,620, as com[.ared with 2,058 in 1901 and 1,786 in 1900. Of the machines in use in 1902, 1,800 were of the pick or "puncher" type, 814 were chain machines, and 6 were long-wall.

The retuiTis for Pennsylvania bituminous mines in 1902 show that during that year 12,580 men were idle at one time or another, and that the total number of working days lost by them was 264,862, an average of 21 days each; and, although with the exception of West Virginia, this represented the largest number of men on strike and the largest amount of time lost by strikes in any coal-producing State outside of the anthracite region of Pennsylvania, it was not (on account of the great number of men employed) sufficient materially to affect the production. The time lost by strike in the Pennsylvania bituminous coal mines was less than 1 per cent of the total time made, and as the production in 1902 was less than it would have been had the railroads been equal to the demands made upon them it is doubtful if the tonnage would have been any larger had there been no labor troubles at all.

Mineral B£30Ubc£S.

In Pennsylvania, as in most of the bituminous-coal producing States, the individual efficiency in 1902 showed an increase over 1901. In the earlier year the amount of soft coal mined per man was 808 short tons, and as the average time made that year was 280 days, the average tonnage per day was 3.51 for each employee. The number of men employed in this work was 101,904. In 1902, 112,030 men worked 248 days, and averaged 876 tons each per year and 3.53 tons per day.

The counties of Fayette and Westmoreland, which contain the Connellsville coking region, have stood, for a number of years, at the head of the bituminous coal producing counties. In 1902 these two counties produced 37,799,569 short tons, against 31,352,524 short tons in 1901, the percentage of the State's total product being about the same in both years. The tonnage has been almost evenly divided between the two counties, Fayette having a slight advantage. Allegheny County, which contains the great iron-making district of Pittsburg and vicinity, comes third-in rank, with an output in 1902 of almost 12,000,000 tons. Cambria County, which includes the city of Johnstown and its iron and steel mills, is fourth in importance, having, in 1902, an output of over 10,500,000 tons. After these, among, the more important counties and their tonnage in 1902, are Washington, 8,529,954 tons; Clearfield, 7,334,785 tons; Jefferson, 6,083,494 tons; and Somerset, 5,845,669 tons. All of these counties increased their production in 1902, the largest increase being that of Westmoreland County, 3,646,211 tons, and the next largest, Fayette, 2,800,834 tons.

Of the 37,799,569 tons produced in Fayette and Westmoreland counties in 1902, 19,651,866 tons, or more than half, was made into coke at the mines.

The statistics of production, by counties, in the last two years, with the distribution of the product for consumption, are shown in the following tables:

BUuminaus coal production of Pennsylvania in 1901, by counties. '

County.

Allegheny. . Armstrong .

Beaver

Bedford

Blair

Butler

Cambria

Center

Clarion

Clearfield... Elk

Loaded at mines for shipment.

ShoH tons.

Sold to local trade and used by employees.

Short tons.

Used at mines

for steam

and heat.

Short tons.

Made Into coke.

Short tons.

Total quantity.

Short tons.

Total value.

Average

price per ton.

.9J

Average number of days active.

Average number of employees.

S39

Goal.

Bituminous coal production of Pennsylvania in 1901 y by counties — Continued.

County.

Loaded at mines for shipment.

Sold to

local

trade and

used

by em'

ployees.

Used at mines

for steam and heat.

Made into coke.

Total quantity.

Total value.

Aver. Aver-

Average number of employees.

Fayette

Short torn.

Short

tOM. 1A9 fisn

Short tont.

Short tons.

Short 1 1 tons.

Huntingdon

Indiana

Jefferson

6,806,568J 4.909,817 171, 959! 145,948

Somerset

Tioga

Washington

Westmoreland .. Bradford

Clinton

Lycoming

Small mines

Total

BUuminous coal production of Pennsylvania in 190iSy by counties.

County.

Allegheny

Armstrong

Beaver .

Bedford

Blair

Butler

Cambria

Center

Clarion

Clearfield

Elk

Payette

Huntingdon..

Indiana

Jefferson

Lawrence

Mercer

Somerset

Tioga

Washington . . Westmoreland Other counties a.

Loaded at mines for shipment.

Sold to

local trade and

used by employees.

ShoH tons.

2a'>,549

Short tons.

Used at

the mines

for steam

and heat.

Short tons.

Made into coke.

Short tons.

Total quantity

Short tons.

Total value.

Average price per ton.

a Clinton, Greene, and Lycoming.

age number of days active.

Average number of employees.

zed -by-

'288

Auuyic

Mineral Kes0Ubge8.

The distribution of the product for consumption during the last fourteen years has been as follows:

Distribulion of the bituminous coal product of Pennsylvania, 1889-190$.

Year.

Loaded at mines for shipment.

Sold to

local

trade and

used by

employees.

Used at

mines

for

and heat.

Made into coke.

Total Quantity.

Total value.

Averpnce

Average number of days active.

Average number of employees.

ShoH tons.

Short tons.

Short tont.

Short

tOM.

In the following table is exhibited the total production in the last five years and the increases and decreases in 1902 as compared with 1901:

Bituminous coal production of Pennsylvania, 1898-190, by counties. [Short tons.]

County.

Allegheny... Armstrong . .

Beaver

Bedford

Blair

Bradford

Butler

Cambria

Center

Clarion

Clearfield

Clinton

Elk

Fayette

Greene

Huntingdon .

Indiana

Jefferson

Lawrence ... Lycoming . . . McKean

Increase, . 1902.

Decrease,

,gitize*d Vj U IC

Coal. 425

BUuminous coal production of Pennsylvania 1898-190Sy by counties— Continued.

county.

Increase,

Decrease,

Mercer

Bomemt , . .

Tioga ...:

Washington

Westmoreland Small mines

a600.000

Total

M6, 268, 421

a Small mines production included in county distribution.

b Net increase.

The following table exhibits the total production of bituminous coal in the State since 1873:

Production of bituminous coal in Pennsylvania, 1879-1909. [Short tons.]

Year.

Quantity.

Year.

Quantity.

J873

Tennessee.

Total production in 1902, 4,882,968 short tons; spot value, ,399,721.

Compared with 1901, the coal production of Tennessee in 1902 exhibits an increase of 749,678 short tons, or 20.6 per cent in quantity, and of $1,332,332, or 32.8 per cent in value. Since 1893, or for a period of nine years, the production of coal in Tennessee has increased annually, reaching its maximum in 1902, with an output 50 per cent larger than that of 1897, five years before, and more than double that of 1892, The effect of the great demand for soft coal in 1902, so far as Tennessee is concerned, is shown more in the advanced value than in the increased tonnage, large as the latter was. The average price of $1.23 realized for Tennessee coal in 1902 was the highest reached in fourteen

Ic

Mineral Besoubges.

Tennessee lost more time from strikes in 1902 than any .of the other States except West Virginia, Pennsylvania, Michigan, and Alabama. Of the 8,860 men employed in the coal mines of the State, 1,904 were on strike during a part of the year, the average time lost by each being 71.6 days. The entire time lost was equal to about 6.8 per cent of the total time made during the year.

The use of machines in Tennessee during 1902 showed a considerable increase over the preceding year, the number of mining machines in use increasing from 21 to 38, and the machine-mined product from 220,573 short tons to 303,995 short tons. The percentage of machinemined coal to the total product was 6.94 in 1902, as against 6.07 in 1901. Whether this had any effect upon the increased efficiency of the men as shown by the returns for 1902 is doubtful, as the increase in the machine-mined coal was only a little more than 10 per cent of the total increase in production. There was, however, quite a marked increase in the individual production. The returns for 1902 show that 8,750 men were employed for 230 days in producing 4,382,968 tons of coal, an average of 501 tons per man per year and of 2.18 tons per man per day, against 401.7 tons per year and 1.76 tons per day as the average production for each man in 1901, when 9,046 men were employed for 228 days in producing 3,633,290 tons.

The statistics of production during the last two years are shown in the following table:

Coal production of Tennessee in 1901 by counties.

County.

Anderson

Campbell

Claiborne

Hamilton

Marion

Morgan

Rhea

Scott

Cumberland. Onindy. a n d Putnam

Roane and White.

Small mines

Total.

Loaded at mines

Sold to local trade

for ship- I and used by employees.

ment.

Sfuni " tons.

Short tons.

Used at mines

for steam

and heat.

ShoH tofis.

Made into coke.

Total quantity.

Short tons.

Short tons.

Total value.

t788,095 727,170 454,842 257,588 873,485 888,184 183,049 109,825

Aver-price

per ton.

fl.ll

Average number of days active.

Average number of employees.

Goal.

Coal production of Tenneme in 190S by counties.

Loaded at mines for shipment.

Sold to local trade and used by employees.

Used at mines

for steam

and heat.

Short tons.

Made Into coke.

Total quantity.

Total value.

Aver-price

per ton.

Average number of days active.

Average number of employees.

Anderson

Short tons.

Short tons.

Short kms.

ShoH tons.

Campbell

Claiborne

Cumberland

Grundy

Marion

&n

Rhea

Scott

Other counties a..

Total

o Bledsoe, Franklin, Hamilton, Overton, Roane, Sequatchie, and White.

The distribution of the product for consumption for the last fourteen years has been as follows:

IHstribution of the coed product of Tennessee 1889-190S,

Year.

Loaded at mines for shipment.

Sold to local trade and used by employees.

Short Urns.

Used at mines for

steam and heat.

Short tons.

Made into coke.

tons.

Short tons.

Total quantity.

Short Urns.

Total value.

Average

price per ton.

Average number of days active.

Average number of employees.

Mineral Resources.

In the following table is given the production, by counties, during the last five years, with the increases and decreases in 1902 as compared with 1901:

Coal production of Tennessee, 1898-190£ by counties. [Short tons.]

County.

Anderson

Campbell

Claiborne

Cumberland.

Hamilton ...

Marlon

Morgan

Putnam

Rhea

Roane

Scott

White

Other counties and mines

small

Total 3,022,896

Netfncrease ! 184,047

Increase

Decrease

The annual output for the State since 1873 has been as follows :

CocU production of Tennessee, 187S-190i. [Short tons.]

Year.

Quantity.

Year.

Texas.

Total production in 1902, 901,912 short tons; spot value, $1,477,245.

The effect of the oil developments In Texas in 1902 was decidedly unfavorable to the coal-mining interests and the production fell off more than 200,000 tons as compared with 1901. During 1902 a large amount of crude petroleum was forced on the market at prices with

Coal.

which the coal mined in the State, particularly the lignite, could not compete, and several of the lignite mines were compelled to shut down. The wild exploitation of the Beaumont oil fields resulted, as those familiar with petroleum conditions knew it would, in an early end of gusher" lives, and with a falling off in pressure and wasteful production the industry has settled down to a fairly conservative basis.

As a result of this condition in the petroleum fields a more hopeful aspect has been given to the coal-mining interests, and in the early months of 1903 some of the lignite mines which had been shut down during the oil excitement were reopened, and it is to be expected that the production for the current year will show a decided gain over 1902.

There were 16 counties in the State which produced coal in 1902. In 7 of these counties the product was classed as bituminous coal, and 9 counties produced lignite or brown coal.

The seven bituminous-producing counties were Eastland, Erath, Maverick, Parker, Webb, Wise, and Young. The counties in which lignite coal is produced are Anderson, Bastrop, Houston, Medina, Milam, Raines, Robertson, Shelby, and Wood.

Coleman and Palo Pinto counties were dropped from the list of counties producing bituminous coal in 1902, Young County was added, and Anderson, Houston, and Raines were added to the lignite producers.

The statistics of production in the last two years are shown in the following tables.

Coal production of Texas in 1901 by counties.

County.

Loaded at mines for shipment.

Sold to local trade and used by employees.

Used at

mines

for steam

and

heat.

Total quantity.

Total value.

Averprice

Average number of davs active.

Average number

of employees.

Bituminous:

Coleman

Eastland

Erath

Short Umt.

Short tons.

Short tons,

Short tons. 804,798

S2.06

Maverick

Palo Pinto

Parker

Webb

Wise

Lignite:

Bastrop

Medina

Robertson

Shelby

Wood

Total

1,J4,881

izedbyf

Minebal Besoubges.

Coal production of Texas in 190£y by counties.

County.

Loaded at mines for shipment.

Sold to local trade by employees.

Used at mines

for steam and heat.

Total quantity.

Total value.

Averpnce

Average number of days active.

Average number

of employees.

Bituminous:

Eastland

Erath

Shtyrt tons.

ShoH tow,

Short tons,

Short tons. 696,006

$L91

Maverick

Parker

Webb

Wise

Young

Lignite:

Andetson

Bastrop

Houston

Medina. ..

'

Raines

Robertson

Shelby ..

Wood

Total

The record of production and distribution since 1889 has been as foUows:

Distribution of the coal product of Texas, 1889-1902,

Year.

Short tons.

Loaded at mines for shipment.

Sold to local trade and used by employees.

Used at

mines

for steam

and heat.

Short tons,

Short tons.

Total quantity.

Short tons. 128,216 184,440 172,100 245,690 802,206 420,848 484,959 544,015 639,341 686,784 888,832 968,878 1,107,958 901,912

Total value.

Average

price per ton.

S2.66

Average number of days active.

Average number of employees.

Goal.

Utah.

Total production in 1902, 1,574,521 short tons; spot value, $1,797,454.

The coal-mining industry of Utah has developed with great rapidity during the last five years, during which time the output has inci'eased more than 200 per cent, the product in 1902 being more than three times that of 1897. This State, however, formed one of the few exceptions to the prevailing tendency toward higher prices, the average price per ton declining from $1.26 in 1901 to $1.14 in 1902.

Of the total amount of coal produced in Utah during 1902, 74,502 tons were undercut by machines as against 14,738 tons of machinemined coal in 1901. There was no increase in the number of machines in use, the increase in machine tonnage being due to the fact that the machines were not installed until the latter part of 1901 and were used throughout 1902.

The average production per man employed in 1901 was 772.6 tons; in 1902 it was 862 tons. The average production per man per day increased from 2.98 tons in 1901 to 3.33 tons in 1902. There were no strikes reported at any of the coal mines in Utah during 1902.

In the following table are presented the statistics of coal production in Utah during the last two years:

Coal production of Utah in 1901 , by counties.

County.

Loaded at mines for shipment

Sold to local trade and used by employees.

Used at

mines

for

and heat.

Made into coke.

Total quantity.

Total value.

Averpnce ton.

Average number of days active.

Average number of employees.

Carbon '.

ShoH tons.

ShoH tons.

ShoH tons.

ShoH tons.

ShoH tons.

Summit

Uinta

Emery

Sanpete

Total

Coal production of IJlah in 190iB, by counties.

County.

Loaded at mines for shipment.

Sold to local trade and used by employees.

Used at mines

for

steam

and

heat.

Made into coke.

Total

Total value.

Averimce

Average number of days active.

Average number of employees.

Carbon

ShoH tons.

ShoH tons.

ShoH tons.

ShoH tons.

ShoH tons.

Emerv

Sumnjit r

Uinta

Iron

Sanpete

Total

—Im

Mineral Resources.

The distribution of the product since 1891 and the total output since 1885 are shown in the following tables:

IXgtribution of the coal product of Utali, lS91-190f,

Year.

Loaded at mines for shipment.

Bold to local trade

and used byem-

Used at mines for

steam and heat

Made into coke.

Total quantity.

Total value.

Aver-

p3ce per ton.

Average number of days active.

Average number

of employees.

Short tons.

Short

iOM.

Short tons.

Short tons.

Short tons.

Coal produaion of Utah, 1886-1902. [Short tons.]

Year.

Quantity.

Year.

Quantity.

Ig95

Virginia.

Total production in 1902, 3,182,993 short tons; spot value, $2,643,695.

Increased activity in the mines of Wise County, on the Clinch Valley division of the Norfolk and Western Railroad, resulted in an increase in the total production for the State of 457,120 short tons as compared with that of 1901, Wise County's production in 1902 was 603,724 short tons larger than that of the preceding year, while Tazewell County's production fell off 52,815 tons. These are the only two counties having any importance as producers of coal, the combined output of Montgomery, Pulaski, and Chesterfield counties being less than 40,000 tons in each of the last 2 years. The Richmond basin, from which some of the first coal mined in the United States was taken and which 80 years ago produced over 100,000 tons a year, has ceased to be a factor in the trade. Efforts made a few yeai's ago to rehabilitate the industry there ended disastrous!} for those interested in the

Coal.

enterprise, as the quality of the coal was of a character which could not compete, even at much cheaper rates, with other fuels. The little coal now mined there is practically all for immediately local markets.

Wise County, now the chief producer in the State, was the latest to be developed. The coal-mining industry began there 10 years ago, the first production being reported in 1893. In 1897 Wise County exceeded Tazewell in coal production, and since that date has increased the lead, until in 1902 the output of Wise County was nearly 3i times that of Tazewell. Prices fell off in both counties during 1902, the average for the State declining from 86 cents in 1901 to 80 cents in 1902. The statistics of Virginia's production in 1902 show that the machine-mined portion of the output decreased 100,000 tons, or more than 40 per cent from that of 1901, and that the number of machines reported as in use increased from 6 to 11.

The details of production by counties in the last 2 years are shown in the following tables:

Ooal production of Vtrffirda in 1901 by counties.

County.

Loaded at mines for shipment.

Sold to local trade and used by employees.

Used at mines

for

steam

and

heat

Made into coke.

Total quantity.

Total value.

Aver-

Average number of days active.

Average number

of employees.

Montgomery ..

Tasewell

Wise

ShoH tont,

Short tovw.

Short tons.

ShoH ions.

Short tons.

U,177

Chesterfield ... Henrioo

Total

Coal production of Virnia in 190S, by counties.

County.

Loaded at mines for shipment.

Sold to local trade and used by employees.

Used at

the mines

for

Made into coke.

Total quantity.

Total value.

price ton.

Average number of days active.

Average number Cf em-and

heat.

ployees.

Montgomery ..

Tazewell

Wise

ShoH tons,

I 22,587

ISwH tons.

ShoH tons.

ShoH Urns.

ShoH tons.

Chesterfield ...

Pulaski

Total

The distribution of the product for consumption during the last 14 years is shown in the following table. The increase in the amount of coal made into coke is particularly noticeable, more than one-half the total product of the State being so consumed in 1902. More than

M B 1902 28

Mineral Besouboes.

one-half of Wise County's product in 1901 and nearly two-thirds of the output in 1902 were made into coke.

Distribution of the coal product of yvrgima 1889-190S.

Year.

Loaded at mines for shipment.

Sold to local trade and used by employees.

Used at mines

for steam

and heat.

Made into coke.

Total quantity.

Total value.

Averpnce

per ton.

Aver-number

of days active.

Average number

of employees.

ShaH tons.

Short tons.

Short tons.

Short tons.

Short tons.

It will be seen from this table that although the production in 1902 was 467,120 tons, or 17 per cent more than that of 1901, there was a decrease in the number of men employed in and about the mines, with, however, an increase of 14 in the average working days. Dividing the tonnage in each year by the number of employees, it is found that the total average production per man was 667 tons in 1901 and 814 tons in 1902. Dividing thase again by the average number of days worked in each year, we find that the average tonnage per man per day increased from 2.355 in 1901 to 2.78 in 1902.

The total production of coal in Virginia since 1880 has been as follows:

Coal production of Virginia 1880-190fS, [Short tons.]

Year.

Quantity.

Year.

Quantity.

112,000 112,000 112,000 252,000 336,000 667,000 684,961 826,263 1,078,000 866,786 784, OU 786,899

Jigitized by Vj

;Uvlc

Goal.

Washington.

Total production in 1902, 2,681,214 short tons, spot value $4,572,295.

Washington is the only one of the Pacific coast States producing true coal, all the product from California and Oregon being lignite. Some of the Washington coals approach anthracite in character, and some natural coke has been produced. Some coke is also made from the bituminous coals mined in the State. Production in the State has increased regularly since 1894, and the output in 1902, as in 1901, was more than double that of any year prior to 1897. Compared with 1901 the production in 1902 increased 102,997 short tons, or 4.0 per cent in quantity, and $301,219, or 7.1 per cent in value.

No production by the use of machines was reported in 1902, although the returns for the preceding year showed 4 machines in use and a machine-mined product of 6,500 tons.

The details of production during the last 2 years are shown in the following tables:

OocU productUm of Washington in 1901 j by counties.

County.

Loaded at mines for shipment.

Sold to

local

trade

and

used by

employees.

Used at mines

for

steam

and

heat

Made into coke.

Total quantity.

Total value.

Averprice ton.

Average number of days active.

Average number of employees.

King

ShoH Uma.

Short tons.

tOM.

Short tons.

Short torts.

Kittitas

Pierce.

Cowlitz, Lewis, Skagit, and Whatcom..

Total

Coal production of Washington in by counties.

County.

Tioaded at mines for shipment.

Sold to

local trade and

used by employees.

Used at mines

for

steam

and

heat.

Made into coke.

Total quantity.

Total value.

Averprice ton.

Average number of days acUve.

Average number of employees.

King

Short tons.

Short ions.

Short tons.

Short tons.

ShoH tons.

Kittitas

Pierce

Other counties .

Total

aLewis, Skagit, and Whatcom.

MimSBAL BESOUBCES.

The following table, in which the distribution of the product for the last fourteen years is exhibited, shows also that with the larger production in 1902 there were less men employed and a decrease of one in the average number of days worked; it is found also that the total average production per man in 1902 was 609 tons against 567 tons in 1901, and that the average tonnage per day increased from 2.05 in 1901 to 2.22 in 1902:

Distribution of the coal prockict of Washington, 1889-1909.

Year.

Loaded atmineB for shipment.

Sold to

local trade and

need by employees.

Used at mines

for steam and heat.

Made into coke.

Total quantity.

Total value.

Averpnoe

age number of days active.

Average number of employees.

Short tons,

Short ions,

Short

tOM.

Short

tOM.

89,000 16,800 16,300 12,676 U,874 8,668 22,978 88,686 89,146 48,668 50,196 69,288 88,710 66,747

Short tons.

The following table shows the production, by counties, during the last five years and the increases or decreases in 1902 as compared with 1901:

Production of coal in Washington, 1898-190S, by counties, [Short tons.]

County.

Increase

Decrease

Cowlitz

King

62D

Kittitas

Lewis

Pierce

Whatcom

Total

al02,997

Goal. 437

The total production for the State since 1885 has been as follows: Production of coal in WashingUmf 1886-1909,

Year.

Quantity.

Year.

Qoantlty.

Short UmB.

Short tona, 1,106,470 1,191,410 1,195,504 1,434,112

West Virginia.

Total production in 1902, 24,570,826 short tons; spot value, $24,748,658.

Compared with the output for 1901, West Virginia's production of coal in 1902 exhibits an increase of 502,424 short tons, or 2.1 per cent. Considering the conditions which obtained in the coal-mining industr} particularly among the Eastern States, throughout the greater part of 1902, this increase is insignificant in amount. The comparatively small gain in a year during which the demand for bituminous coal was unprecedented in the history of the country was due to labor troubles in thre of the large coal-producing districts — the New River, the Kanawha, and the Pocahontas. In the first two of these regions the interference with operations resulted in an actual decrease in production of nearly one and a half million tons. Fayette County, which contributes the greater portion of the output in the New River district, shows a decrease in production for 1902 of 1,277,277 short tons, or more than 20 per cent, as compared with 1901. ILanawha and Putnam counties, in the Kanawha district, lost, respectively, 135,286 tons and 58,530 tons. In Fayette County 7,627 men were on strike for an average of 92 days, in Kanawha County 4,074 men were idle an average of 100 days, and in Putnam county 273 men were out tor an average of 75 days. In the Pocahontas district McDowell County had 3,321 men idle for an average of 33 days and Mercer County reported 662 men idle an average of 48 days. The total loss in working time in these two counties was 185,764 days, but in neither county was it sufficient to cause a falling off in the output. The total time lost in the New River and Kanawha districts amounted to 1,158,076 working days.

The cause of the trouble from which these results ensued was the refusal of the operators to meet in joint conference the officials of the

Ic

United Mine Workers of America, or, in otiier words, " to recognize the union." At a convention lield in Huntington on May 24 a strike was ordered, to begin on June 7 and to continue until certain demands made at a previous convention (March 18) were granted. Obedience to the strike order was not generally given throughout the State. In the northern districts little attention was paid to it, and the few mines at which strikes occurred were not seriously affected. In the Pocahontas field about 60 per cent of the employees quit work, but the strikers lacked enthusiasm and the strike gradually disintegrated, the average time lost by those who quit working averaging, as previously stated, 33 days. The strike in this region was officially "declared off" on September 4. The chief struggle was carried on among the operations along the New and Kanawha rivers. The efforts of the operators to work their mines were desperately resisted by the striking miners, and the military arm of the State government was called upon to suppress the rioting which unfortunately but naturally occurred. Work was, however, gradually resumed after a month or six weeks of comparative idleness, and by the latter part of September the mines were for the most part in full operation. The strike was not declared off until July, 1903. Several months previous to this date the Kanawha River operators had acceded to the demand for recognition" and had signed the union scale. The New River operators held out, and a new strike order for that region was issued, although the old strike had not been declared off. The new strike in the New River district was as unsuccessful as the first one so far as securing recognition was concerned and less so in the suspension of work. Most of the men in the district were at work when the strike was called off.

The total number of men who were on strike in West Virginia during 1902 was 18,129, a little more than half the total number of mine employees in the State. The average number of working days lost on account of strikes ranged from 10 in Marshall CJounty to 141 in Nicholas, and the average number of days lost by the 18,129 men was 75. The total loss in working days amounted to 1,362,054, equivalent to 18.7 per cent of the total time made by all the coal workers in the State. The average tonnage per day per man employed during the year was about 3i tons, indicating a loss in possible production by reason of the strikes of about 4,750,000 tons. It is reasonable to infer, then, that, except for the suspension of work due to the labor troubles, the production of West Virginia would have amounted in 1902 to approximately 29,250,000 tons.

The use of machines for undercutting coal in West Virginia has increased steadily during the last 6 years, and may be expected to continue to increase, as the coal seams in the State are for the most part well adapted to machine mining. The returns for 1902 show that

Ic

Goal.

there were 579 machines in use last year as against 403 in 1901, an, increase of 176, or more than 40 per cent. The machine-mined product increased from 4,817,943 tons to 6,738,045 tons, a gain of 920,102 tons, or 19 per cent.

During the 23 years that the history of coal production has been recorded in the volumes of Mineral Resources of the United States the coal production of West Virginia has increased an average of over 1,000,000 tons each year. Notwithstanding its decreased production in 1895 West Virginia in that year exceeded the output of Ohio, which up to that time held third place as a coal producer.

The details of production in 1901 and 1902, by counties, with the distribution of the product for consumption, are shown in the following tables :

Coed production of Wed Virginia in 1901 by counties.

County.

Barbour

Brooke

Payette

Kanawha*

Marion

Marshall

Maflon

Mercer

Mineral

Mingo

Monongalia

Ohio

Preston

Putnam

Bandolph

Taylor

Tucker

Hancock and Raleigh , Small mincH

Loaded at mines for shipment.

Sold to local trade and

used by employotal

.

Short tana.

Short tons.

Used at mines

for

steam

and

heat.

Short

tOM.

Made into coke.

Short tons.

Total quantity.

ShoH tons.

Total value.

t228,635

Average price per ton.

Average number of davs active.

Average number of employ-

lOKERAL BES0UB0B8. Coal production of West Vbrgima in 1909 hy amniies.

Gounty.

Loaded at mines for shipment.

Sold to

local

trade

and

used by

employ-

Used atl mines

for steam and heat

Made into coke.

Total quantity.

Total value.

Averprice

Aver age number of

days active.

Average numemploy-

Barbour

Braxton

Brooke

Fftyette

Qilmer

Grant

Hancock

Harrison

Kanawha ...

Lewis

Marion

Manhall

Mason

Mercer

Minena

Mingo

Monongalia .

Ohio

Preston

Putnam

Baleigh

Randolph ...

Taylor

Tucker

Short

tOM.

Clay.Nicholas, Ritchie and Upshur

Short Umt.

Short Um$.

Short toru,

Short

tOM.

Total.

LOl

S.279

The distribution of the product for consumption since 1889 is shown in the following table. This statement also shows the total number of men employed in and about the mines and the averajife number of days worked by them. From this table it is seen that there were 4,565, or nearly 15 per cent, more men employed in 1902 than in 1901. Many of these were miners from the anthracite region seeking work in the bituminous fields of this State. The time lost by strike in the southern part of the State reduced the average time made from 219 days in 1901 to 205 days in 1902. The tonnage per man per day and per year deduced from these figures shows that in 1901 778 tons were mined for every man employed, and that in 1902 692 tons were produced per man. The tonnage per man per day fell off from 8.56 to 3.38.

Dutribution of (he coal product of We$t Virginia, 1889-190$

Year.

mines for shipment.

Sold to local trade and used by employees.

Used at

for steam and heat.

Made into coke.

Total quantity.

Total value.

Averprice

Average number of days acUve.

Average number of employees.

ShoH torn,

Short iona,

ShoH Uma,

Short

tOM.

Short totu.

In the following table is shown the. production in West Virginia, by counties, during the last 5 years, together with the increases and decreases in 1902, as compared with 1901:

Coal production of West Virginia, by. counties, 1898-190$, [Short tons.]

County.

Increase,

Barbour

Brooke

Payette

Grant .

Hancock

Harrison

Kanawha

Lewis

2,U4,862

MAThan

Mason

Mercer

Mineral

Mingo

Ohio

Raleigh

Randolph

Taylor

Tucker

Other counties and smal minef

all8.628

TWal

aThis apparent decrease is due to the distribution of the " small mine " ferent counties. 6 Net increase.

It will be seen from the foregoing table that out of 23 counties'the production increased in 16 and decreased in Y. The principal gains were made by McDowell County, 464,144 tons, Harrison, 304,034 tons; Mercer, 284,251 tons; Randolph, 238,584 tons, and Mingo, 229,288 tons. Harrison County, which was second in quantity of increased tonnage in 1902, stood first in this respect in 1901 and has made the record for increased production in the last 5 yeai's. This county's output in 1902 was more than 6 times what it was in 1898.

Fayette County sustained , the heaviest loss, with a reduced production of 1,277,277 short tons. Kanawha County decreased 135,286 tons. The cause of these decreases as also for the reduced tonnage from Putnam County was the labor troubles already referred to.

The principal coal-producing regions of West Virginia may be divided into four distinct districts. These may be distinguished by certain geographic or physiographic features. They do not include all of the coal-producing counties of the State, but do include the more important ones, and contributed nearly 90 per cent to the total output of the State. Two of these districts are in the northern part of the State, and two in the southern portion. The two in the northern portion of the State are designated, respectively, the Fairmont or Upper Monongahela district, and the Elk Garden or Upper Potomac. Those in the southern portion of the State are the Pocahontas or Flat Top district and the New and Eanawha River district. The Upper Monongahela district is penetrated by the Baltimore and Ohio Railroad, and sends its coal to market over that highway. The Upper Potomac region is also reached by the Baltimore and Ohio Railroad, and is penetrated by the West Virginia Central and Pittsburg Railroad. The Pocahontas or Flat Top region is tributary to the main branch of the Norfolk and Western Railroad. All of the product of this district goes either west or to tidewater over that line. The New and Eanawha River district is named from the two rivers which drain it, the coal being shipped partly by the Chesapeake and Ohio Railroad, which passes through it, and partly by barges on the Kanawha River. The most important district from the productive point of view is the New and Kanawha River, which embraces the counties of Fayette, Kanawha, Raleigh, and Putnam. The coal from these four counties is drawn from two different areas, most of the coal from Kanawha and Putnam counties being from a lower geologic horizon than that of Fayette and Raleigh counties, but the district is practically compact and continuous, is drained by the same waters and reached by the same railroad, so the two areas are considered as one district in this report The production of these four counties in 1902 was reduced by strikes, and the Pocahontas district assumed first place for the time. The output for the two years was — 1901, 8,427,574 tons; 1902, 7,089,805 tons.

The Pocahontas or Flat Top district embraces the counties of McDowell and Mercer in West Virginia and Tazewell County in Virginia. The openings to the mines in Tazewell County are in Vir-

Ooal.

ginia, and it has been customary to credit that county and State with the total production, although it is known that most of the coal is taken from the West Virginia side of the line. Because of this the production of Tazewell County has been included in the following table with the Pocahontas or Flat Top district. The production in this district in 1902 was nearly 700,000 tons more than that of 1901, the figures for the two years being, respectively, 6,736,107 tons and 7,431,687 tons.

The Fairmont region, which embraces Harrison and Marion counties, and includes the mines around Clarksburg and Fairmont, has shown the largest ratio of increase of all the coal-producing districts of West Virginia. The production of this district in 1902 was nearly 14 times that of 1886, 17 years before; nearly 5 times that of 1891, and more than 3 times that of 1896. As compared with 1901 it shows an increase of 289,631 tons. The total product in 1902 amounted to 5,463,791 short tons as compared with 5,174,160 tons in 1901.

The Upper Potomac or Elk Garden district is a part of an isolated basin which lies to the east of the main Appalachian field, and which includes the Cumberland region of Maryland, the Somerset district of Pennsylvania, and the Piedmont region of West Virginia. The counties in West Virginia included in this district are Mineral, Tucker, and Randolph. Most of the coal mined is drawn from what is known as ''Big Vein," which has furnished the greater portion of Maryland's product. The production in 1902 amounted to 2,081,218 short tons as compared with 1,856,677 short tons in 1901.

In the following table is exhibited the production of these 4 principal districts since 1886:

Coal production of the principcd diglricts of West Virginia 1886-190S. [Short tons.]

Year.

New and

Kanawha

River

district.

Pocahontas or Flat Top district, a

Fairmont or Upper Monongahela

district.

Upper Potomac or Elk Garden district.

Jigitized by

U&#x27;

a Including production of Tazewell County, Vliginla.

Mikebal Besouboes.

In order to show the great advance made by West Virginia as a coalproducing State, the following table has been prepared. The statement shows that there has only been one exception in twenty-three years to a steadily increasing output, and that during this period the average annual increase has exceeded 1,000,000 short tons.

Annual tncreoH in the ooal producUon oj West Virginia, [Short tons.]

Yew.

Quantity.

Year.

Quantity.

Total Increase In fourteen years. Decrease in 1896

Total increase in fifteen years.. 1896 over 1895

Total increase fn 23 years

Average annual Increase

The annual production of coal in West Virginia since 1873 has been as follows:

Coal production of West Virffinia, 1878-190,

Year.

Year.

Quantity.

14

Goal.

Wyoming.

The total production in 1902, 4,429,491 short tons; spot value, $5,236,339.

Wyoming is numbered among the seven States whose coal output in 1902 was less than that of 1901. It moreover had the distinction, shared only in slighter degree by Oregon, of having the value decrease in greater ratio than the production. Compared with 1901 the production of coal in Wyoming last year shows a decrease of 55,883 short tons, or 1.25 per cent, in quantity, and of $824,123, or 13.6 per cent, in value. The productive efiBciency of the men employed also showed a decrease. Wyoming stands next to Maryland (which ranks first) in the average tonnage produced per man in both 1901 and 1902, and there was only one other instance except Maryland in 1901 (West Virginia) and one in 1902 (Pennsylvania, bituminous) in which Wyoming did not produce more coal per man per day than any other State. The average output per nian for the year, however, decreased from 871 tons in 1901 to 843.7 tons in 1902, while the average per day fell oft from 3.51 tons to 3.4 tons. Fart of this decreased tonnage per man was doubtless due to the decrease in the use of mining machines in 1902, the machine-mined product having fallen from 804,826 tons in 1901 to 588,302 tons in 1902.

The details of production, by counties, during the last two years are shown in the following tables:

Coal production of Wyoming in 1901 y by counties.

County.

Loaded at mines

for shipment

Sold to local trade and used by employees.

Used at

mines for

steam

Made into coke.

Total quantity.

Total value.

Averpnce

Average number of days active.

Average

of employees.

Carbon

Converse

Crook

Short tons.

U,102

Short tons.

'581

Short ions.

Short tons.

Short Urns.

Sweetwater ... Uinta

Fremont

Johnson

Natrona

Sheridan

Weston

Total

MINEBAL BBSOUBOEB. CooU production of Wyoming in 1902 by counties.

County.

TiOaded at mines for shipment.

Sold to local trade and used by employees.

Used at the mines for steam and heat.

Made into coke.

ShoH tons.

Total quantity.

Total value.

Aver-

Average number of

acdve.

Average number of employees.

Carbon

Converse

Sweetwater ... Uinta

Short

tOM.

Short tons.

ShoH tons.

Short

ZISl,7ffJ

Ul

1 Sw

Other counties

Total

a Bighorn, Crook, Fremont, Johnson, Natrona, Sheridan, and Weston.

The distribution of the product for consumption since 1889 and the annual output of the State since 1868 are shown in the following tables:

Distribution of the coed product of Wyoming, 18S9-190ii,

Year.

Loaded at

mines for shipment

Sold to local trade and used by employees.

Used at minesfor

steam and heat

Made into coke.

Total quantity.

Total value.

Averpnce

per ton.

Average number of days active.

Average

num-.

berof employees.

Short tans.

Short tons.

ShoH tons.

ShoH tons.

ShoH ions.

$l,74g,617 3,188,669 3,555,275 8,168,776 8,290,904 8,170,892 2,977,901 2,904,185 8,186,694 8,664,190 4,742,526 6,467,958 6,060,462 5,286,389

Coal.

Total production of coal m Wyoming, 1868-1909, [Short tons.]

Year.

Quantity.

Year.

Quantity.

1,170,318 1,481,640 1,388,947 1,870,866 2,827,841 2,608,839 2,439,311 2,417,468 2,246,9U 2,229,624 2,697,886 2,863,812 8,837,892 4,014,602 4,486,374 4,429,491

Coke.

By Edwabd W, Parker.

Introduction.

In the present chapter, as in the preceding ones of the series, the use of the word "coke" is limited to the product obtained by the distillation or partial combustion of bituminous coal in ovens, either with or without the recovery of the by-products of gas, tar, and ammonia. What is known as "gas-house coke," which is a by-product in the manufacture of illuminating gas, is not considered in this report. Until 1893 practically all of the coke made in the United States was the product of what is commonly known as the beehive oven, the name being derived from the design of the combustion chamber, which is similar in shape to that of the conventional beehive. A few experimental plants of Coppe, Thomas, Welsh, and other designers have been tried, but have not given so satisfactory results as the ordinary beehive type of oven.

During the last decade, however, there has been a steady and noteworthy development of coke manufacture in retort or by-product ovens, which, if continued, will cause the gradual shifting of the cokemaking industry from the vicinity of the coal mines to the manufacturing centers, where markets for by-products are available. Although in some instances the coke product from these retort ovens is a secondary and not the primary product, the manufacture of such coke is considered as properly coming within the scope of this investigation. The location of the plant determines to some extent whether the coke is to be the primary product, but whether primary or secondary, it is suitable for metallurgical purposes and comes into direct competition with beehive coke. Moreover, a large amount of beehive coke is now prepared for household consumption, and it is impossible to confine this report to the production of blast furnace or foundry coke.

The production of by-product coke is considered in the subsequent pages of this chapter; but the statistics relating to the production of gas, tar, and ammonia in retort ovens are included in another chapter, a special report on these subjects having been prepared for the present volume of Mineral Resources.

M R 1902 29

The coal consumed in the manufacture of coke in the United States is drawn from six of the seven bituminous coal fields, namely: (1) The Appalachian field, embracing the reat coking-coal regions of Pennsylvania, Virginia, West Virginia, Ohio, Georgia, Alabama, Tennessee, and eastern Kentucky; (2) the Eastern Interior field, which includes the coal areas of Illinois, Indiana, and western Kentucky; (3) the Western Interior field, embracing the States of Iowa, Kansas, Missouri, and Nebraska; (4) the Southwestern field, including Arkansas, Indian Territory, and Texas; (6) the Rocky Mountain field, including Colorado, New Mexico, Utah, Montana, South Dakota, and Wyoming; (6) the Pacific Coaijt field, in which the only coking coals are found in the State of Washington. The coal of the Northern Interior field, lying wholly within Michigan, has not so far been used for coke.

A considerable amount of coke is made in States in which there are no coal fields, namely, Massachusetts, New York, New Jersey, and Wisconsin. The ovens in Michigan and those under construction in Maryland (near Baltimore) are or will be fed with coal from other States. With the exception of the few beehive ovens in Wisconsin, all of the plants outside of the coking-coal fields are retort ovens.

The writer again desires to make special acknowledgment of the assistance rendered by Miss Belle Hill, of Pittsburg, in the preparation of the tables presented with this report. The accuracy and completeness of these tabulated statements as prepared by Miss Hill deserve particular recognition.

The unit of measurement used in this chapter is uniformly the short ton of 2,000 pounds.

Production.

Coke production in the United States in 1902 exceeded that of any year in our history. The product, which includes the output from retort or by-product ovens, amounted, in 1902, to 25,401,730 short tons, as compared with 21,795,883 short tons in 1901, and with 20,533,348 short tons in 1900. The increase in 1902 over 1901 amounted to 3,605,847 short tons, or 16.5 per cent. Large as this increase was, it was considerably less than it would have been had the transportation facilities been commensurate with the demand for coke and with the productive capacity of the ovens. During the greater part of the year operators were kept at a disadvantage by the inability of the railroads to supply cars and motive power to handle the output. This condition was particularly evident in the Connellsville region of Pennsylvania, where at times it was necessary to put a number of ovens out of blast on account of the accumulated stocks which overtaxed the storage capacity at the ovens.

The unprecedented production of coke in 1902 was accompanied by an increase in value which was even more worthy of note.

Coke. 451

price per ton at the oveDS was the highest recorded in a period of twentythree years, and the total value reached the high figure of $68,339,167, an increase over the preceding year of $18,893,244, or 42.5 per cent. The value of the coal used in the manufacture of coke in 1902 exceeded that of 1901 by $7,922,563, from which it appears that the value of the coke product increased $10,970,681 over and above the increased value of the coal used in its production. Prices for coke during the strike in the anthracite coal fields reached an abnormally high stage, as much as $15 per ton being reported as paid for this fuel at one time. In 1901 the highest price obtained for Connellsville furnace coke was $4.25, which was paid during March and April of that year. In September and October of 1902, while contract 'coke was nominally quoted at $3 per ton, consumers were paying from $10 to $12 per ton for prompt delivery. With the termination of the anthracite strike in the latter part of October prices for coke quickly declined; but they did not reach the comparatively low level that prevailed in the early part of the year. In December furnace coke for prompt delivery was conmianding $5 and $6 per ton, and contracts for delivery in the first six months of 1903 were made at from $3.75 to $4 per ton. These prices showed a decided advance over December, 1901, and January, 1902, when contracts for Connellsville furnace coke were made at $2.25 per ton, coke for prompt delivery bringing $3.50 and $3.75 per ton.

In considering the total value and average price for the entire coke product of the United States as presented in this report, it must be remembered that in many cases the values are arbitrarily fixed. A number of the larger manufacturers operate blast furnaces in connection with their coal-mining and coke-making business. In such cases the coke product is sometimes charged against the furnace departments at cost, and sometimes at a figure, based upon the cost of coal mining and coke making, plus a percentage of profit on these operations. The value is not fixed by the market value. In other cases the value is estimated upon the average prices for coke of a similar quality produced and sold in the immediate vicinity. The H. C. Frick Coke Company, of Pittsburg, the largest single producer of coke in the United States, is now no longer in the market as a seller of coke, its entire product being taken by the United States Steel Corporation, of which the Frick company is a component part.

During 1902 there were 69,069 coke ovens in existence in the United States, as compared with 63,951 ovens in 1901. Of these 69,069 ovens, 1,945 were idle throughout the entire year, leavingatotal of 67,124 active ovens, which produced an average of 878.4 tons per oven. The total number in 1902 included 1,663 by-product recovery ovens, which produced 1,403,588 tons of coke, an average of 844 tons of coke per oven. There were under construction at the close of 1902, 8,758 new ovens.

Ivc

Mineral Besouboes.

of which 1,346 were of the retort or by-product type. The number of completed retort ovens increased from 1,165 in 1901 to 1,663 in 1902, and the output of retoi't-oven coke increased during the same period from 1,179,900 tons to 1,403,588 tons.

Counting each bank of ovens as a separate establishment, the returns for 1902 show a total of 456 establishments, as compared with 423 in 1901. Thirty-five establishments, all comparatively unimportant, were idle throughout the year. There were also 29 new establishments whose ovens were not completed at the close of 1902.

The details of the production of coke in 1901 and 1902 are presented, by States and Territories, in the following tables:

Manufacture of coke in the United States, by States and Territories, in 1901,

state or Territory.

Establishments.

Ovens.

Built.

Building.

Coal used.

Yield of coal In coke.

Coke produced.

Total value of coke.

Value of coke per ton.

Alabama

Coloradoa

Georgia

Indian Territory

Kansas

Kentucky

Maryland

Missouri

Montana

New Jersey

New Mexico

Ohio

Pennsylvania . . .

Tennessee

Utahb

Virginia

Washington

West Virginia...

Illinois

Indiana

Mafsachusetts...

Michigan

New York

Wisconsin

Wyoming

Total

Short tons.

Short tons,

c 63, 951

d5,205

a Includes the production of Utah.

ft Included with Colorado.

Includes 375 Semet-Solvay, 730 Otto-Hoffman, and 60 Newton-Chambers ovens.

Includes 210 Semet-Solvay, 896 0tto-Ho£Fman, and 427 Schnlewlnd ovens.

Ooke.

MamifcuiuTe of coke in the United States, by States and Territories, in 1909,

State or Territory.

Establishments.

Ovens.

Built

Building.

Coal used.

Yield of coal invoke.

Coke produced.

Total value ofookfe.

Value of coke per ton.

Alabama

Goloradoo

Georgia

Indian Territory

ICftnwiff

Kentucky

Maryland

Missouri

Montana

New Jersey

New Mexico

Ohio

Pennsylvania...

Tenneflsee

Utah*

Virginia

Washington

West Virginia...

niinois

Indiana

Massachusetts ..

Michigan

New York

Wisconsin

Wyoming

Total

20O

Short Umt, 4,287,491 1,695,188 129,642 110,984 85,827 286,121

JPcr d,

Short tons. 2,652,246 1,008,898 82,064 49,441 20,902 126,879

rf8,758

a Includes the production of Utah.

fr Included with Colorado.

0 Includes 626 Semet-Solvay, 1,067 Otto-Hoflman, 60 Newton-Chambers, and 15 Schniewlnd ovens.

Includes 210 Semet-Solvay, 664 Otto-Hofbnan, 412 Schniewlnd ovens, and 60 retort coke ovens.

There were only two coke-producing States and one Territory in which the production in 1902 did not exceed that of the preceding year. Two of these, Montana and New Mexico, were in the Rocky Mountain region, and one, Washington, was on the Pacific Coast. All of the Eastern States and of the Middle Western States increased their production. The largest amount of increase was naturally in Pennsylvania, where the output increased from 14,355,917 short tons in 1901 to 16,497,910 tons in 1902, a gain of 2,141,993 tons, or 14.9 per cent. Alabama's production increased 403,335 tons, or 18.8 per cent, from 2,148,911 tons in 1901 to 2,552,246 tons in 1902. The greatest proportionate increase in production among the larger coalproducing States was in Colorado, where the product advanced from 671,303 tons to 1,003,393 tons, an increase of 332,090 tons, or almost 60 per cent. The production in West Virginia, which in 1901 was less than in the preceding year, increased in 1902 to 2,516,505 tons. Virginia and Tennessee also showed substantial gains. t

Mineral Besouboes.

The increases and decreases in the several States during 1902, as compared with 1901, are shown in the following table:

Increases and decreases in coke production, by StateSy in 190, as compared with 1901.

State or Territory.

Production.

Increase.

Quantity. Percent.

Decrease.

Quantity. Percent

Alabama

Coloiadoa

Georgia

Indian Territory .

Kentucky

Miaouri

Montana

New Mexico

Ohio

Pennsylvania

Tennessee

Virginia

Washington

West Virginia Illinois

Massachusetts ...

Michigan

New York

Wisconsin

Wyoming

Short Urns.

Short tons.

Short tons, 403, 836 832,090 27,614 12,067 18,764 26,694 1,031

Short Urns.

Total.

a Includes Utah.

The earliest record of coke production in the United States was that made during the census year of 1880. In that year the total production of coke amounted to 3,338,300 short tons. From 1856, when the use of anthracite coal for iron making surpassed charcoal, to 1875, most of the pig iron manufactured in the United States had been made with the use of anthracite coal. Since 1875 the increase in production and use of coke has rapidly supplanted the use of anthracite coal for iron making, and now little of our large iron tonnage is produced in anthracite furnaces. A comprehensive idea of the growth of the coking industry in the United States is obtained by dividing the history of the last twenty years into five-year periods. The average production for the three years, 1880 to 1882, was about 4,000,000 tons a year. In the five years from 1883 to 1887, inclusive, the average production amounted to 5,980,459 short tons. The average for the next five years, from 1888 to 1892, was nearly double that of the preceding five years, amounting to 10,533,918 tons. This period was followed by the panic years of 1893, 1894, and 1895, and the coke production showed only a small increase in the next five years, averaging during that time 111418,536 tons per year. The return of prosperous condi-

Ookb.

tions which began in 1896 has shown no decided setback since that . time and the production of coke during the five years from 1898 to 1902, inclusive, obtained an average of 20,689,347 tons, and exceeded for the first time a total of 25,000,000 tons in 190.

In the following table are consolidated the statistics of the manufacture of coke in the United States from 1880 to 1902, inclusive:

SuaMc8 of the manufaduTe of coke in the United States 1880-190g,

Year.

Estab-ments

.

Oyens.

Goal lined.

Cokeprodaced.

Total yalae

of coke at

ovens.

Value of coke at ovena, per ton.

Yield of coal in coke.

a 14, 348, 760

Short torn.

U, 163, 866

a 12, 328, 856

b 19, 234, 319

Perct.

a Excluding New York.

b Excluding New York and Texaa.

Number Op Coke Works In United States.

The total number of establishments manufacturing coke in the United States for each year since 1880 is shown in the following table, together with those reported for the census years ending June 30, 1850, 1860, 1870, and 1880. For the details in regard to the number of establishments in each State the reader is referred to the discussion of the production of coke by States in the subsequent part of this report.

Number of coke ettMiBkmenU in the United States since 1860,

Year.

Number.

Year.

Number.

IfiWi Pfiember 81 , .,

IfflW, Deoembor 81

The 456 establishments which were in existence on December 81, 1902, included 29, with a total of 4,878 ovens, which were not entirely completed before the close of the year and did not contribute to the production in 1902. There were also 35 establishments, having a total of 1,639 ovens, whose ovens were not operated at all during the entire year. These idle plants were all comparatively small, averaging only 44 ovens to the establishment.

In this report the word establishment" is used to designate the number of banks of ovens which were in existence, whether operated or idle, and whether they reported from one central office or separately. Prior to 1896 it was customary to include under one establishment all the coke works reported from one general office, hence there is an apparently large increase in the number of establishments in 1896 as compared with the preceding years.

Excluding the number of establishments which did not produce coke in 1902 — that is to say, 35 old ones that were idle and 29 new ones which had not begun operations — the total number of active plants last year was 392, a little over double the number which produced coke in the United States in 1880. In that year there were 186 cokemaking establishments in the United States which produced a total of 3,338,300 tons, an average of 17,948 tons to each establishment. In 1902, considering each bank of ovens as a separate establishment, the average productive capacity for each plant was 64,800 tons, or 3.6 times the average producing capacity in 1880.

The following tables show the number of coke ovens in existence in each State and Territory for the five years from 1898 to 1902, and the total number of ovens in existence in each year since 1880. The increase in the number of ovens in the three years from 1899 to 1902 was equal to the increase in twelve years from 1888 to 1899. The

&gt;U Vic

Coke.

69,069 ovens completed at the end of 1902 include 1,663 by-product recovery ovens:

Number of coke ovens in each Stale at the close of each year, 1898-190$.

state or Territory.

Alabama

Colorado

Qeoigia

Indiana

Indian Territory .

Kentncky

Michigan

Miawori

Montana

New Jersey

New Mexico. . .

New York

Ohio

Texas

Utoh

Viisinia

Washington . . . West Virginia .

Wisconsin

Wyoming

So

Total.

Number of coke ovens in the United States on December SI of each year, 1880-19018,

Year.

Ovens.

Year.

Ovens.

Year.

Ovens.

In connection with the increase in the number of establishments in the United States, comment was made upon the increased productive capacity of each plant. This feature is also strikingly illustrated in the increased capacity of the mdividual ovens. In 1880, 12,872 ovens produced a total output of 3,338,300 short tons of coke, or an average of 270 short tons per oven. Excluding the old-established plants which were idle throughout 1902 and the new ovens which had been completed but had not been put in blast at the beginning of 1903,

Diftized by UUV ic'

KUfSBAL BBSOUBOBS.

there were in active operation last year a total of 67,124 ovens which produced a total of 25,401,730 short tons of coke, an average of 378.4 tons per oven. In 1901 the total number of active ovens was 61,396, which produced a total of 21,795,883 short tons of coke, an average of 355 tons per oven, showing that the average productive capacity of each oven in 1902 exceeded that of the preceding year by 23.4 tons. The 1,663 by-product ovens in operation in 1902 produced an average of 844 tons of coke per oven, as. against an average of 1,013 tons produced by the 1,165 by-product ovens in operation in 1901. The decrease in the average production of these by-jjroduct ovens in 1902 was due to the fact that nearly 500 of these ovens were not completed and put in blast until after the beginning, some of them not until nearly the close, of the year.

The following table shows the number of ovens in course of construction at the end of each year since 1880. This table is not intended to represent the increase in the number of new ovens from year to year, nor does it include the new ovens completed during any one year. It is intended merely to show the condition of the industry in each calendar year as represented by plants under construction. It will be seen that in 1902 there were 8,758 ovens building, a number 50 per cent larger than that shown at the end of 1900, when more ovens were under construction at the close of the year than in any other year previous to 1902. Of the 8,758 ovens in the course of construction at the close of 1902, 1,346 were of the by-product type.

Number of coke ovens building in the United States at the close of each year, 1880-190X.

Year.

Year.

Ovens.

Year.

4Sfl

Production In Previous Years.

In the following tables are shown the statistics of the production of coke in each State and Territory for each year from 1897 to 1902, inclusive, and the total annual production since 1880. During the twenty-three years covered by these reports there were only five years in which the production was less than that of the preceding year. The first instance was in 1884, when the output was about 600,000 tons less than in 1883. The most notable decreases were caused by the industrial depression of 1893 and 1894, when the output fell off from over 12,000,000 tons in 1892 to 9,477,580 tons in 1893, and to 9,203,932

Ooke.

tons in 1894. The temporary ''boom" in the iron trade in 1895 reacted upon the coke industry, and the production increased to over 13,000,000 tons in 1895. This was followed by another period of depression in 1896, since which time the coke industry has kept pace with the prosperous conditions in other lines of trade, and the production has increased without interruption, reaching its maximum total in 1902.

Amount of coke produced in the United States, 1897-190, by States and Territories,

State or Territory.

Alabama

Georgia

Indian Territory.

Kansas

Kentncky

Missouri

Montana

New Mexico ,

Ohio

Pennsylvania

Tennessee

Texas

Utah

Virginia

Washington

West Virginia

Illinois ,

Indiana

Massachnsetts

Michigan

Wisconsin

Wyoming

Total .

bS,

Mo, 715, 302

M8, 577, 870

a Colorado includes Utah.

ft Includes production ot New York and of Massachusetts also in 1899.

o Included with Pennsylvania.

The annual production since 1880 has been as follows: Amount of coke produced in the United States, ISSO-ISOS.

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

Short tons. 8,888,300 4,113,760 4,793,821 5,464,721 4,878,806 5,106,696 6,846,869 7,611,706

Short tons. 11,788.773 18,288,964

Jigitized by VJ

MUnSBAL BESOUBOSS.

Value Of Coke Produced.

The value of the coke product in 1902 increased in even more decided ratio than that of the output itself. As previously stated, the shortage of fuel, caused by the protracted strike in the anthracite coal fields of Pennsylvania, was reflected in an increased demand for coke which greatly stimulated prices and caused an enhancement in value greatly exceeding any previous record in our history. The total value of the coke product of the United States in 1902 was $63,339,167, an increase of $18,893,244 over 1901, or 42.5 per cent, and of nearly $16,000,000 over the value of the product in 1900, which was the highest previously recorded. During the late summer months of 1902 the C!onnellsville furnace coke for prompt delivery brought as high as $12 a ton, a figure unprecedented in the history of our coking industry. The average price for the year, however, while showing a decided increase over any previous year, does not accurately reflect these abnormally high prices, as by far the greater portion of the product was sold on contracts made in 1901; still an increase of 42.5 per cent in value, as compared with the increase of 16.6 per cent in production, is worthy of note.

The following tables show the value of the coke produced in each State and Territory during the last six years, and the value of the total product for each year since 1880:

Total value at the ovens, of the coke made in the United States, 1897-1909, by States and

Territories,

State or Territory.

Alabama

Colorado

Qeoisia

Indian Territory .

Kansas

Kentucky

Misaoari

Montana

New Mexico

Ohio

Pennsylvania

Tennessee

Utah

Virginia

Washington

West Virginia

Illinois

Indiana

Massachusetts . . .

Michigan

New York

Wisconsin

Wyoming

bl8,

Total 22,102,614 25,586,699

al,230,428

a 1, 388, 769

a 1,746, 732

al,626,279

Co 2,822,228 199,196 6,883,226

a Includes value of Utah coke. e Includes Massachusetts and New York.

b Includes value of New York coke. rf Included with Goloiadly.

Included with Pennsylvania.

Ooke. 461

Total value, at the ovens, of the coke made in the United States, 1SS0-190£.

Year.

Value.

Year.

Value.

Year.

Value.

From the preceding statements, showing the amount and value of the coke produced in a series of years, the following tables have been prepared. These show the average price per ton obtained for the coke product in each State and Territory for the last six years, and the average price of the total product since 1880. These average prices are obtained by dividing the total value by the total amount of coke produced or sold. Although the figures may be accepted as indicating the general tendency of prices, they do not always represent the actual selling value of the coke, as has already been shown. Some of the largest producers of coke consume their entire product in their own blast furnaces. In some such cases the value of the coke is given at the actual cost of production; in others it is based upon the cost of production, adding a percentage of profit on the coking operations; and in still other cases the values are based upon the marketed product of a similar quantity of coke in the immediate vicinity. These conditions, however, continue without material change from year to year, so that the prices as given may be generally accepted as indicating the general condition of the market.

The highest average price in the period of twenty -three years was that of 1902, when the average for all qualities and in all States reached as high as $2.49, an increase of 45 cents, or 22.1 per cent over 1901. As previously explained, the high average prices obtained in 1902 were due to the anthracite coal strike and the shortage of fuel produced thereby.

lONBRAL BESOUBOS8.

Average value per short ton ai the ovens of the coke made in the United States, 1897-1902,

by States and Territories.

state or Territory.

.Alabama

Colorado

Geoxgia

Indian Territory.

Kansas

Kentucky

Montana

New Mexico

Ohio

Pennsylvania

Tennessee

Utah

Washington

nilnois

Indiana

Maaeachusetfii ...

Michigan

Wisconsin

Wyoming

t2.14 a 2. 916 M.6S

a2.69 ftl.50

a2.51

a2.82

a2.42

Average.

a2,74

a Includes Utah.

b Average value, Including New York, and Massachusetts also In 1899.

c Included with

d Included with Pennsylvania.

Average value per short ton at the ovens of the coke made in the United States, 1880-1909,

Year.

Value.

Year.

Value.

Year.

Value.

Rank Of Coke-Producing States.

In the following table is shown the relative rank of the States and Territories in the production of coke from 1880 to 1902. Pennsylvania has headed the list during this entire period, Tvhile Alabama and West Virginia have for the greater portion of the time contended with each other for second place. In 1902 Alabama replaced West Virginia

Ookk.

as second in rank, West Virnia having held this position for the six pTreceding years. The changes in the rank of the other States were unimportant.

Bank of the SUUe$ cmd Territories in production of coke, 1880-190£.

state or Territory.

Pennsylvania

Colorado

Tennessee

Virginia

Ohio

Montana

Qeorgla

Kentucky

Wanhinsrton ,,

New Mexico

Tndian Territorv

U

Wisconsin

Kansfti? . --,r

Is U

Illinois

Missouri

Texas

State or Territory.

Pennsylvania

S

Is

Alabama

West Vindnia

Virginia

Colorado

Tennessee

Massachusetts

Ohio

Kentucky.

Utah

Montana , . r . . .r

Michigan

M

India?* TewitoTy ... .r

U

New York

Washinfrton

New Mexico

Kanms

Wyoming

Mlflioiir ...,,

Illinois

Coal Consumed In The Manufacture Op Coke.

The determination of the quantity of coal consumed in the manufacture of coke is to a considerable extent a matter of estimate, as a large quantity of the coal so used is charged directly into the ovens from the mines without having been previously weighed or measured. The only method of ascertaining the quantity of coal thus used is by the amoimt paid to the miners for mining, which is based sometimes upon the measured bushel or ton, and sometimes by the cubical contents of the mine car, all of which standards are apt to differ materially from that of the weighed ton or bushel. There are comparatively few establishments in this country at which the quantity of coal made into coke is accurately ascertained, though as the industry becomes better organized greater attention is being paid to exactness in this regard, and year by year the amounts as presented in the following tables become more accurate. It is still necessary, however, to estimate a large amount of the coal consumed in the manufacture of coke.

A considerable quantity of the coal which is not run directly from the mines to the coke ovens is crushed and washed before coking. In such cases the weight of this coal before washing is given approximately. In other cases the weight after the slate, pyrite, and other impurities have been removed, is reported for the weight of the coal charged into the ovens. In still other instances coke ovens have hen constructed chiefly for the purpose of utilizing the slack coal produced, in which cases little or no account is taken of the weight of the coal. It can readily be seen therefore that any statement as to the quantity of coal used in the manufacture of coke is necessarily approximate, but, as these differences appear from year to year, the statistics as collected may be accepted as sufficiently accurate for comparative analysis. As has been stated in previous reports of this series, an apparent discrepancy appears between the statements regarding the quantities of coal consumed in the manufacture of coke as published in the chapter on coal production and those presented herewith. These discrepancies are in general due to the fact that a large quantity of coal is shipped to ovens at a distance from the mine. Where this is the case the tonnage so shipped would be included in the shipments, the coal statistics showing only the quantity of coal made into coke at the ovens.

The quantity of coal used in the manufacture of coke, as obtained for this report, in the several States and Territories, from 1897 to 1902, and the total quantity used each year since 1880, are shown in the following tables:

Coke.

QuarUity of coal used in the manufacture of coke in the United States, 1897-1902, by States

and Territories.

State or Territory.

Alabama

Colorado

Geoisla

Indian Territory.

Kansas

Kentucky

Missouri

Montana

New Mexico

Ohio

Pennsylvania

Tennessee

Texas

Utah

Virginia

Washington

West Virginia

Illinois

Indiana

Massachusetts . . .

Michigan

New York

Wisconsin

Wyoming

Total.

a 616, 592

a 803, 686

a 898, 207

<il9,930,419

a 997, 861

a 1,148, 901

a Includes coal coked in Utah. Mncluded with Pennsylvania.

c Includes New York. d Includes Massachusetts and New York. Included with Colorado.

Quantity of coal used annually in the manufadure of coke in the United States, 1880-190g,

by Slates and Territories.

Year.

Quantity.

Year.

Quantity.

Year.

Quantity.

Short tons. 5,287,741 6,546,762 7,&77,646 8,516,670 7,951,974 8,071,126 10,6b8,972 11,859,752

Short tons. 12,945,850 15,960,973 18,005,209 16.344,540 18,813,337 14.917,146 14,348.760 20,848,828

Quantity And Value Of Coal Used In Coke Making.

The quantity and value of the coal used in the manufacture of coke

in 1901 and 1902, together with the quantity and value of coal con-

Mineral Resources.

sumed per ton of coke produced, are shown, by States and Territories, in the following tables. The quantity of coal used in 1902 was 39,604,007 short tons, as compared with 34,207,965 tons in 1901, an increase of 6,396,042 tons. The value of the coal consumed increased from $31,378,631 to $39,301,194, showing that of the $18,893,244 increase in the value of coke in 1902 over 1901, $7,922,663 was represented by the increased cost of coal. In 1901 the value of the coal used in making a ton of coke was $1.44; the average price per ton for the coke produced was $2.04, a difference of 60 cents on each ton. In 1902 the value of the coal used in making a ton of coke was $1.54; the average price per ton of coke was $2.49, a difference of 96 cents between the value of the coal used and the coke produced:

Quantity and value of coal used in the manufacture of coke in the United StaJtee in 1901, and quantity and value of same per ton of coke.

State or Territory.

Alabama

Colorado a

Geoiia

Indian Territory

Kanaas

Kentficky

Miasv Jri

Montana

New Mexico

Ohio

Pennsylvania

Tennessee

Washington

West Virginia...

Illinois

Massachusetts . . .

Michigan

New York

Wisconsin

Wyoming

Total

Coal used.

Total value of coal.

Short tons.

Value of

coal per

ton.

Quantity

of coal

per ton of

coke.

f 1.183

' 1.85

Short tons.

Value of coal to

a ton of coke.

a Includes Utah.

Ooke.

QuanHty and value of coal used in the manufacture of coke in ike United States in 1909, and quantity and value of same per ton of coke.

state or Territory.

Goal used.

Total value of coal.

Value of

coal per

ton.

Quantity

of coal

per ton of

coke.

Value of

coal to

a ton of

coke.

Short iont.

Alabama

Goloradoa

Georgia

Indian Territory

Kentucky

Miaaouri

Montana

New Mexico

Ohio

Pennsylvania ...

Tenneasee

Viiginia

Washington

West Virginia ...

niinols

Indiana

New York

Wisconsin

Wyoming

Total

Short toru,

1.S26

fl.99

a Includes Utah.

The following table shows approximately the quantity of coal required to produce a ton of coke in each year since 1880:

Coal required to produce a ton of coke, in tons or pounds.

Year.

Tons.

Pounds.

Yield Op Coal In Coke.

By the yield of coal in coke is meant the percentage by weight of the constituents of the coal that remains as coke after the process of coking is completed. The following table shows that the general average

Mineral Be8Oub0Es.

yield of coal in coke is about 64 per cent, but this is believed to be somewhat excessive. For the reasons stated in connection with the amount of coal made into coke, it is not always possible to obtain exact information on this point, as in many instances the coal is not weighed before being charged into the ovens, and the amount consumed is largely an estimate. It is doubtful if the average yield of coal in coke throughout the United States exceeds 60 per cent.

Percentage yield of coal in coke, 1880-1908,

Year.

Percentage yield of coal.

Year.

Percentage yield of coal.

Percentage yield of ooal.

The following table shows the percentage yield of coal in coke in each State during the last six years:

Percentage yield of coal in cokCy 1897-190S, by States.

State or Territory.

Alabama

Coloradoa

Georeria

Indian Territory.

Kansas

Kentucky

Missouri

Montana

New Mexico

Ohio

Pennsylvania

Tennessee

Texas

Virginia

Washington

West Virginia

Illinois

Indiana

Michigan

New York

Wisconsin

Wyoming

Total average.

a Average, including Utah.

Average, including New York, Masiachusetls for 1999

Coke. 469

Condition In Which Coal Is Charged Into The Ovens.

In the following tables will be found a statement of the condition in which the coal was charged into the ovens in the several States and Territories during the last two years, and a rfeum of the corresponding statistics for the last thirteen years during which these statistics have been compiled. In a number of the coal-producing States it has been found that a washing of the coal before charging it into the ovens has materially improved the quality of the coke. This has been particularly true in regard to the slack coal used. Most of the run-of-mine coal which is washed before coking is crushed before being washed, in order to effect a more complete separation of the slate, pyrite, and other impurities which exist in the coal.

About two-thirds of the entire amount of coal which is used in coke making is run-of-mine coal, which is charged into the ovens without being washed. It has been found, however, that the coking process is in many cases facilitated and a better quality of coke obtained if the coal is crushed before charging into the ovens, and a large amount of the run-of-mine coal is cnished, or disintegrated, before coking, whether it is washed or not. Little, if any, large-size coal is coked in by-product ovens. During 1902, 11,608,4:91 short tons, or not quite one-third of the total amount of coal used in coke making, was slack, and a little more than one-half of this slack coal was washed before being coked. Alabama, Colorado, and Pennsylvania show large increases in the amount of slack coal washed before being made into coke, and the total amount of slack coal washed before coking in 1902 exceeded that of the preceding year by 1,517,821 tons, while the amount of washed run-of-mine coal used showed only a slight increase.

Among the more impoi-tant coal-producing States it is noted that in Pennsylvania only 1,778,134 tons, out of a total of 25,017,326 tons, were washed before coking. In Alabama 3,004,084 tons, out of a total of 4,237,491 tons, were washed; and in Colorado 1,052,935 tons, allow which was slack, out of a total of 1,695,188 tons, were washed before coking. In this State only 831 tons of run-of-mine coal were made into coke in 1902. In West Virginia less than 8 per cent of the total coal consumed in the manufacture of coke was washed, while in Virginia all of the coal consumed was unwashed.

The amount of unwashed run-of-mine coal used in coke making increased from 23,751,468 short tons in 1901, to 26,347,698 tons in 1902. The amount of washed run-of-mine used remained practically the same, being 1,600,714 tons in 1901 and 1,647,818 tons in 1902. The use of unwashed slack increased from 4,546,201 tons to 5,781,088, and the washed slack from 4,309,584 to 5,827,403 tons. The amount of washed slack coal used in coke-making m 1902 was three times the

Mineral Bs80Ub0S8.

Character of coal tued in ike manufacture of coke in 1901. [Short tons.]

Btate or Territory.

Run of mine.

Unwashed. Washed,

Slack.

Unwashed. Washed.

Total.

Alahama

Ookmdo*

Qeoigia

Indian Territory.

Kentncky

Montana ,

Ohio

Pennsylvania ...

Tennessee

Virginia

Washington

West Virginia..

niinois

Massachusetts..,

Michigan

New York

Wisconsin

Wyoming

Total

a Includes Utah.

Character of coal used in the manufacture of coke in 190t, [Short tons.]

State or Territory.

Alabama

Coloradoa ,

Georgia ,

Indian Territory .

Kentucky

Missouri

Montana

New Mexico...

Ohio

Pennsylvania. .

Tennessee

Viiginia

Washington . . . West VirginU .

Indiana

Massachusetts .

New York

Wisconsin

Wyoming

Total 26,847,698

Run of mine.

Unwashed. Washed

Slack.

Unwashed. Washed.

a includes Utah.

i'lgitizi

Total.

Coke.

In the following table the statistics regarding the character of the coal for the years 1890 to 1902, inclusive, are consolidated:

Character of coal used in the

iJui UnUed States, 1890-190.

Year.

Run of mine.

Slack.

Total.

Unwashed.

Washed.

Unwashed.

Washed.

Coke Making In By-Product Ovens.

The retort or by-product method of coke making in the United States continues to show encouraging progress. This is principally evident in the number of new plants which have been reported as in course of construction at the close of the last three years. It should be remembered that the construction of one of these plants involves a much larger expenditure of capital and consumes a much longer time in the actual building than is necessary for the completion of a beehive oven plant. The close of 1902 marks the completion of the first decade of the use of by-product ovens-in the United States, the fii"st plant having been constructed at Syracuse, N. Y., in 1893. This plaint, which was largely experimental, consisted of but 12 ovens. At the close of 1902 there had been completed a total of 1,663 by-product ovens, and 1,346 ovens were in course of construction. In the following table it is shown that at the close of 1900 there were 1,096 ovens building, of which barely 60 per cent had been completed at the end of 1902, showing an average of more than two years consumed in the building of these plants. The amount of coke produced in by-product ovens in 1902 amounted to 1,403,588 short tons, or 5.53 per cent of the total product, as against 1,179,900 tons, or 5.41 per cent of the total, in 1901. The average annual production of by-product ovens amounted to about 1,000 tons of coke each, while the highest average attained per each beehive oven in any year was made in 1902, when it reached 366.6 tons. In the report for 1901 and the two or three preceding ones, the statistics of the production of gas, tar, and ammonia in by-product ovens were discussed in connection with the output of by-product coke. These subjects are given treatment for 1902 in consideration

MINEBAL BEdOUBOES.

with the report on the production of gBS tar, and ammonia at gashouse plants in the United States, upon which a separate chapter has been prepared.

Induced to tabular form, the record of by-product coke making in the United States since 1893, when the first plant was constructed at Syracuse, has been as follows:

Record of by-prodtict coke making 1898-190$.

Year.

OTens.

Produc-

Built

Building.

tion.

M,846

Short toM. 12,850

a Includes 625 Bemet-Solvay, 1,067 Otto-Hoffman, 16 Schniewlnd, and 66 Newion-Gtuunbera. Mndudes 210 Semet-Solvay, 664 Otto-Hoflman, 412 Schniewlnd, and 60 Retort Coke Company ovens.

In the following table is shown the record of by-product coke ovens, by States, at the close of 1900, 1901, and 1902:

Record of hy-product ovens by Slates,

state.

Alabama

Maryland

Michigan

New Jersey —

New York

Ohio

Pennsylvania..

Virginia

West Virginia..

Ovens December 31, 1900.

Completed.

Building.

Total ' 1,085 I 1,096

Ovens December 81, 1901.

Completed.

Building.

Ovens December 81,1902.

pl?S. B""ding.

Imports And Exports.

The following table gives the quantities and value of coke imported and entered for consumption in the United States from 1869 to 1902, inclusive. In the reports of the Treasury Department the quantities given are long tons. These have been reduced to short tons to make the tables consistent with other tables in this report: by V:.uuic

Cdke imported and entered for consumption in the Untied Staiee, 1S69-190S.

Year ending June 80—

Quantity.

Value.

Year ending Dec. 31—

Quantity.

Value.

Short tons.

Short tons. 28,124 35,320 85,201 28,608 20,808 50,753 27,420 37,183 82,566 43,372 34,937 46,127 81,197

The amount and value of coke exported from the United States have increased each year since 1895, as shown in the following table:

Coke exported from the United Stales since 1896,

Year.

Quantity.

Value.

Year.

Quantity.

Value.

Short tons. 181,368 169,189 178,034 199,562

Short tons. 422,239 430,450 439,590

Production Of Coke By States.

Alabama.

Alabama, which for six yeare prior to 1902 ranked third among the coke-producing States, advanced to second place last year, with an increased production of 403,335 tons over the output of 1901, West Virginia, which for several years stood next to Pennsylvania, taking Alabama's position as the third coke-producing State. Alabama's production in 1902 amounted to 2,552,246 short tons. West Virginia following closely with a total output of 2,516,500 tons. In 1901 Alabama produced 2,148,911 short tons, and West Virginia produced 2,283,700 short tons. The value of Alabama's coal product in 1902 was $8,300,838, as compared with $6,062,616 in 1901, a gain of $2,238,222, or 36.9 per cent, as against an increase of 18.8 per cent in the quantity of coke produced. The average price per ton for the coke produced was the highest in the history of the coke-making industry in the State, advancing from $2.82 in 1901 to $3.25 in 1902. The statistics

MDTBfiAL BESOUBOES.

for 1902 show also an increase in the yield of ooal in coke to 60.2 per cent, the best record made in the State.

The number of coke-making establishments in Alabama increased from 31 in 1901 to 37 in 1902; the number of ovens completed from 7436 to 7,571, and the number of ovens building at the close of 1901 from 535 to 1,334 at the close of 1902. The bank of 120 additional Semet-Solvay ovens mentioned in the report for 1901 as being under construction were completed in 1902, making a total of 240 of these ovens now operating in the State. The ovens under construction included also 40 more Semet-Solvay ovens building by the Semet- Solvay Company, at Tuscaloosa.

The coal fields of Alabama are divided into three districts, known by the names of the rivers which drain them — the Warrior, the Coosa, and the Cahaba. By far the most important of these is the Warrior district, which includes the coke ovens in and around the city of Birmingham. As there is but one coke-producing plant in each of the other two districts, no separation of the statistics of .coke production is made by districts for this State.

The statistics of coke production in Alabama since 1880 are as follows:

StatUtics of the inanufaciure of coke in Alabama, 1S80~190£.

Year.

Establishments.

Ovens.

Coal used.

Coke produced.

Total value

of ooke at

ovens.

Value of ooke at ovens, per ton.

Yield of coal in coke.

a 976

'6,529

Short tOM.

Short toM.

Per cent.

a One establishment made coke on the ground. e Includes 120 Semet-Solvay ovens.

6 Semet-Solvajr ovens. I ucludes 240 Semet-Solvay ovens. C

Includes 40 Semet-Solvay ovens.

Ooke.

The character of the coal used in the manufacture of coke in Alabama since 1890 is shown in the following table:

Character of coal used in the manufacture of coke in Alabama j ISSO-ISOS.

Year.

Run of mine.

Slack.

Total.

Unwashed.

Washed.

Unwashed.

Washed.

It will be observed from the foregoing table that the increase in coke production in Alabama has been chiefly due to the utilization of slack coal, nearly all of which is washed before being charged into the ovens. Nearly 60 per cent of the coal used in 1902 was washed slack, and of the run-of-mine coal used nearly 30 per cent was washed.

Colorado And Utah.

As there is but one coke-making establishment in Utah, the statistics of production in that State are combined with Colorado in order to maintain the confidential nature of the individual statements to the Survey. Colorado itself holds the same relative position west of the Mississippi River as a coke-producing State that Pennsylvania holds for the United States. The coke production of Utah is comparatively small and does not materially affect the total. The production of the two States in 1902 amounted to 1,003,893 short tons, as compared with 671,303 short tons in 1901, a gain of 332,090 tons or 49.6 per cent. The rate of increase for these two States in 1902 over 1901 was the largest of any of the more important coke-producing States, and largest of all with the exception of Georgia and Kansas. The total combined production of these two last States, however, amounted to but little over 100,000 tons. The statistics for 1902 show that the number of coke ovens increased 46.1 per cent over 1901, or from 2,060 to 3,010. All of these new ovens have been added to the plants of the Colorado Fuel and Iron Company, the coke product being consumed in the company's own blast furnaces. The coal used in the manufacture of coke is almost entirely slack— 1,694,367 tons, out of a total of 1,696,188. Of the slack coal used 1,0529986 tons were washed before coking. The statistics ol

Mineral Be80Ub0Es.

the production of coke in Colorado and Utah since 1880 and the character of the coal used in the manufacture of coke since 1890 are presented in the following table:

Suaistics of the manufacture of coke in Colorado and Utah, 1880-1902,

Year.

1892 a 1898 a 1894a

1897 a 1896 a 1899a 1900a 1901a 1902a

Establishments.

Ovens.

.

Building.

ft 1,128

2S0

Coal used.

Coke produced.

Total value

of coke at

ovens.

Short lona. 25,668 48,587 102,105 138,997 115,719 181,960 142,797 170,688 179,682 187,688 245,756 277,074 373,229 862,986 817,196 868,760 842,658 474,808 618,755 6n,808 1,008,896

Value of

coke at

ovens

per ton.

Yield of

ooalin ooke.

Percent

a Includes production and value of ooke in Utah and of coal coked, ft Includes 36 gas retorts since 1892.

The character of the coal used in the manufacture of coke in C!olorado and Utah since 1890 is shown in the following table:

Character of coal used in the manufacture of coke in Colorado and Utah, 1890-1902.

Year.

Run-of-mine.

Slack.

Total.

Unwashed.

Washed.

Unwashed.

Washed.

Ooeb.

Georgia.

The only coal mines in the State of Georgia are located in Dade and Walker counties, in the extreme northwest comer of the State, the coal beds being a portion of the Warrior coal fields of Alabama. The coal in Georgia produces a fairly good quality of coke — although it is principally the slack coal that is used for that purpose — which finds a market in the iron works in the vicinity of Chattanooga, Teun.

Georgia's production of coke in 1902 amounted to 82,064 short tons, the largest output since 1895, and exceeding the output of 1901 by 27,514 tons, or a litte over 50 per cent. The value of the product increased from $154,625 to $298,963, the highest figure ever reached. The average price per ton in 1902 was $3.64, as compared with $2.83 in 1901, and with $2.85 in 1900. For the first time in a period of ten years some run-of-mine unwashed coal was made into coke in Georgia. This was due to the inability to supply the demand for coke from the slack coal produced in mining operations.

The statistics of the production of coke in Georgia, 1880 to 1902, are as follows:

StaHstics of the manufacture of coke in Georgia, 1880-190S.

Year.

EBtab-lish

-

ments.

Ovens.

BuHt. Bjd-

Coal used.

Coke produced.

Total value

of coke at

ovens.

Value of coke at ovens,

per ton.

Yield of coal in coke.

Short toM,

Short Urns.

Percent

iriKEBAL BES0UB0E8.

As shown in the following table, nearly all of the coal used in the manufacture of coke in Georgia since 1890 was washed before being charged into the ovens.

Character of coal used in the manufacture of coke in Georgia, 1S90-190.

Year.

Run of mine.

Unwashed. Washed,

Slack.

Unwashed. Washed.

Total.

Indian Territory.

Coke production in the Indian Territory in 1902 presented one notable exception to the general condition prevailing throughout the year, in that the average price per ton was less than that of 1901. One establishment and 50 ovens were added to the coke-making equipment of the Territory in 1902, and the product increased from 37,374 short tons to 49,441 tons, and the total value from f 154,834 to $202,921.

The statistics of the manufacture of coke in the Indian Territory from 1880 to 1902 are as follows:

Statistics of the manufacture of coke in the Indian Territory , 18S0-190S,

Year.

Establishments.

Ovens.

.

Building,

Coke produced.

Total value

of coke at

ovens.

Value of coke at ovens,

per ton.

Yield of coalin coke.

Short toiM. 2,494 2,852 8,266 4,150 3,084 5,781 10,242 20,121 13,126 13,277 13,278 20,551

Short iont, 1,546 1,768 2,025 2,673 1,912 3,584 6,351 10,060 7,502 6,639 6,639 9,464

00

Per

Coke.

Statistics of the manufacture of coke in the Indian Territory, 1880-19( — Continued.

liflhments

.

Ovena.

Coal used.

Coke produced.

Total TBlue

of coke at

ovens.

Value Of coke at ovens,

per ton.

Yield of

Year.

Built.

Building.

coal in coke.

Short toM.

Short tons.

Percent.

VKfi

The character of the coal used in the manufacture of coke in the Indian Territory since 1890 is shown in the following table:

Character of coal used in the manufacture of coke in the Indian Territory, 1890-i90£.

Year.

Ron of mine.

Unwashed. Washed,

Slack.

Unwashed. Washed,

Total.

Kansas.

This State continues to be of comparatively little importance as a coke producer, the small amount of coke produced being made by the zinc-producing companies for their own use, and the coal used being chiefly slack coal obtained from the mines in the State. There were 10 establishments, with a total of 97 ovens, producing coke in 1902. The product was the largest ever made, amounting to 20,902 tons, with a value of $54,702. The production in 1902 was nearly three times that of 1901. . , , . . ,.

/viV IC

Minebal Besouboes.

The statistics of the manufacture of coke in Kansas from 1880 to 1902 are as follows:

Statistics of the manufacture of coke in Kansas, 1880-190S,

Year.

Establishments.

Ovens.

Built.

Building.

Coal used.

Short Um. 4,800 8,800 9,200 13,400 11,500 15,000 23,06? 27,604 24,934 21,600 21,809 27,181 15,437 13,646 13,288 8,424 8,940 11,772 7,856 26,988 10,303 11,629 35,827

Coke 'produced.

of coke at I ™®r

oven ovens,

Short tons. 5,G70

G.aso

Yield of coal in coke.

S6,000 10,200 11,460 16,560 14,580 13,255 19,204 28,575 29,078 26,598 29,116 33,296 19,906 15,660 11,289 8,676 9,272 6,455 30,817 14,985 15,079 54,702

ParcenL 68.S

Kentucky.

The coke production in Kentucky in 1902 was the largest both in amount and value in the history of the State, amounting to 126,879 short tons, valued at $317,875. The coking industry of Kentucky depends for its existence principally upon the slack coal produced at the coal mines of the State. Kentucky is the only State which contains within its borders the Coal Measures of any two of the great fields. The Appalachian coal area crosses the eastern end of the State, while the southern extremity of the Illinois and Indiana, or flastern Interior, field is found in the western counties of Kentucky. Coke is made from coal mined from both fields, one of the principal coke plants being that of the St. Bernard Coal Mining Company at EarlingcOn, Hopkins County, which has been able to produce a good quality of coke from these coals, although practically no coke is made from the store extensively developed portions of the field in Illinois and Indiana.

The total amount of coal consumed in the manufacture of coke in

Ic

Coke.

Kentucky in 1902 was 265,121 tons. Of this amount, 231,962 tons were slack, and of the slack coal 140,466 tons were washed before coking.

The statistics of the manufacture of coke in Kentucky from 1880 to 1902 are as follows:

Statistica of the manufacture of coke in Kentucky, 1880-1902,

Year.

EBtabliah

-

ments.

Ovens.

Building.

Coaliued.

Short Um,

Coke produced.

Short tons.

Total value

of coke at

ovens.

Value of coke at ovens, per ton.

Yield of coal in coke.

Percent.

Missouri.

The small amount of coke produced in Missouri is from ovens operated in connection with the lead and zinc smelters, in which the product is consumed. The industry is a small one, and the conditions affecting it are similar to those mentioned in regard to Kansas. The production in 1902 amounted to 5,780 short tons, as compared with 4,749 tons in 1901. There were but two establishments making coke last year and the total number of coke ovens was 8. All of the coal used in coke making is slack coal. M E 1902 31

Mineral Resources.

The statistics of the production of coke in Missouri from 1887, when coking began in this State, to 1902 are as follows:

Staiistics of the manufacture of coke in Missouri 1887-1902.

Year.

Bstab-lish

-

ments.

Ovens.

Bultt. Xf.-

Coal used.

Short tons. 5,400 5,000 8,485 9,491 10,377 11,088 8,875 3,442 3,120 4,471 4,627 1,500 5,320 3,775 9,041 10,430

Coke produced.

Short tons. 2,970 2,600 5,275 6,136 6,872 7,299 5,905 2,250 2,028 2,500 2,593 2,860 2,087 4,749 6,780

Total value

of coke at

ovens.

Value of coke at ovens, per ton.

1.46" l.a5

Yield of coal in coke.

Percent.

Montana.

Montana is one of the States whose coke production in 1902 was less than that of the preceding year. A number of new ovens were added to the plant of the Montana Coal and C!oke Company during 1902, and an increase in production in 1903 may be expected. The output in 1902 amounted to 53,463 tons, as compared with 57,004 tons in 1901. With one exception the production in 1902 was less than in any year since 1896. All of the coal used in the manufacture of coke in Montana is washed before coking.

Coke.

The statistics of the manufacture of coke in Montana from 1883, when ovens were first reported, to 190 are as follows:

JSaHsHcs of the manufacture of coke in Montana, 18SS-190X,

Year.

Ovens.

Coal used.

Coke produced.

Total value

of coke at

ovens.

Value of coke at ovens, per ton.

Built

Building.

Short Um.

Yield of coal In coke.

Per ccnL

New Mexico.

New Mexico was one of the three exceptions to the general increase in coke production in 1902, the output from this Territory decreasing from 41,643 short tons in 1901 to 23,296 tons, a loss of 18,347 tons, or about 44 per cent. There are but two establishments in the Territory, and a total of 126 ovens. No changes have been made in this respect in the last six years. The coal used in the manufacture of coke in the Territory in 1902 was entirely slack coal, and of the 40,943 tons used all but 208 tons were washed before coking.

Mineral Be80Ubges.

The statistics of the production of coke in New Mexico from 1882, when coke ovens were first reported, until 1902 are as follows:

Statistics of the manufacture of coke in Netv Mexico j 188S-190.

Year.

Estab-lish

-

ments.

Ovens.

Built Bd-

Goal used.

Short ioM.

Coke produced.

Short UyM.

Total value

of coke at

ovens.

Value of coke at ovens, per ton".

16,000 , 21,478 j 91,410 I 89,700 51,180 82,260 51,240 18,406 10,025 18,476 28,213 29,491 48,453 8,232 14,626 99,217 130,251 118,368 74,051

Yield of coal in coke.

cent, 66f

m

New York.

The 564 ovens of the Otto-Hoflfman by-product type, mentioned in the report for 1901 as beinjr under construction at Buffalo by the Lackawanna Iron and Steel Company, had not been completed at the close of 1902, and did not, therefore, contribute to the production of New York last year. The entire output for the State was from the 30 Semet-Solvay ovens at Syracuse. This plant is being increased by au addition of 10 ovens, which were in course of construction at the close of 1902. The statistics of production of New York are included with that of Other States."

Ohio.

Although Ohio possesses large areas of coal from which a fair quality of coke could be made, and stands fourth among the coal-producing States, the coke-making industry has not been developed to any extent. This is doubtless due to the proximity of the higher grade of coking coals of Pennsylvania and West Virginia, which supply the fuel for

Ic

Ookk.

the many iron and steel works in Ohio. Stimulated, however, by the inoreased activity and demand for coke in 1902, the production of the State increased from 108,774 tons in 1901 to 146,099 tons in 1902, this being the largest output ever made. The value increased from $299,430 to $492,793, and the average price per ton advanced from $2.75 to $3.37. Something over one-third of the total product in 1902 was from the new plant of Otto- Hoffman ovens completed in 1901, at Hamilton, near Cincinnati. At the close of 1902 there were 60 retort ovens in course of construction by the Retort Coke Oven Company, at Cleveland. The number of establishments in the State increased from 8 in 1901 to 9 in 1902, and the number of completed ovens from 419 to 449. Two of these establishments, with a total of 23 ovens, were idle throughout the year.

In the following table the statistics of the production of coke in Ohio for the years 1880 to 1902 are consolidated:

Statistics of the manufacture of coke in Ohio, 1880-1909,

Year.

Estab- I liflhments.

Ovens.

Built.

B419 a 449

Building.

Coal used.

18i;677

Coke produced.

Total value

of coke at

ovens.

Short tOM. 100,596 119,469 108,722 87,834 62,709 89,416 84,962 98,004 67,194 76,124 74,633 38,718 61,818 22,436 82,640 29,060 80,868 85,685 83,878 72,116 108,774 146,099

Value of coke at ovens, per ton.

Yield of coal in coke.

Per

cent

a Includes 60 Otto-HofiCman ovens.

Betort Coke Company ovens.

Hikebal Bssoubob.

The character of the coal used in the manufacture of coke in Ohio since 1890 is shown in the following table:

CfuircuUer of coal used in the numufadure of coke in Ohio since 1890. [Short tons.]

Year.

Run of mine.

Slack.

Unwafihed.

Washed.

Unwashed.

Washed.

Pennsylvania.

Approximately two-thirds of the entire coke product of the United States is made in Pennsylvania and 60 per cent of Pennsylvania's product, or 40 per cent of the entire output of the Uni'ed Sta'es, is from the famous CJonnellsville region. In 1902 the coke production of Pennsylvania amounted to 16,497,910 short tons, out of a total for the United States of 25,401,730 tons. In 1901 Pennsylvania produced 14,355,917 tons, out of a total of 21,796,883 tons. Of these totals, the Connellsville region produced in 1901, 10,235,943 tons, and in 1902, 10,418,366 tons. To this production of the Connellsville region might be reasonably added the output of the recently developed areas in the vicinity of Uniontown, which have been classified in this report under the name of the Lower CJonnellsville district. This new district produced in 1901, 1,116,379 short tons, and in 1902, 1,899,111 tons, making the total for the two districts in 1901, 11,352,322, and in 1902, 12,317,477 short tons.

As compared with 1901, the coke production of Pennsylvania in 1902 shows an increase of 2,141,993 short tons, or 14.9 per cent, each district in the State participating in the increased production, although the increase in the Connellsville region was comparatively small. That the increase in the Connellsville region was not larger was due to the great shortage of cars and lack of motive power on the part of the transportation companies, there being constant complaint throughout the entire year of the inability of the railroads to handle this traffic properly. A number of establishments were obliged to put their

Ic

Ooke. 487

ovens out of blast for considerable periods on account of the congested condition of the railroad business. The inability to increase production more materially was, however, somewhat compensated for in the enhanced value of the coke produced. The output of the Connellsville region in 1902, which did not exceed that of 1901 by as much as 2 per cent, showed an increase in value of from $19,172,697 to $23,785,433, a gain of $4,612,736, or 24 per cent. The value of the total product for the State increased from $27,066,361 to $38,451,722, a gain of $11,385,361, or 42 per cent. This indicates that the value of Connellsville coke did not increase in the same ratio as that produced in other portions of the State.

It should be stated, however, that a large part of the Connellsville product was marketed in 1902 at contract prices made the preceding year, and, moreover, the production of the H. C. Frick Company, the largest producer in the region, as in the United States, is no longer sold in the open market, but is entirely consumed in the furnaces and mills of the United States Steel Corporation, of which the Frick company is a subsidiary member. Consequently the value placed upon this product is largely an arbitrary figure and does not represent actual market conditions. Notwithstanding the fact that during the anthracite strike the prices of Connellsville coke for prompt delivery reached as high as $12 per ton, a comparatively small amount was sold at these high figures, the greater portion going to contract purchasers. The smaller producing districts of the State not only increased their production in greater proportion than did the Connellsville region, but also obtained more direct and substantial benefit from the abnormal prices which prevailed for a time during 1902.

There were in 1902 196 establishments in the State, as compared with 188 in 1901. Four of the eight new plants were constructed in the Lower Connellsville district, the most recently developed coking field in the State, the total number of completed ovens increasing from 34,906 to 36,609. Of this increase, 1,002 were in the Lower Connellsville district. There werd building at the close of 1902 2,332 new ovens, as compared with 832 ovens in the course of construction at the close of 1901. The completed ovens at the close of 1902 included 507 Otto-Hoffman, Semet-Solvay, and 8 Newton-Chambers by-product ovens. Of the 2,332 ovens building at the close of 1902 there were 100 Otto-Hoffman, 100 Semet-Solvay, and 212 Schniewind by-product ovens. Including the ovens which were completed in 1902, but not completed in time to be put in blast during that year, there were 9 establishments in the State, with a total of 599 ovens, which did not produce any coke throughout the entire year.

Mikebal Be80Ub0Es.

In the following table are given the statistics of the production of coke in Pennsylvania for the years 1880 to 1902, inclusive:

Staiigtics of the manufacture of coke in Pennsylvania 1880-1902.

Year.

Ovens.

Establishments.

Built.

Building.

Coal used.

Coke produced.

Total value

of ookeat

ovens.

Value of coke at ovens, per ton.

Yield of coallB coke.

1896a 1898a 1899b

Short UmM.

tl.86

Percad. ri6.1 €6 1

a Includes coal used, coke produced, and its value in New York.

Mncludes coal used, coke produced, and its value, in Massachusetts and New York.

The character of the coal used in the manufacture of coke in Penn sylvania since 1890 is shown in the following table:

Character of coal used in the manufacture of coke in Penngylvania since 1890,

Year.

a Includes coal used in New York.

Run-of-mine.

Slack.

Total.

Unwashed.

Washed.

Unwashed.

Washed.

fi02,27

Includes coal u.std in Massachusetts and New York.

PEODUCmON BY DISTRICTS.

In previous chapters of this series it has been customary to consider the production of coke in Pennsylvania according to certain welldefined districts. These divisions are based to some extent upon geographic boundaries, but also upon the quality of the coal mined and the coke produced. Each one has been more fully described in some of the preceding volumes, but the following brief statement regarding the territory included in the diflFerent coking districts is repeated here for the sake of convenience.

The Allegheny Mountain district includes the ovens along the line of the Pennsylvania Railroad from Gallitzin eastward over the crest of the AUeghenies to beyond Altoona. The Allegheny Valley district includes the coke works of Armstrong and Butler counties and one of those in Clarion County, the other ovens in the latter county being included in the Reynoldsville-Walston district What was previously known as the Beaver district included the ovens in Beaver and Mercer counties, but all the ovens in Beaver County have been abandoned, and the operations of the Seraet-Sol vay ovens in Mercer County are now included in the Pittsburg district. The Blossburg and Broad Top districts embrace the Blossburg and Broad Top coal fields. The ovens of the Clearfield- Center district are chiefly in the two counties from which it derives its name. The Connellsville district is the wellknown region of western Pennsylvania, in Westmoreland and Fayette counties, extending from just south of Latrobe to Fairchance. The Lower Connellsville region is entirely in Fayette County and is an extension, southwest, of the Connellsville basin proper. It embraces the developments located in the vicinity of Uniontown. The Greensburg, Irwin, Pittsburg, and Reynoldsville-Walston districts include the ovens near the towns which have given the names to these districts. The Upper Connellsville district, sometimes called the Latrobe district, is near the town of Latrobe.

The Allegheny Valley district may be said to have passed out of existence, as no coke has been made there during the last four years, and it is practically abandoned.

Minebal Be8Oub0Es.

Coke production in Pennsylvama in 1901, by districts.

Establishments.

Ovens.

Coke produced.

Total value of coke at ovens.

Value of coke at ovens, per ton.

Yield of

District.

Built.

Building.

coal in coke.

Alleeheny Mountain

a 16

/2S2

Short tons. 548,076

S2.03

Pa-eenL

Allegheny Valley

Broad Top

Clearfield-Center...

Oreensbuig

6S.9

Ipwln

Lower Connellsvllle Pittsburg

ReynoldfiviUe-Wal- Bton

Upper Connellsvllle

Total

a One establishment made coke In open ricks, not ovens.

Mncludes 160 Otto-Hoffman and 8 Newton-Chambers ovens.

0 Production included in Pittsburg district.

d Includes 60 Semet-Solvay ovens.

Includes 120 Otto-Hoflman and 25 Semet-Solvay ovens.

/Otto-Hoffman ovens.

Coke production in Pennsylvania in 190£j by districts.

Establishments.

Ovens.

Coal used.

Coke produced.

Total value

of coke at

ovens.

Value of coke at ovens,

per ton.

Yield of

District.

Built

coalin coke.

Allegheny Moun-al

,568

a2N

n,691

Short tons. 965,412

Fcenl.

AUegheny Valley e .

Broadtop

Clearfield Center...

Greensburg

Irwin

Lebanon Valley

Lower Connellsvllle Pittsburg*

Reynoldsville Walgton

Upper Connellsvllle

Total

a Includes 160 Otto-Hoffman and 8 Newton-Chambers ovens.

b Includes 100 Otto-Uoffman ovens.

c Production Included in Pittsburg district.

d Includes 87 ovens and production in Elk County.

Includes 60 Semet-Solvay ovens.

/Includes 60 Semet-Solvay ovens.

0 Otto- Hoffman ovens.

A Includes production of ovens in Allegheny Valley district.

i Includes 120 Otto- Hoffman and 26 Semet-Sol vay ovens.

iSemet-Solvay ovens at Chester, in eastern Pennsylvantojed by

feSchniewlnd ovens at Lebanon. O

Coke.

Allegheny Mountain district. — This district includes all of the coke ovens in the vicinity of Johnstown and those lying along the line of the Pennsylvania Railroad east of Blairsville, Indiana County. It also includes a few plants in Somerset County. The developments in the vicinity of Johnstown include 160 by-product ovens of the Otto- Hoffman type, operated in connection with the works of the Cambria Steel Company. An additional bank of 100 by-product ovens of the same type were being added to this plant at the close of 1902. The production of this district shows a substantial inci'ease, from 648,076 in 1901 to 644,053 tons in 1902, while the value increased in much larger proportion, from $1,112,682 to $1,782,660. The average price per ton received for the product advanced from $2.03 to $2.77, an increase of 74 cents, or 37 per cent.

One bank of 16 ovens was abandoned in 1902, but 260 new ovens were building at the close of the year.

The statistics of the manufacture of coke in the Allegheny Mountain district from 1880 to 1902 are as follows:

8taluHc8 of the manufacture of coke in the Allegheny Mountain district of Pennsylvania,

Year.

Establishments.

el6

Ovens.

ol,185

a 1,158

<?1,256

d 1,341

d 1,378

dl,563

Moo /260

Coal used.

Short Um9. 201,345 226,663 284,544 200,343 241,459 327,666 351,070 461,922 621,047 664,112 633,974 708,523 724,903 275,865 92,965 271,096 408,827 417,470 572,568 730,843 876,440 864,133 965,412

Coke produced.

Total value

of coke at

ovens.

Short tons. 127,525 144,430 179,580 135,342 156,290 212,242 227,369 297,724 335,689 354,288 402,514 448,067 448,522 173,131 58,823 173,965 266,473 278,578 378,410 478,340 557, 184 548,076 644,053

Value of coke at ovens, per ton.

Yield of coal In coke.

Percent.

a Includes 60 Otto-Hoffman ovens.

b otto-Hoffman ovens.

0 Includes 160 Otto-Hoflman ovens.

d Includes 160 Otto-Hoffman and 8 Newton-Chambers ovens.

eOne establishment made coke in open ricks.

/Includes 100 Otto-Hoffman ovens.

ovens.

Ic

Allegheny Valley district. — Tbis district, which has never been of much importance as a coke producer, is now out of existence. No coke has been made in this district since 1897, and the last bank of ovens was abandoned in 1901. The largest output obtained in any one year was 44,261 tons of coke made in 1887.

Bea/oer and BUmburg districts. — These districts, like the Allegheny Valley district, have ceased to exist, the last bank of ovens in Beaver County being abandoned in 1898, and the small production in Mercer County has been included with that of Pittsburg. No coke has been made in the Blossburg district since 1896.

Broadtop district. — The ovens in Bedford and Huntington counties, which comprise what is known as the Broadtop coal field, are included in this coking district. This district, like the others of Pennsylvania, experienced renewed activity because of the increased demand for coke in 1902, when the output increased practically 50 per cent, from 118,949 tons in 1901 to 176,808 tons in 1902, while the value increased 150 per cent, from $237,898 to $694,621, the average price per ton advancing from $2 to $3.38. An experimental plant of three Kloman retort ovens was in course of construction in this district at the close of 1902. All of the 571 completed ovens in the district were operated last year.

The statistics of the manufacture of coke in the Broadtop district from 1880 to 1902 are shown in the following table:

StatisUcs of the manufacture of coke in the Brocuitop districtf Pennsylvania, 1880-1902.

Year.

Esteblish

-

ments.

Ovens.

Built.

Building.

Coal used.

Coke produced.

Total value

of coke at

ovens.

Value of coke at ovens,

per ton.

YIeldof

coal In

coke.

Short toM.

a Kloman retort ovens.

eo

Coke.

Clearfiddr Center district. — This district derives its name from the two principal counties comprising it, Clearfield and Center. A few ovens constructed in Elk County in 1901 and 1902 have been added to this district. The production of the district in 1902 amounted to 198,725 short tons, an increase of 112,483, or about 130 per cent over 1901, and closely approaching the maximum output made in the district, which was 212,286 tons produced in 1890. The value of the product in 1902 was more than three times that of the preceding year, amounting to $489,637, as compared with $157,648 in 1901. Of the 623 ovens in existence in 1902, 80 were idle.

The statistics of the manufacture of coke in the Clearfield-Center district for the years 1880 to 1902 are as follows:

8UiJtMc of the manufadure of coke in the ClearfieldCerUer districlf Penruylvama,

18S0&#x27;190£.

Establishments.

Ovens.

Bunt. BuUd-

Coal used.

Coke produced.

Total value

of coke at

ovens.

Value of coke at ovens, per ton.

Yield of coalin coke.

Short tons. 20,025 25,000 26,600 88,000 69,720 84,870 154,566 172,999 195,478 831,104 293,542 281,857 155,119 61,428 155,068 183,056 230,395 215,208 198, 110 212,196 184,913 308,289

Short tons.

22,695 27,406 28,844 32,849 70,831 94,877 198,095 174,220 215,112 891,957 889,082 264,422 171,482 51,482 181, 188 164,2i66 197,139 195,836 234,527 283,592 157,648 489,637

Percent.

a Includes 50 ovens In Elk County.

Mncludes 87 ovens and production in Elk County.

ConndlsvUle district. — This district, which produces more coke annually than any other one region in the world, is located in the two counties of Fayette and Westmoreland, a short distance from the city of Pittsburg, which is now the leading iron manufacturing city in the world. This district produces from 40 to 50 per cent of the total coke output of the United States, and something over

total output of Pennsylvania. As previously stated, the coking operations in 1902 were considerably restricted by the insufficient car supply and lack of motive power on the part of the railroads. Because of this the production of the district increased only slightly in 1902 over that of 1901, the totals for 1901 being 10,235,943 short tons, and for 1902, 10,418,366 tons. The operators in this region were also to some extent at a disadvantage and were unable to derive all of the benefit that otherwise they would have done from the increased demand and high prices for fuel, because of the fact that much of the product was sold at contract prices made in 1901. In other cases where large quantities of coke are delivered to blast furnaces controlled by the operators themselves, or by affiliated organizations, the values are arbitrarily fixed and do not really reflect the market conditions. For this reason the prices of Connellsville coke, which in previous years were considered to some extent the standard for the industry, are becoming less important factors in the trade.

During 1902 there were 97 establishments, having a total of 21,659 ovens, in this district, as compared with 96, having a total of 21,586 ovens, in 1901.

The Connellsville coal is an ideal coal for coking in bee hive ovens, and all but 50 of the ovens in this district are of the bee hive type. The following table, compiled by the Connellsville Courier, at Connellsville, shows the shipments of coke from this region in 1902, by months, in cars and tons, with the average number of cars shipped each working day during the month. These shipments from the Connellsville district, as reported by the Courier, include not only the coke produced in what is designated in this report as the Connellsville district proper, but also the greater part of the production in the Upper and Lower Connellsville districts. The estimates as shown by the Courier give a total production in 1902 of 14,138,740 short tons. The reports to the Survey for the entire region (including the Upper and Lower Connellsville) show a total of 13,254,331 short tons. In 1901 the production, as reported to the Survey, was 11,921,833 short tons, and as reported by the Courier, 12,609,949. short tons.

Coke.

The following are the statistics of the manufacture of coke in the Connellsville region from 1880 to 1902:

Statistics of the manufacture of coke in the ConneUsvUle region, Pennsylvania, 1880-190X.

Year.

Efitablish

-

mentii.

Built.

al8,467 al8,927 al9,294 020,981 121,586 021,659

Building.

Coal used.

Short ton. 8,367,856 4,018,782 4,628,736 5,855,880 4,829,054 4,683,831 6,805460 6,182,846 7,191,708 8,832,371 9,748,449 7,083,706 9,389,549 7,095,491 7,656,169 12,174,597 8,107,586 10,243,690 12,464,969 14.974,018 14,946,659 15,266,722 15,538,701

Coke produced.

Total value

of coke at

ovens.

Short tons. 2,205,946 2,689,002 8,048,894 8,652,402 3.192,105 3,096,012 4,180,521 4,146,989 4,955,558 5,930,428 6,464,156 4,760,665 6,829,462 4,806,623 5,192,080 8,181,179 5,462,490 6,860,826 8,315,350 10,890,335 10,020,907 10,235,943 10,418,366

93,948,643 4,801,673 '4,473,789 4,049,738 3,607,078 3,776,388 5,701,086 7,437,669 5,884,081 7,974,633 11,537,370 8,908,454 11,598,407 7,141,081 5,405,691 10,122,458 10,018,946 10,662,428 12,626,292 17,075,411 22,883,482 19,172,697 23,785,433

Value of

coke at

ovens

per ton.

Yield of coal in coke.

Percent.

a Includes 60 Semet-Solvay by-product ovens.

The following table, compiled by the Connellsville Courier, of Connellsville, Pa., shows the shipments of coke from the Connellsville region in 1902, by months, in cars and tons, with the average number of cars shipped each working day in the month:

Shipments of coke from the Connellsville region in 1902, by months.

Month.

January . . . February . .

March

April

May

June

July

August

September.

October

November. December .

Total

Cars.

average.

Jigftized by

Minebal Besoubges.

The monthly shipments of coke from this region in the years 1897 to 1902, as reported by the Courier, are given in the following table:

Monthly shipments of coke from the ConnellsviUe region in the years 1897-190£,

Month.

January

February ..

March

April

May

June

July

August

September .

October

November . December. .

Total 6,916,062 8,460,112 10,129,764 10,166,234 12,609,949 14,138,740

The monthly shipments of ConnellsviUe coke in cars to points of distribution during 1901 and 1902, as reported by the Courier, are as follows:

Monthly shipments of coke from the ConnellsviUe region in cars, to points of distribution

Month.

January

February . . .

March

April

May

June

July

August

September..

October

November . . December ..

Total.

January . . . February . .

March

April

May..:

June

July

August

September.

October

November . December .

Total.

Pittsburg.

West

Total.

Dally average.

Ooke.

The total shipments, in cars, for the last fifteen years were as follows:

Total and daxLy average shipments, in carSy 1888-1902,

Year.

DaUy average.

Total cars.

Year.

Daily average.

Total can.

M88

289, m 867,883 441,249 528,208 504,410 681,051 624,198

The following table shows the prices prevailing for Connellsville furnace and foundry coke during the years 1900, 1901, and 1902. The abnormally high prices reported for both grades of coke in 1902 are for coke sold for prompt delivery, the coke sold on contract showing comparatively little change throughout the year:

Month.

Furnace.

Contract price.

Forprompt delivery.

January

February ..

March

April :.

May

June

July

August

September .

October

November . December. .

1.76 to 2.00 1.75 to 2.00 1.76 to 2.00 1.76 to 2.00 1.85 to 2.00 2. 10 to 2.25

92. 50 to 98. 60 2.50 to 8.00 2. 50 to 8.00 2. 60 to 8.00

2.50 to 8.60 3.00 to 4.00 8. 60 to 4.00 4. 00 to 5.Q0 8. 00 to 12. 00 7.00 to 8.00 7. 00 to 8.00

Month.

Foundry.

January . . February .

March

April

May

June

July

August . . . , September, October..., November , December,

98. 00 to 94. 00 3.00 to 4.00 8. 75 to 4.60 3.25 to 4.60 8.00 to 8.50 8.00 to 8.25 2. 75 to 8.00 2.25 to 2.50 2. 25 to 2.60 2.25 to 2.50 2.25 to 2.60

92. 75 to 98. 00 2. 75 to 8.00 2. 75 to 8.00 2. 75 to 8.00 2. 75 to 8.00 2. 75 to 8.00 2. 75 to 8.00 2. 75 to 8.00 4.00 to 4.60 4.50 to 5.00 4.60 to 5.00 4. 50 to 5.00

M B 1902 32

a Contract prices.

uogle

Minsbal Be8Oub0E8.

Oreensburg disi/rict. — This district continues to be of steadily growing importance, the production having increased without interruption since 1894 and shown marked advances during the last four years. The production in 1902 amounted to 441,941 short tons, an increase of 184,156 tons over 1901, and four times the output of 1899. The value increased from $464,692 in 1901 to $1,228,576 in 1902, the average price advancing from $1.80 to $2.78. The number of establishments increased from 6 to 7, and tiie number of completed ovens from 991 to 1,240. There were also 193 new ovens in course of construction at the end of the year.

StoOistics of the manufacture of coke in the Greemhurg dUtrictf Pennsylvaniaj 1S89-190S.

Year.

Estab-

Ovens.

Coal used.

Coke produced.

Total value

of coke at

ovens.

Value of

coke at

ovens,

per ton.

Yield of

lish ments.

Built.

Building.

coal in coke.

Percent,

S1.06

J18

. Irwin distriM. — This district includes the ovens situated near the town of Irwin, Westmoreland County, and also those located in what may be tended the Irwin basin on the Youghioghenj River. Prior to 1901 most of the coke in the district was produced by the Carnegie Steel Company at Larimer and Douglas. The Larimer ovens were not operated in either 1901 or 1902, and the Douglas ovens were also idle in 1901. The production for the district in 1902 shows a large increase over 1901 on account of the idleness of the Douglas ovens in the former year. The production, however, did not bring the district up to the position it held prior to 1899. The value, however, on account of the general advance in prices, was the largest in the history of the district with the exception of 1889. Fifty-nine ovens were abandoned in 1902 reducing the number in the district from 750 to

00Kb.

StaUtUcs of the manufadUTe of coke in the Irwin districif Pennsylvania, 1889-190S.

&tabliflh

-

ments.

Ovens.

Built.

Coal used.

Short tons, 873,918 270,476 323,099 328,198 238,832 176,318 166,124 279,104 207,704 332,368 223,457 98,647 30,699 217,404

Coke produced.

Total valve

of coke at

ovens.

Value of coke at ovens, per ton.

Short toM.

U0,995

Yield of

coal in

coke.

Per cent,

Lower ConndlsviUe district. — As previously stated, this district is the extension to the southwest of the Connellsvillc basin and includes the developments in and around the city of Uniontown. The district has risen rapidly to a position of importance, having in three years become the second producing district in the State. The production in 1902 amounted to 1,899,111 short tons, as against 1,116,379 tons in 1901 and 386,909 tons in 1900, the first year in which any production was reported. The value of the product in 1902 was $4,701,068, as against $1,991,699 the preceding year. That the district will continue to increase in production is shown by the fact that the number of establishments increased from 17 in 1901 to 21 in 1902, and the number of completed ovens from 3,251 to 4,263, and that there were 706 new ovens in the course of construction at the close of last year, as compared with 30 at the close of 1901. This region, which, as stated above, began production in 1900, produced in 1902 more coke than any State outside of Pennslvania with the exception of Alabama and West Virginia.

The record of the district for the three years during which it has been in existence is shown in the following table:

SUUiMics of manufacture of coke in the Lower ConnellsmUe district in 1900, 1901, and 1902,

Establishments.

Ovens.

Cool used.

Total value

Value of ookeat ovens, per ton.

Yield of

Year.

Built.

Building.

,.i;Sro of coke at produced. ovens.

coal in coke.

r92,886 1,991,699 4,701,068

Percent.

Ic

Lebanon Valley district. — A new district has been added to the cokeproducing sections of Pennsylvania and is designated as the Lebanon Valley district, the principal plant being located at Lebanon, in Lebanon County. None of the ovens, however, had been put in blast at the close of 1902, the statistics for which year show that 237 Otto- Hoffman by-product ovens had been completed before the close of 1902, but not put in blast. A plant of 40 Semet-Solvay ovens, which were building at the close of 1902, at Chester, have also been included in this district. Since the Ist of January, 1903, construction work was begun on another plant of 90 Semet-Solvay ovens in this district. This latter plant will probably not be in active operation until some time in 1904.

Pittsburg district — large portion of the coke made in the Pittsburg district is from slack coal obtained from the mines along the slack-water navigation of the Monongahela River, and brought to Pittsburg in barges. Some of the run -of -mine coal is also brought from the fourth pool of the Monongahela River at Pittsburg. The production of 120 Otto-Hoffman ovens, located at Glassport, and of 26 Semet-Solvay ovens, located at Sbaron, in Mercer County, are included in this district. The production of the district increased from 813,478 short tons in 1901 to 953,863 tons in 1902. The value increased from $1,690,614 to $1,924,942. The number of completed ovens in 1902 were 40 less than in 1901. There were 232 new ovens in course of construction at the close of 1902, of which 212 were of the Schniewind type.

The statistics of the manufacture of coke in the Pittsburg district, Pennsylvania, for the years 1880 to 1902, inclusive, are stated in the following table:

Coke. 501

StalMcg of the manufacture of coke in the PUtdmrg district, Pennsylvania, 1880-190iS,

Year.

Bstabments.

d8

elO

A 10

Ovena.

Built.

ftl,288

o 1,100

cl,812

o 1,611

Building.

a 120

Coal used.

Coke

Short Ums. 194,398 178,609 114,956 119,810 97,867 91,101 228,874 366,181 233,571 149,280 154,054 292,357 357,400 371,569 452,845 583,984 882,605 886,948 964,028 862,610 1,266,947 1,488,978

Short tons.

Value of coke at ovens, per ton.

Yield of coal in coke.

a Otto-Hoffman by-product ovens.

Includes 120 Otto-Hoffman ovens.

e Includes 120 Otto-Hoffman and 25'Semet-Solvay ovens.

d Includes one establishment in Mercer County.

Includes two establishments in Mercer County and one in Allegheny Valley district.

/ Includes 212 Schniewind ovens.

g Includes ovens and production in Allegheny Valley district.

Includes two establishments in Mercer County and two in Allegheny Valley district.

ReynoldoiUe- Walston district — This district, in Jefferson and Clearfield counties, includes all of the ovens of the Rochester and Pittsburg Railroad, as well as those of the low-grade division of the Allegheny Valley Railway and those connected with the mines of the New York, Erie and Western Railway. The production in 1902 amounted to 689,890 short tons, valued at $1,422,143, as compared with 589,577 short tons, valued at 11,171,878, in 1901.

Mikebal Besouboes.

The following are the statistics of the manufacture of coke in the Reynoldsville-Walston district for the years 1880 to 1902:

Statistics of the manufacture of coke in the Reynoldsmile- WahUm district PernisylvaniOy

Year.

Bstab-lish

-

ments.

Ovens.

Built.

Building.

Goal used.

Coke produced.

Total value

of coke at

ovens.

Value of coke at ovens,

per ton.

Yield of coal in coke.

1896a. 1897a. 1898a. 1899a.

78S

Short tons.

Short tons.

Percent,

a Includes coal used, coke produced, and its value in New York; also in Massachusetts for 1899.

Upper ConneUlle district, — This district includes that portion of the Connellsville trough or basin which lies north of a point a short distance south of the town of Latrobe, Westmoreland County. The coal of this vicinity differs somewhat from that of the basin proper, so that in addition to its geographic position there is another reason for separating the production from that of the Connellsville district. The production of this district in 1902 amounted to 936,854 short tons, as compared with 569,511 short tons in 1901. The value increased something over 100 per cent, from $1,038,991 to $2,193,332. One new establishment of 50 ovens, making 17 in all, was added to the equipment of the district in 1902, and there were 405 new ovens in course of construction at the end of the year.

The following are the statistics of the manufacture of coke in the Upper Connellsville region for the years 1880 to 1902:

SUxHdics of the mtxnufaciure of coke in the Upper ConneUtviUe diatridf Pennwylvama

Year.

Estabments.

Ovena.

Coaluaed.

Coke produced.

Total value

of coke at

ovens.

Value of coke at ovena,

per ton.

Built.

Building.

Short tons.

Short torn.

Yield of coal in coke.

Percent.

Tennessee.

The coke product of Tennessee is consumed practically in the iron furnaces in the vicinity of Chattanooga and other points in the eastern part of the State. The continued increase in the production of iron and steel in these markets, as in other sections of the country, augmented the demand for coke in 1902, and the production of the State increased nearly 40 per cent, from 404,017 short tons in 1901 to 560,006 tons in 1902, with an advance in value from $962,792 to $1,697,041. The increase in value amounted to $644,269, or about 67 per cent. Two new plants were added to the coke-making equipment of the State in 1902, and one plant, that of the Daisy Coal and Coke Company, was abandoned, making a net gain of one establishment. The number of ovens increased from 2,186 in 1901 to 2,269 in 1902. No by-product retort ovens have been built in this State.

Minbral Besouboes.

The following are the statistics of the manufacture of coke in Tennessee for the years 1880 to 1902:

Statistics of (he manufacture of coke in Tennessee, 1880-1909.

Year.

Ovenfl.

EBtabliflh

-

Built

a 18

H

Coal U8ed.

Coke produced.

Total value

of coke at

ovens.

Value of coke at ovens,

per ton.

m6.607

Yield Of coal in coke.

Short tons. 217,666 241,644 81 3, 537 830,961 348,296 412,638 621,669 655,857 630,099 626,016 600,387 623,177 600,126 449,511 516,802 684,655 600,379 667,996 722,856 779,995 864,789 789,246

Short Urns. 180,609 143,853 187,695 208,691 219,723 218,842 368,139 896,979 385,698 859,710 348,728 684,318 854,096 265,777 292,646 896,790 839,202 868,769 394,546 436,308 475,432 404,017 560,006

Percent

61

a One establishment made coke in pits.

The character of the coal used in the manufacture of coke in Tennessee since 1890 is shown in the following table:

Character of coal used in the manufa/Uure of coke in Tennessee, 1890-190B.

Year.

Run of mine.

Unwashed. Washed.

Slack.

Unwashed.

Washed.

Total.

Ooke.

Utah.

As there is but one establishment in the State of Utah engaged in the manufacture of coke, the statistics of production have been included with those of Colorado. The coals of this State are practically identical in character with those of western Colorado.

Virginia.

The production of coke in Virginia has increased each year, without exception, since 18&3, and exceeded a total of 1,000,000 tons in 1902 for the first time in the history of the State. The total production last year amounted to 1,124,572 short tons, as compared with 907,130 tons in 1901. The value increased more that 50 per cent, from $1,483,- 670 to $2,322,228. One of the most interesting features connected with the industry in this State in 1902 was the fact that at the close of the year there were 1,208 new ovens in course of construction, most of these being in Wise County, on the Clinch River branch of the Norfolk and Western Railroad, where active developments both in coal mining and coke making have been going on for the last two or three years. There are two plants in Virginia, one at Covington and the other at Lowmoor, the coal for which is drawn from the New River district in West Virginia. The coal for the ovens at Pocahontas, in Tazewell County, is obtained from mines which extend across the boundary between Virginia and West Virginia, a considerable portion of the coal coming really from the latter State. The openings of the mines, however, are in Virginia, and it has been customary to credit all the coal product, as well as the coke, to that State. The Wise County coke is the only coke made in Virginia from coal mined exclusively in the State. None of the coal made into coke in Virginia during the last three years has been washed before coking. The total amount of coal consumed in the manufacture of coke in Virginia in 1902 was 1,716,110 tons, of which 1,018,148 tons were unwashed runoff-mine and 697,962 unwashed slack.

ICINERAL BESOtmOEd.

The following are the statistics of the manufacture of coke in Virginia from 1883 to 1902:

StatisLics of the manufacture of coke in Virginiiif 1883-190S.

Year.

Establishments.

Ovens.

Built.

&32

Building.

Coal used.

Short toM.

Coke produced.

Short torn. 25,340

Total value

of coke at

ovens.

Value of coksat ovens, per ton.

'85.998

Yield of coal in coke.

Percent.

a Includes 56 Newton-Chambers by-product ovens.

The character of the coal used in the manufacture of coke in Virginia since 1890 is shown in the following table:

Character of used in the manufacture of coke in Mrffinia, 1890-190,

Year.

Run of mine.

Slufk.

Total.

Unwashed. , Washed,

Unwashed.

Washed.

Coke.

Washington is the only one of the Pacific Coast States producing coal of a quality suitable for the manufacture of coke. The operations are not of special importance, particularly when they are compared with the output of other coke-producing States, but they are of interest as establishing the fact that it is possible to produce a metallurgical coke from the Washington coals. There were 6 establishments in the State, only 3 of which produced coke in 1902, and although the number of completed ovens increased from 148 in 1901 to 231 in 1902, the production decreased from 49,197 short tons to 40,305, with a decrease in value of $239,028 to $199,195. The one establishment which was completed near the close of 1902 did not begin operations until January 12, 1903. The Wilkeson Coal and Coke Company added 50 ovens to its former plant of the same number, but these new ovens were not completed until near the end of the year and did not materially add to the production. All of the coal used in the manufacture of coke in Washington in 1902 was washed run-of-mine, and all the slack, or run-of-mine, used in the last ten years has been washed before coking.

The coke industry in Washington began in 1884, since which time the statistical record has been as follows:

Statistics of the manufacture of coke in Washington, 1884-190S.

Year.

18M..

Establishments.

Ovens.

Built.

Building.

Coal used.

Coal produced.

Short UmB.

Short tons.

3,K41

Total value

of coke at

ovens.

Si, 900

Value of coke at ovens, per ton.

S4.75

Yield of coal in coke.

Per cenL

West Virginia.

West Virginia, which for six years prior to 1902 held second place in the rank of coke producers, fell back to third place in 1902, being replaced by Alabama. The production of coke in West Virginia in

Mutebal Besouboes.

1902 amounted to 2,516,505 short tons, as compared with 2,283,700 tons in 1901, a gain of 232,805 tons, or 10.2 per cent. The coke production in West Virginia would probably have been considerably larger and the State would have retained its position as second among the coke-producing States had it not been for the urgent demand for coal at the seaboard, such demand having been caused by the cutting oflf of the markets usually supplied by anthracite because of the prolonged strike in the anthracite region of Pennsylvania. The scarcity of fuel in New England and at points along the Atlantic seacoast was so pronounced that it was more profitable for the West Virginia operators to supply this market with coal than it was to turn their product into coke, notwithstanding the higher prices obtained for the latter fuel during the year. If normal conditions obtain throughout 1903, we may expect to see West Virginia resume its accustomed place as next to Pennsylvania among the coke producers. The statistics for 1902 show that the number of establishments in the State increased from 112 to 120 and the number of completed ovens from 11,544 to 12,656, and that 2,341 new ovens were in course of construction.

The following table exhibits the statistics of coke production in West Virginia since 1880:

Statistics of the manufacture of coke in West Virffiniay 1880-190S.

Year.

Establishments.

fa

Ovens.

Coal used.

Coke produced.

Total value

of coke at

ovens.

Value of coke at ovens, per ton.

Built.

Building.

ShoH tons.

Short tons.

a8,669

a8,846

&619

cl0,249

Yield of coal in coke.

Per cenL

eo

a Includes 60 Semet-Solvay ovens at Wheeling. OOolp

b Includes 60 Semet-Solvay ovens building at WhedMg.®° o Includes 120 Semet-Solvay ovens at Wheeling.

Coke.

As shown in the following table, by far the larger part (69 per cent in 1902) of the coal used in coke making in West Virginia is slack, and of this slack coal 89 per cent is unwashed:

Character of coal used in the manufacture of coke in Wegt Virginia since 1890.

Year.

Run of mine.

Slack.

Total.

Unwashed.

Washed.

Unwashed.

Washed.

u

Production By Districts.

It has been customary in the preceding reports of this series to consider the coke production by districts, into which the State has been divided. These districts are known, respectively, as the Upper Monongahela, the Upper Potomac, the Kanawha, the New River, and the Flat Top. The first two are in the northern part of the State, and are named from the fact that they are drained by the headwaters of the Monongahela and Potomac rivers. The other three districts are in the southern portion of the State. The New River and Kanawha districts are practically one, separation being made at a point where the New and Gauley rivers combine to form the Kanawha. The Flat Top region is also drained by the upper portion of the New River, and includes the ovens in West Virginia which belong to the Pocahontas coal field. The Flat Top district is by far the most important, and bears the same relation to the production in West Virginia that the Connellsville district bears to that of Pennsylvania. The output from this district averages something over 50 per cent of the total coke product of the State, although its proportion in 1902 was somewhat less than this figure. Some new ovens constructed in Tygarts Valley in 1902 have been added to the Upper Potomac district. The production of coke in 1902 decreased in the Flat Top, Ejinawha, and New River regions, and increased in the Upper Monongahela and the Upper Potomac (including Tygarts Valley) districts. j

Ic

Minebal Besouboes.

In the following tables are exhibited the statistics of coke production in West Virginia, by districts, during the last two years:

Production of coke in West Virgima in 1901 j by districts.

Estab-lish

-

merits.

Ovens.

Coal used.

Coke produced.

Total value

of coke at

ovens.

Value of coke at ovens, per ton.

Yield of

District.

Built.

Building.

coal In coke.

Flat Top

a 42

M,685

Short tons.

Short tons.

Per cenL

New River

Upper Monougahela

Upper Potomac and

TygartB Valley

Total

a Includes 1 establishment in Tug River district.

Includes 120 Semet-Solvay ovens.

Production of coke in West Virginia in 1902 by districts.

Establishments.

Ovens.

Coal used.

Coke produced.

Total value of coke at ovens.

Value of coke at ovens, per ton.

Yield of

District.

Built.

Build' ing.

coal in coke.

Flat Top

a44

M,e98

Short Urns.

Short tons.

Si. 974

Per cent

New River

Upper Monongahela

Upper Potomac and

Total

a Includes 2 establishments in Tug River district.

b Includes 120 Semet-Solvay ovens.

PocaJwutoH-FUit Top district, — Until the close of 1902 this district was, next to the Connellsville district of Pennsylvania, the most important coke-producing region of the United States, but the largely increased production of the Lower Connellsville district in 1902 placed that district in advance of West Virginia's chief producer. Lake the coal of the Connellsville region, that of the Flat Top district produces a coke which makes an ideal fuel for blast-furnace purposes. Chemically it is superior to the Connellsville, as it is low in mineral contents or ash, and it is regarded by some ironmasters as equal in physical properties to the Connellsville coke. The production of the district has decreased slightly in each of the last two years — from 1,208,838 short tons in 1900 to 1,160,856 tons in 1901 and to 1,109,203 tons in 1902.

The statistics of production of this district since its beginning, in 1886, are as follows; ..,,.. .r>

&#x27; . Vic

00Kb.

StatisHca of the manufacture of coke in the Flat Top dxKtrict of West VirgvMay 1386-190$.

Year.

Establishments.

a38 a 42

Ovens.

Built.

Building.

Coal used.

Coke produced.

Total ylt.eYvTa'

Short tons.

Short tons.

Yield of coal in coke.

Percent.

a Includes 1 establishment in the Tug River district. Includes 2 establishments in the Tug River district.

Kanomha district. — The E!aDawha district includes all the ovens along the banks of the Kanawha River from its formation by the junction of the New and Gauley rivers to the western limits of the coal fields. The production in this district has decreased each year since 1899 and amounted in 1902 to 130,642 short tons, with a value of $364,759.

The statistics of the manufacture of coke in the Kanawha district from 1880 to 1902 are as follows:

SiAJJtidvcs of the manufacture of coke in the Kanawha district. West Virginia, 1880-190$.

Year.

Establishments.

Ovens.

Built.

'548

Building.

Coal

Short .

Coke produced.

Total value

of coke at

ovens.

Value of coke.at ovens,

per ton.

Short ions.

Yield of coal in coke.

Per cenl,

Mineral Resources.

Statistics of the manufacture of coke in the Kanawha district, West Virginia lS80-190g —

Continued.

Establishments.

Ovens.

Coal used.

Coke produced.

Total value

of coke at

ovens.

Value of coke at ovens,

per ton.

Yield of

Year.

Built.

Building.

coal in coke.

Short tons. 267,520 259,715 199,312 225,240 828,506 291,277 281,787 232,145

Iew River district. — This district includes the ovens along the Chesapeake and Ohio Railroad and the New River from Quinnimont on the east to Nuttallburg on the west. The coal in this district is similar in many respects to that of the Flat Top region, and the coke product is much praised as a blast-furnace fuel. The production in 1902 was 317,086 short tons, as compared with 399,373 short tons in 1901, the decrease being due, as previously stated, to the increased demand for coal at the Atlantic seaboard.

The statistics of the manufacture of coke in the New River district from 1880 to 1902 are as follows: Statistics of the inanufacture of coke in the New River district West Virginia, 1880-1902.

Year.

Estab-

0v<

jns.

Coal used.

Coke produced.

Total value

of coke at

ovens.

Value of coke at ovens,

per ton.

Yield of

lishments.

Built.

Building.

coal In coke.

Short tons.

Percent.

Jigitized t

Ooke.

Upper Monongahda district. — The name of this district is derived from the fact that it is drained by the headwaters of the Monongahela Kiver. The ovens lie along the Baltimore and Ohio Railroad in the counties of Taylor, Harrison, and Marion. It embraces the Clarksburg and Fairmont mining regions, which are the most important of the State. Greater activity was shown in coke making in this region in 1902 than in any other section of the State. The production reached a total of 647,497 short tons, as compared with 317,470 tons in 1901. The value increased from $657,232 in the former year to $1,617,389 in 1902. The production of 120 Semet-Solvay ovens located at Wheeling has been included with this district. Of the 31 establishments in the district, 6, with a total of 232 ovens, were idle throughout the year, and 3 other new concerns had not reached the productive stage before the 1st of January, 1903.

The statistics of coke production in the upper Monongahela district since 1880 are shown in the following table:

Statislics of the manufacture of coke in the upper Monongahela district West Jlrginiaj

Year.

Establishments.

Ovens.

Coal used.

Coke produced.

Total value

of coke at

ovens.

Value of coke at ovens,

per ton.

Yield of

Built.

Building.

coal in coke.

tons.

Short ton*.

U

a 1,449

al.468

b60

el,663

cl,685

cl,e98

a Includes 60 Semet-Solvay ovens at Wheeling.

b All Semet-Solvay ovens at Wheeling.

0 Includes 120 Semet-Solvay ovens at Wheeling.

M R 1902 33

Ic

Minebal Besouboes.

Upper Potomac district, — The ovens located along the line of the West Virginia Central and Pittsburg Railroad, in the region drained by the upper waters of the Potomac River, are considered in the upper Potomac district. The statistics for 1902 include also the operations of some new ovens recently built in Tygarts Valley, in the near vicinity. The production of this district increased from 241,265 short tons in 1901 to 412,077 tons in 1902. The statistics of the manufacture of coke in the upper Potomac district (including that of Tygarts Valley in 1902) from 1887 to 1902 are shown in the following table:

SUUisfin of the manufacture of coke in the upper Potomac and Tijgarts Valley district, of

Wed Virffinia, 1887-1902.

Year.

Establishments.

Ovens.

Built.

S95

Building.

Coal used.

Short tont. 8,666 9,176 26,106 94,983 111,014 114,045 128,492 66,698 183, 187 270,276 812,984 379,227 606,793 472,168 398,706 627,003

Coke produced.

Short tvM. 2,211 6,885 17,946 61,971 76,599 78,691 84,607 43,646 110,763 164,093 190,401 230,160 306,845 286,934 241,266

Total value

of coke at

ovens.

Value of coke at ovens per ton.

l.SO

Yield of coal in coke.

Per cent,

Other States.

In the following table are presented the statistics of production in 1900, 1901, and 1902 of those States in which there are but one or two establishments.

Of the several States included in this statement, three of them — Michigan, New York, and Wisconsin — produced coke made from coal mined in other States, while one — Massachusetts — obtains its coal supply from Nova Scotia. All of the ovens in Massachusetts, New York, and Michigan are by-product retort ovens. The statistics of production for Illinois, Wisconsin, and Wyoming for previous years may be found by reference to preceding volumes of Mineral Resources.

Coke.

StaiiMics of coke production in 1900, 1901, and 190fS in States having only one or Uvo

establishments.

State.

Item.

Indiana

Massachusetts Micbigan.t...

New York

Wisconsin

Wyoming —

Establishments

Ovens built

O vens b.nilcling

Coke produced short tons. .

Value of coke at ovens

Value of coke at ovens per ton. .

Coal used in manufacture of coke. . .short tons. .

Value of coal used

Value of coal per short ton . .

Yield of coal in coke per cent . .

tl,

'2504

hdez

S2.849

a Includes 80 SemetSolTay and 400 Otto-Hoffman ovens.

b Includes 60 Semet-Solvay and 400 Otto-Hoffman ovens.

c Includes 90 Semet-Solvay, 400 Otto-Hofllnan, and 16 Schnfcwind ovens.

d Includes 30 Semet-Solvay and 564 Otto-Hoflman ovens.

e Includes 80 Semet-Solvay, 664 Otto-Hoffman, and 15 Schniewind ovens.

/Includes 70 Semet-Solvay and 564 Otto-Hoffman ovens.

Gas, Coke, Tar, Md Ammonia.&quot;

By Edwakd W. Parkek.

Introduction.

The development of the use of by-product retort ovens for the manufacture of coke in the United States has created a demand for information as to the total quantity of coal consumed in this country, not only in the manufacture of coke as a primary product, but in the manufacture of gas with coke as a secondary product, and as to the quantity and value of the by-products of tar and ammonia produced at gas works and at by-product recovery coking plants.

In order to comply with this demand, the Geological Survey, in making its annual canvass of the coal-mining and coke-making industries for 1902, has extended its inquiries in order to cover all plants producing gas and coke from coal with the recovery of the tar and anunonia. The completeness of the returns from which the accompanying tables have been compiled is exceedingly gratifying. A somewhat similar canvass was made for this office in 1898 by Dr. William B. Phillips, at which time returns were received from 433 companies manufacturing gas from coal. The statistics for 1902 include reports from 533 companies, including those operating retort-oven coking plants.

The report for 1898 included also the amount of water gas made and sold in that year, and also gas from oil, rosin, wood, etc. No attempt has been made for the present report to secure any reports from gasproducing plants other than those carbonizing coal for that purpose. In a few instances oil is used with the coal and no separation could be made. This production is included in the report for 1902.

In 1898 the 433 companies from which returns were received

a The writer desires to express his acknowledgmeiit of the services rendered in the preparation of this report by Miss Belle Hill, of Pittsbnrg, Pa., who has compiled the accompanying tables from the reports received from the producers.

repoi-teda total of 2,0425698 short tons of bituminous coal carbonized, producing 19,469,464,957 cubic feet of gaa. Of this amount 18,431,201,414 cubic feet were sold for illuminating and heating purposes, leaving 1,038,263,543 cubic feet unaccounted for. The gas "unaccounted for" is probably lost through leakage, fire, or other accident. These figures for 1898 do not include the production from 520 by-product coke ovens in which 402,297 tons of coal were carbonized and which yielded 294,445 short tons of coke. No statement as to the actual amount of gas, tar, and ammonia produced at these works was obtained for that year, although it is estimated on a basis of 10 gallons of tar and 20 pounds of sulphate of anmionia to the ton of coal carbonized that the possible production was about 4,023,000 gallons of tar and 7,152,600 pounds of sulphate.

In 1902 the returns from 533 companies, including the operations of 1,663 by-product coke ovens, show that 5,015,511 tons of coal were carbonized, which yielded 30,764,625,332 cubic feet of gas. Of this product 29,079,073,555 cubic feet were sold, leaving 1,685,551,777 cubic feet lost or unaccounted for. About 2,000,000 tons of the total coal carbonized was used in by-product ovens.

Including the estimated output of tar and sulphate of ammonia from retoi*t-oven coke plants in 1898, the total production in that year was (reducing ammonia liquor reported to its equivalent in sulphate): Sulphate of ammonia, 31,102,296 pounds; tar, 28,407,798 gallons.

In 1902 the production of ammonia, reduced to its equivalent in sulphate, was 68,248,686 pounds, and the production of tar 53,171,733 gallons.

The total production of coke in 1898 from gas works and retort-oven plants was 1,510,724 short tons, of which 294,445 short tons was the output of by-product coke ovens. In 1902 the total output of coke from these plants was 3,377,763 shoili tons, of which 1,403,588 short tons were produced in by-product coke ovens, leaving 1,974,175 tons as the output from gas works in 1902, against 1,216,279 tons in 1898.

The aggregate value of all the products obtained from the distillation of coal in gas works or retort ovens in 1902 was $43,869,440. About two-thirds of this amount, or $29,342,881, was represented by the value of the gas produced. The value of the coke produced was $11,267,608, while the tar was worth, at the works, $1,873,966. Most of the ammonia produced was sold in the form of ammoniacal liquor, which varied widely in the strength of the solution. This strength of solution ranged from 1.72 ounces NHj per gallon to 35.83 ounces NH, per gallon. The total quantity of ammoniacal liquor sold was 49,490,609 gallons, containing 14,683,374 pounds NHj, and was worth at the works $1,065,300. In addition to this there was an actual production of 11,276,502 pounds of sulphate, which sold for $319,685.

Gas, Coke, Tar, And Ammonia. 519

Production Of Gas.

The following table shows the total quantity of gas niade from coal by the 633 companies distributed over 44 States and Territories. It will be observed that prices for artificial gas are low in States where natural gas is used largely in the principal cities, as in Illinois, Indiana, Kentucky, Ohio, Pennsylvania, West Virginia, and also in Massachusetts, where a large portion of the gas made is a by-product from coke soaking in retort ovens.

Hxnebal Be80Ub0Ss.

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iisig iisilsiSiii

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Minebal Besoubcbs.

Of the total amount of gas produced in the United States in 1902, 1,685,551,777 cubic feet, or 5.48 per cent, were lost by leakage or accident. The marketed product amounted to 29,079,073,555 cubic feet, of which 23,401,318,526 cubic feet, or 80.45 per cent, was sold for illuminating purposes, and 5,677,755,029, or 19.55 per cent, for fuel. As a usual thing the gas sold for illuminating purposes brought higher prices than the fuel gas, but there were a few instances where fuel gas was sold at high enough figures to make the average price for this gas in the State higher than illuminating gas. The price of illuminating gas varied from 65. 2 cents per 1,000 cubic feet in Massachusetts to J2.13 in Montana, Nevada, and New Mexico. Fuel gas ranged from 29.2 cents in West Virginia to $1.98 in Oregon. The average prices of fuel and illuminating gas in 1902 for the country as a whole show a difference of only 1.6 cents per 1,000 cubic feet, the former being 99.6 cents and the latter $1,012. There were, however, very decided differences in the prices in some of the individual States — West Virginia, for instance, having an average of 84.6 cents for illuminating gas and 29.2 cents for fuel gas.

The following table shows the total quantity of gas produced in each State, less the amount wasted or lost, and the amount and percentage of illuminating and fuel gas sold:

Quantity ofiUuminating and fuel gas sold in 190fSy by States,

State.

Total sales.

Quantity.

Percentage.

Fael.

Quantity.

Percentare.

Alabama

Arkansas

California

Colorado

Connecticut

Delaware

Georgia i

Illinois I

Indiana

Iowa '

Kansas '

Kentucky

Louisiana and Missiaslppi

Maine

Maryland and District of Columbia

Maasachusetts

Michigan

Minnesota and Nebraska

Missouri

Montana, New Mexico, and Nevada

New Hampshire and Vennont . . .

New Jersey

Cubicfeet. 114,774,600

Cubicfeet.

Gas, Ooke, Tab, And Ammonia. 523

QuanHiy of iUuminating andfud gas sold in 190, by States — Continued.

State.

New York

North Carolina ,

South Carolina

North Dakota, Utah, and Wyoming

Ohio

Oregon

Pennsylvania

Rhode Ifdand

Tennessee ,

Texas ,

Virginia

Washington

West Virginia

Wisconsin

Total

Total sales.

lUuminat Quantity.

ing.

Percentage.

Fuel.

Quantity.

Cubic/eet.

Cuiric/eet.

Cubicfeet.

In the following table the States are arranged according to rank in the amount of gas produced from coal in 1902. New York stands first, with a production of 5,15,539,000 cubic feet; Massachusetts second, with 4,284,388,000 cubic feet; Ohio third, with 4,278,015,000 cubic feet, and Pennsylvania fourth, with 2,296,311,000 cubic feet. In 1898 these four States also stood at the head of the list, but Massachusetts in that year was fourth in rank, with Pennsylvania second, and Ohio third. The construction of the plant of 400 Otto-Hoffman ovens at Everett, near Boston, by the New England Coke and Gas Company, which were completed in 1899, is responsible for an increase in the production of that State of 160 per cent, and places it next to New York m producing rank, notwithstanding the fact that there was one less company making gas in 1902 than in 1898. The following table also shows the quantity and percentage of the gas sold in each State, and the quantity and percentage of the gas wasted or unaccounted for in each State.

lONEBAL BESOUBOES.

Bank of Stales in gas prodiLcHon and the quantity sold and unaccounted for in 1902, by

States,

Rank:

State.

New York

Massachusetts

Ohio

Pennsylvania

Missouri

Michigan

Wisconsin

New Jersey

Indiana

Connecticut

Kentucky

Minnesota and Nebraska

Tennessee

Maryland and District of Columbia

Rhode Island

Colorado

Georgia

Virginia

Iowa

California

Alabama

Washington

Kansas

Maine

New Hampshire and Vermont.

South Carolina

West Virginia

Texas

Delaware

Arkansas

Oregon

North Dakota, Utah, and Wyoming ,

Montana, New Mexico,-and Ne< vada ,

Louisiana and Mississippi

North Carolina

Total

Total production.

Cubic/eet.

Gas sold.

Quantity.

Cubie/eet.

Per cent.

Gas unaccounted for.

Quantity.

CSMcfeet.

Per cent.

Production Of Coke.

The total quantity of coke produced at gas works and in retort or by-product recovery ovens in 1902 was 3,377,763 short tons, of which 1,974,176 tons were made in gas works as a by-product and 1,403,588 tons were produced in retort ovens. In 1898 the production of coke from such plants amounted to 1,510,724 short tons, of which 1,216,279 tons were produced in gas works and 294,445 tons from retort ovens.

The total quantity of coal carbdnized or coked at the gas works

Gas, Ooke, Tab, And Ammonia.

and by-product coke works of the United States in 1902 amounted to 5,015,611 short tons, of which 1,935,348 tons were coked at the by-product works, leaving 3,080,163 tons as the quantity carbonized at the gas works. In 1898 the total amount of coal carbonized was 2,444,995 short tons, of which 2,042,698 tons were coked in gas works and 402,297 tons in by-product ovens.

Many coal-gas companies are engaged in the electric-light business, and coke produced at the gas works, as well as considerable quantities of tar, is used for firing in the electric-light plants. Other coal-gas producers are also producers of water gas, and the coke from the coal benches is used for firing the water-gas plant. Some coke is also used in the carbonization of coal at some of the coal-gas works. It will be noted, therefore, that not all the coke produced at the gas works in the United States is sold, as a large amount of it is consumed at the works where it is produced. In this report the total production is given as nearly as possible, placing upon the quantity consumed the same value as that received for the quantity sold.

The following table gives the production of coke at gas works and in by-product coke ovens in 1902 by States, arranged according to their producing importance:

Rank of States in production of coke in gas works and by-product ovens.

Rank.

state.

New York

Ohio

Alabama

West Virginia

Michigan

Missouri

niinols

Wisconsin

New Jersey

Indiana

Connecticut

Kentucky

Minnesota and Nebraska

Maryland and District of Colombia

Virginia

Tennessee

Rhode Island

Colorado

Georgia

Iowa

Washington

California

Kansas

New Hampshlro and Vermont

Maine

Quantity.

Yield per ton of coal.

Value per ton.

Short Urns.

Percent

S3. 49

M.7

Total value.

Mineral Bes0Ub0E3.

Bank of States %n production of coke in gas works and by-product ovens — Continaed.

Rank.

State.

Quantity.

Yield per ton of ooaL

Value per ton.

Total value.

South Carolina

Texas

Delaware

Oregon

A rkansas

Louisiana and Miasiasippl

North Dakota, Utah, and Wyoming. . Montana, New Mexico, and Nevada . North Carolina

Short UfM, 9,198 9,162 9,046 6,974 6,5R2 4,125 3,680 3,430 2,390

Peremt.

Total 8,877,768

PRODUCTION OF COAIi TAR.

The total production of tar from gas works and by-product ovens in 1902 amounted to 63,171,733 gallons, valued at $1,873,966, or 3.524 cents per gallon. In 1898 the production from gas works alone was 24,384,798 gallons, worth $902,400, or 3.7 cents per gallon. The price in 1902 varied from 2.7 cents in Alabama to 10 cents in Oregon. The lowest price reported in 1898 was 2.23 cents in Indiana, and the highest price was 10.17 cents in Montana and New Mexico. From this it will be seen that, on the whole, the value of the tar produced has not changed materially since 1898.

The largest production of tar in 1902 was in Massachusetts, with New York second, Ohio third, and Pennsylvania fourth. In 1898 New York held first place, with Pennsylvania, Ohio, and Massachusetts following in the order named.

The following table gives the production of coal tar in 1902, arranged in the order of producing importance:

Bank of States in coal-tar production.

Bank.

State.

Quantity.

Yield per ton of coal.

Value

per gallon.

Total value.

Mawachunetts New York

Ohio

Pennsylvania

Alabama

Michigan

nilnoifl

Mew Jersey...

Indiana

Kentucky..!. Connecticut . . Tennessee

Jiqiiizec lib

Oa8, Ooke, Tab, And Ammonia.

Rank of States in coal-tar production — Continued.

Rank.

Stote.

Minnesota and Nebnaka

Colorado

Maryland and District of Columbia .

Rhode Island

Virginia

Iowa

Georgia

Quantity.

California... Washington.

Delaware

Texas

New Hampshire and Vermont

Maine

South Carolina

Arkansas

Oregon

North Dakota, Utah, and Wyoming. .

Louisiana and Missiasippi

Montana, New Mexico, and Nevada. North Carolina

Yield per ton of ooal.

Total 68,171,788 '

Value

per gallon.

Cent*.

Total value.

For convenience in making a comparative analysis, the following table of coal-tar production in 1898 is reprinted in this report, the States being arranged in order of production:

Rank of Stales in coal-tar production in 1898,

Rank.

State.

New York Pennsylvania

Ohio

Massachusetts

Wisconsin

Michigan

Illinois

Rhode Island.

Indiana

Kentucky.

Connecticut . . Tennessee — New Jersey... California

Missouri

Georgia

West Virginia

Iowa

other States..

Total...

Yield

Value

Total value.

Quantity. QaOtyM.

per ton of coal.

gallon.

Cents.

um

In explanation of this table for 1898 it must be said that in determining the total production of coal tar all the returns were added together, but in determining the yield of tar per ton of coal due regard was given to the fact that some companies reported coal carbonized but did not report the amount of tar made from this coal. This amount of coal was therefore deducted from the total amount carbonized before an estimate was made of the yield of tar per ton of coal. The actual amount of coal carbonized in making the 24,884,798 gallons of tar was 1,942,963 tons, inasmuch as there was no tar returned from 99,735 tons of coal carbonized. The actual yield of tar per ton of coal, based on the returns made, was 12.55 gallons, obtained by dividing the number of tons of coal used in making tar into the total number of gallons of tar reported.

The census report for 1900 states that there were 14 establishments devoted to the manufacture of coal-tar products. The total value of the manufactured products from these 14 establishments was $1,322,094. In addition to these there were 8 establishments in which coal tar was used as a raw material, but in which the manufacture of coal-tar products was of secondary importance. The value of the coal-tar products in these 8 establishments was $99,626. Of these 22 establishments, 6 were located in Pennsylvania, 3 in Missouri, 3 in New York, and the other 10 were distributed among Louisiana, Tennessee, Ohio, California, Minnesota, Massachusetts, and New Jersey.

In 1890, according to the Eleventh U. S. Census, the value of the coal-tar products manufactured in the United States amounted to $687,591.

Production Of Ammonia.

Of the 533 companies from which reports were received in 1902, there were only 106 which reported the recovery of ammonia either in the form of ammoniacal liquor or as sulphate. These 106 companies reported a total production of 49,490,609 gallons of ammonia liquor, which sold for $1,065,300, and 11,276,502 pounds of sulphate, which sold for $319,685, a total value for the anmionia sold of $1,384,985. The total quantity of coal carbonized, or coked, at the works operated by these 106 companies in 1902 was 4,077,478 short tons. The companies which produced ammonia liquor used 3,436,312 tons of coal, and 641,166 tons were carbonized by the companies selling their ammonia as sulphate. From this it appears that the average yield per short ton of coal carbonized was 14.4 gallons of liquor and 17.6 pounds of sulphate.

The returns showed that ammonia liquor is sold in several ways. Some companies reported the production in liquor ounces, selling at a

aMunroe, Charles E., and Chataid, Thomas M., Report on chemicals: Twelfth Geiunu U. S., 1900 ▼ol. 10, Manufactures, pt. 4.

Ic

Gas, Coke, Tab, And Ammonia.

certain price per 100 liquor ounces of a specified strength; others reported production in gallons, sales being made at a certain price per pound for pure ammonia (NH,); others reported the production in gallons of ammonia liquor at so much per gallon, giving the strength of liquor.

The strength of liquor was reported by some producers in ounces, by others in degrees Twaddell, and by others in percentage of anhydrous ammonia (NH,). The figures have been reduced to a common basis and the strength of liquor is given in the following table in ounces, which is the most common form. The returns are grouped in this table according to the strength of anunonia liquor produced, and not by States. This has been done to avoid the disclosure of the operations of any individual producers.

In the report on this subject prepared by Dr. William B. Phillips and covering the year 1898, the total amount of ammonia liquor sold by 70 establishments from which returns were received was reported at 25,749,792 gallons, which sold for J284,148. This production, reduced to its equivalent in sulphate of ammonia, is estimated to have been 23,949,696 pounds (of sulphate). The sulphate equivalent of the 49,490,609 gallons of liquor sold in 1902 was 56,972,184 pounds, which added to the 11,276,502 pounds of sulphate separately reported would be equal to a total production of 68,248,686 pounds of sulphate last year.

The report of Doctor Phillips above referred to contains a description of the methods of determining the amount of ammonia in gas liquor and a table of analyses of gas liquors taken from different parts of the works in which the liquor was being produced.

ProductUm and value of ammordacal liquor at gas and hy-produd coke works of UniUd

States in 190g.

Coal used.

Quantity of cunmonia

liquor

made and

sold.

Strength of liquor.

In ounces.

Equivalent to anhydrous ammonia (NH,).

Equivalent to sul-

Value of liquor as reported.

Ounces gallon.

Total in pounds.

Ounces gallon.

Total in pounds.

Total.

Per gallon.

Short Urns.

Oalkms. .

Oenis.

M R 34

le

Hikebal Besoubces.

Production and value of ammoniaoal liquor ai gas and by-product coke works of United

States in 190S — Continued.

Goal used.

Quantity of ammonia

maoeand

sold.

Strength of liquor.

In ounces.

Equivalent to an-

Equivalent to sulphate of ammonia.

Value of liquor as reported.

Ounces giulon.

Total in pounds.

Ounces gallon.

Total in pounds.

Total.

Per gallon.

Short Urns.

S.18

8.U8

U.780

Is. 600

U.280

a 641, 166

'64,077,478

a Actual production of sulphate of ammonia.

Gas, Coke, Tab, And Ammonia. 531

Aggregate Production And Value.

In the following table are shown in condensed form the quantity and value of the gas and by-products obtained from gas works and retort coke oven plants in the United States in 1902, by States.

The aggregate value of these products in 1902 was W:8, 869,440. The aggregate value of the products from gas works in 1898 was $26,300,394.

ProdiictUm of goB and by-products in United States in 190, by States.

State.

Alabama and GeoiIa

Arkansas

California and Colorado

Connecticut and Rhode Island

Delaware and New Jersey

Illinois

Indiana

Iowa and Wisconsin

Kansas

Kentucky

Louisiana and Mississippi

Maine, New Hampshire, and Vermont

Maryland and District of Columbia.

Massachusetts

Michigan

Minnesota and Nebraska

Missouri

Montana, New Mexico, and Nevada .

New York

North Carolina

South Carolina J

North Dakota, Utah, and Wyoming,

Ohio

Oregon and Washington

Pennsylvania

Tennessee

Virginia and West Virginia

Gas produced and used for illuminating and fuel purposes.

Total , 29,079,078,565

By-products.

Tar.

Ammonia liquor.

Coke.

Oas unaccounted for.

Cubic/eet. 60,631,800 2,8U,600 60.708,948 27,829,100 84,213,602 70,769,910 18,688,400 88,418,431 16,891,800 87,288,789

Minebal Besouboes.

Value of gas and by-irroducts produced in the United Stales in 1903 j by .

States.

Total value

of illumlfuel

gas.

Alabama and Geoigla

Arkansas

California and Ciolorado

Connecticut and Rhode Island .

Delaware and New Jersey

Illinois

Indiana

Iowa and Wisconsin

Kansas

Kentucky

Louisiana and Miasiasippi

Maine, New Hampshire, and

Vermont

Maryland and District of

Columbia

Massachusetts

Michigan

Minnesota and Nebraska

Missouri

Montana, New Mexico, and

Nevada

New York

North Carolina

South Carolina

North Dakota, Utah, and

Wyoming

Ohio

Oregon and Washington

Pennsylvania

Tennessee

Texas ,

VirginU and West Virginia . . ,

Value of by-products.

Total 29,3I2,8R1

Tar.

Ammonia liquor ana sulphate of

ammonia.

Coke.

4S9,274

111,867 2,009,889 620,669 181,568 i 394,440 I

Total value of all Total. ' products.

1,3R4,985 &#x27; 11,267,608

Gas, Coke, Tab, And Ammonia. Imports Op Coal-Tar Products.

Comparatively little progress in the manufacture of chemical products from coal tar has been made in this .country. Although we are producing over 60,000,000 gallons of coal tar annually, the principal uses made thereof are in the manufacture of roofing paper, the creosoting of lumber, and for the preparation of street-paving material, while at the same time wo are importing millions of dollars' worth of chemicals obtained from coal tar as a i*aw material. The coal tar produced in this country in 1902 was worth at first hand $1,873,966. In the fiscal year ended June 30, 1902, the coal-tar products imported into the United States were worth, at points of shipment, $7,494,340. The duty paid on these imports amounted to $1,694,799, making the total cost, exclusive of freight, other expenses, and jobbers' profits, $9,089,139. In the fiscal year ended June 30, 1903, the value of these imports was $7,690,885, duty $1,692,445, total $9,383,330. A conservative estimate would place the total value of these products in the wholesale markets of this country at $12,000,000 in both 1902 and

The following table shows the value of the coal-tar products imported into the United States and the duty paid thereon in each fiscal year since 1896, inclusive:

CboZ-tor products imported into the United States during the fiscal years 1896-190$.

SaUcylic. FliKjal year.

Alhsarine and colors or dyes, natural and artificial.

Aniline salts.

Coal-tar colon* or

dyes, not specially

proYided for.

Value.

Duty.

Value.

Duty.

Value.

Duty.

Value.

Duty.

Free. Free. $6,794 18,686 24,069 22,227 21,913 7,827

Free. Free. Free. Free. Free. Free. Free. Free.

Free. Free. Free. Free. Free. Free. Free. Free.

3,?A288 3,900,099 4,792,103 4,034,171 4,911,668 6,252,611

Pineal year.

Coal-tar, all preparations, not colors or dyes.

Coal-tar products,

not medicinal, not dyes, known as benzol, toluol, etc.

Total.

Value.

Duty.

Value.

Duty.

Value.

Duty.

Free. Free.

Free. 6.863.152

Free. Free. Free.

Tf

Petroleum.&quot;

By F. H. Oliphant.

[The barrel used in thte report, unle88 otherwise specified, is the United States standard barrel, containing 42 Winchester gallons.]

Important Features Of The Year.

The following are the most conspicuous features in the production, sale, and export of crude petroleum and its products in the United States for the year 1902:

(1) The production of crude petroleum was greater than that of any previous year.

(2) The great increase was due principally to the development of an inferior grade of petroleum in Texas, California, and Louisiana.

(3) There was a slight decrease in the production of the Appalachian field and a slight increase in the Lima-Indiana field, caused by the increased production in the State of Indiana.

(4) The general average price paid for the crude produced was less than in any year since 1898, although the average price for the better grades of petroleum produced in the Appalachian and the Lima- Indiana fields was 4 cents greater in 1902 than in 1901.

(5) Stocks held in the Appalachian and Lima-Indiana fields showed a considerable decrease, principally in the Appalachian field.

(6) The amount of refined and crude petroleum exported in 1902 was slightly less than that of 1901. There was an increase in the amount of crude petroleum and residuum exported, a decrease in illuminating petroleum, and an increase in lubricating petroleum. While the quantity of exports of all grades decreased only 1.37 per cen!:, the value decreased 5.62 per cent. The home consumption has been increasing more rapidly in the last three years than it did in former years.

a Credit should be given ior much of the statistical information as to the United States in this report to the Oil City Derrick, and to Miss Belle Hill for the careful compilation of most of the tahles. Other special acknowledgments are made in the body of the report.

Ic

(7) No new pools were discovered in 1902. Indications point to the existence of a new source of petroleum supply in Alaska.

Increase In Production Of United States.

The total production of crude petroleum in the United States 'n 1902 was 88,766,916 barrels, being larger than in any previous year. It was larger by 19,377,722 barrels, or 27.92 per cent, than the production of 1901. As compared with the year 1900 it was 39.52 per cent greater. The greatest portion of the increase in 1902 came from Texas and California, the former amounting to 13,690,000 barrels, a gain of 311.6 per cent; the latter to 5,197,938 barrels, a gain of 59.16 per cent, as compared with their respective productions in 1901. The increase in Indiana in 1902 was 1,723,810 barrels, amounting to about 30 per cent, as compared with 1901. As 1902 is the first year in which Louisiana has produced and sold crude petroleum, no comparison can be made; the production amounted to 548,617 barrels. Kansas made a very remarkable record for 1902, as the increase in production was 152,598 barrels, or about 85 per cent. Kentucky and Tenneasee increased their production in 1902 by 48,072 barrels, or 35.02 per cent, Indian Territory increased 27,000 barrels, and Wyoming 853 barrels, as compared with 1901.

The largest decrease in production in 1902 as compared with 1901 was in West Virginia, where it amounted to 663,781 barrels, or 4.68 per cent. Ohio in its two fields showed a decrease of 633,852 barrels, a decline of 2.93 per cent. Pennsylvania showed a decrease of 561,498 barrels, or 4.45 per cent. In New York the decrease was 86,888 barrels, or 7.2 per cent. Colorado showed a decrease of 63,619 barrels, or 13.81 per cent.

The quality of the petroleum produced in Texas, Louisiana, and California is generally much inferior to that produced in the Appalachian and the Lima-Indiana fields, as the quantity of naphtha and of illuminating and lubricating petroleum secured is much less. The greater portion of it is valuable as fuel in its natural state, or after a part of the more volatile constituents have been removed; it is particularly acceptable as such in the Southwest and West, where coal has to be transported many miles.

Percentages Of Production, By Fields.

The following table (p. 11) shows the percentages of production in the Appalachian, Lima-Indiana, and all of the other fields combined for the years 1896 to 1902, inclusive.

Petroleum. 587

Percentages of total crude petroleum produced in the several fields, 1896-190.

Field.

Appalachian

All other

Total

An inspection of the above table reveals the fact that for the last three years there has been a constant decline in the proportionate production of crude petroleum in the Appalachian and Lima-Indiana fields, and a very rapid increase in the production of the fields yielding lower grade or fuel oils. In 1899 only 6.62 per cent was produced outside of these two older fields; in 1902 the outside production was 37.62 per cent. Of the 37.62 per cent credited in the above table to all other fields, California produced about 16.75 per cent and Texas 20.37 per cent, leaving only about 1.5 per cent for the remainder of the sections outside the Pennsylvania and Lima-Indiana fields.

The production in the States of Texas, Louisiana, and California of an inferior gi*ade of petroleum in large quantities required for its consumption new markets and new conditions of transportation that were unknown to the older fields, and demanded a large amount of capital to be suddenly invested in tanks, pipe lines, tank cars, and tank vessels. The markets and transportation for this new production have been secured to a very large extent, and most of the problems connected with its production and transportation have been solved. During the last year its consumption for fuel purposes and as an enricher of manufactured gas has been very largely increased.

Decrease In Price, But Increase In Total Value.

The average price paid for all of the crude petroleum marketed in the United States in 1902 was 80.19 cents per barrel, as compared with 95.7 cents in 1901, a decrease of 15.51 cents per barrel, or 16 per cent. The gross amount received for the total product in 1902 was only $4,761,575 greater than that received in 1901, although the increase in output was 27.92 per cent greater. This was due to the large increase in the quantities of the cheaper grades of petroleum, which were marketed mostly as a fuel oil and at lower prices.

The average price paid for what is known as Pennsylvania petroleum, which is nearly 95 per cent of the production of the Appalachian field, was $1,254 in 1902 as compared with $1.21 in 1901, a gain of 4.4 cents per barrel. There was also a gain of nearly 4 cents per barrel in the price paid for the Lima-Indiana petroleum in 1902 over that of 1901. On the other hand, the price paid for California petroleum in 1902 decreased 21.8 cents per barrel as compared with 1901. The price of Texas petroleum decreased from 28.4 cents per

cents in 1902, or 6.29 cents per barrel. The value of Texas petroleum in 1902 was the lowest quoted in the markets, while as high as $10.86 per barrel was the value quoted for a very limited production of a superior lubricating petroleum produced in Mecca, Ohio.

Increase In Number Op Wells Drilled.

The total number of wells drilled in the Appalachian and the Lima- Indiana fields in 1902 was 14,182. Of this number 2,866 were dry or failed to find petroleum in paying quantities, leaving 11,326 as the number of productive wells as compared with 9,912 productive wells completed in 1901. The proportion of productive wells to dry holes was as 80 to 20 in 1902, as compared with 78 to 22 in 1901.

The total number of wells completed in the United States in 1902 is not far from 16,800. Of this number 12,640 were productive wells.

At an average cost of $1,600 each, these wells represent an investment of $28,700,000, or about 34 per cent of the gross receipts for all the petroleum produced in 1902.

Decrease In Exports.

The exports of petroleum and its products exceeded one billion gallons in 1902 for the second time in the history of the industry; the first time was in the year 1901. The. number of gallons exported in 1902 was 1,064,233,601, not quite so large as in 1901, when the exports amounted to 1,079,074,619 gallons; the value of the petroleum exports in 1902 was $68,697,143, as compared with $72,784,912 in 1901 — decrease of 1.37 per cent in quantity and of about 6.62 per cent in value.

While the quantity of naphtha and illuminating petroleum shows a decline in 1902 as compared with 1901, all of the other export products, including lubricating petroleum, crude, and residuum, show a gain. The gain in American lubricating petroleum is marked, and its superior qualities are becoming more generally recognized in many of the foreign markets.

No New Pools Discovered.

The work of the year 1902 was generally confined to the development of the known pools, as no new ones of any importance were developed. The Sour Lake pool, in Texas, was considerably enlarged, as was the Jennings pool, in Louisiana.

There was a large amount of new work and some extensions were developed in the Lima-Indiana field in Indiana, generally in those localities where the natural gas had been exhausted.

Toward the close of 1902 an important well was completed in Alaska, near Controller Bay, which may be the forerunner of a new development in that far-off region.

In the body of this report detailed conditions of the petroleum industry for 1902 are more fully set forth under separate headings.

Pktbolecjm.

PKODUCTION ATST> VAIiUB. PRODUCTION BY STATES AND FIELDS.

In the following table is given a statement of the total quantity and the total value of all crude petroleum produced in the United States in 1901 and 1902, by States and important districts:

Total quantity and value of crude petroleum produced in the United States and average price per barrel in 1901 and 190S.

State and district.

Quantity.

Value.

Average

price per

barrel.

Value.

Average

price per

barrel.

California

Colorado

2S0

Indiana

Indian Tftrritorv

Kanaas

Kentucky and Tennessee

t

Michigan .

Missouri

Oklahoma Territory

New York

Ohio:

Eastern and southern

Mecca-Belden

Total

,

Smiths Ferry r .'

Total

Texiu?

West Viiinia:

West Virginia

Petroleum

Volcano

a 12, 464

a 14, 660

Total

Wyoming

Grand total

Production of light oil in Petroleum included with West Virginia's production.

Production of light oil in Volcano included with West Virginia's production.

bin addition to this quantity. 76,688 barrels were produced in Kentucky, valued at $41,358, 489 barrels in Missouri, valued at $842, and 431,359 barrels in Texas, valued at $176,634, which were tanked and unsold by the producing companies. The total quantity produced but not sold in 1902 was 506,386 barrels, valued at $218,829: the total production in 1902, marketed and unmarketed, was therefore 89,276,302 barrels, valued at $71,397,739.

Minebal Besoubges.

The increase or decrease in the production by States, as well as the percentages of increase or decrease in 1902 compared with 1901, are shown in the followinff table:

Toted production of crude petroleum and percentage of increaae or decrease by States in 190S, as compared wiih 1901.

state.

Production.

Increase.

Decrease.

Percentage.

Increase.

Decrease.

California

Barrel.

Barrei*.

Barrels. 5,197,988

Barrels.

Percent

Percent.

Colorado . .

Illinois

Indiana

Indian Territory

Kansas

Kentucky and Tennessee —

Michigan

I 2,335

Missouri

Oklahoma Territory . .

New York

Ohio

Pennsylvania

Texas , ,

West Vinrinia

Wyoming

Total

Louisiana for the first time appears in the two preceding tables, although the pool was opened up toward the close of 1901; but no ales and deliveries were made during that year, hence there is no statement of the production in 1901.

The State of Texas leads in increased production, closely followed by California.

The State of Colorado decreased 68,619 barrels in 1902, after showing a gain of 143,135 barrels in 1901.

Of the States in the older fields, Indiana is conspicuous by making a gain of 1,723,810 barrels in its output of Trenton-rock oil, which more than offset the decline in the yield of the same grade of dil in northwestern Ohio.

Indian Territory and Kansas are properly in the same field, and both show large gains, amounting taken together to nearly 96 per cent in 1902 as compared with 1901. Kentucky and Tennessee are also conspicuous for their increased production, which amounts to 48,072 barrels, or 35.02 per cent. Wyoming also shows a slight increase.

The State of New York has been declining in production for the last two years, and the percentages for 1901 and 1902 are almost the Hame.

Petboleum.

Ohio, with two fields, one in the Lima-Indiana and the other in the Appalachian region, shows a slight decline, which was heaviest in the latter field. The entire decrease, however, was less than 3 per cent.

Pennsylvania did remarkably well in the old producing fields, no new pools being found. The decrease was only 4.4:5 per cent in 1902 as compared with 1901, while there was 4.77 per cent of a decrease in the comparison of 1901 with the year 1900. The decrease of 4.68 per cent in the production of West Virginia in 1902, as compared with

1901, is rather a surprise, when the extent of comparatively new area drilled o'-er is considered. It is much better, however, than the decrease of 12.46 per cent which was recorded for 1901.

The regularity of the production for the last six years in the Appalachian and the Lima-Indiana fields is remarkable. The combined production of these two fields is still more remarkable. Given in the nearest million barrels, the quantity appears as follows: In 1897, 58 millions; in 1898, 53; in 1899, 53; in 1900, 58; in 1901, 55*; in

These figures illustrate the remarkable "staying qualities" of large areas of productive territory after production has settled down to the regular drainage of the oil-bearing sand, and when the gushers have ceased to contribute any large quantities of new production to the general yield.

The following table shows the order of production of the several States of the United States, the quantity produced by each, and their percentages of the whole in 1902:

Bank of petroleum-prodtunng States and TerrUorieSj wUh quanlUy produced and percentage

of each, in 190S.

State.

Ohio

Texas

California

West Virginia

Pennsylvania

Indiana 7,480,896

New York ' 1,119,730

Quantity.

Percentage.

Barrels.

Louisiana . Colorado . .

State.

Kansas

Kentucky and Tennessee..

Indian Territory

Wyoming

Michigan, Missouri, and

Oklahoma

Illinois

Quantity.

Barrels.

Total 88,766,916

Percentage.

Mikkbal Besouboes.

The production of petroleum in the principal fields of the United States from 1897 to 1902, inclusive, was as follows:

Production of petroleum in the United States, lS97-I90e, by fields, [Barrels of 42 gallons.]

Field.

Southern California Colorado

KftlTWWr r , - - -

TezAfl T .

Wyoming

Other

Total

a 55, 364, 283 1 a57. 070. 850

a In addition to this amount, 4,377 barrels of crude oil were produced in Kentucky and Tennessee in 1897, 19,125 bcurels in 1896, and 18,578 barrels in 1899, for , as none was sold or used, no value could be given.

b Includes 41,406 barrels of oil sold in Kentucky and Tennessee in 1900 but produced in previous years.

Petroleum and natural gas combined rank next to pig iron and coal in the list of values of the crude mineral products of the United States in 1902, as is shown in the following table:

Value of the petroleum and natural gas produced in 1902 and their combined value, by

States and Territories,

State or Territory.

Pennsylvania

Ohio

West Virginia

Indiana

California

Texas

New York

Kansas

Colorado

Kentucky and Tennessee

Louisiana

Wyoming

Indian Territory

South Dakota ,...

Michigan, Missouri, and Oklahoma . Illinois

Total.

Value of petroleum.

Value of natural gas.

Value of petroleum

gas.

PRODUCTION OF CRUDE PETROLEUM IN UNITED STATES FROM 1859 TO 1902, INCLUSIVE.

In the following table will be found a statement of the production of crude in the United States from the beginning of production,

marked by the drilling of the Colonel Drake well in 1859, up to and including the production of 1902, the table being by years and States:

Production of crude petroleum in the United StateSt 1869-1902 by yean and by States.

Year.

Pennsylva*

nla and New York.

Ohio.

Wert Virginia.

California.

Kentucky

and Tenneiwee

.

Colorado.

Indiana.

a200,000 81,763 29,888 38,179 29,112 3S.8fi7

a3, 000, 000

a 175, 000

5,400 1 316,476 6,000 368,842 9,000 j 665,482 6,500 824,000 3,000 594,390 1,600 616,746 1,500 438,232 1,680 361,450 322 j 384,934

Total

a Includes all production prior to 1876.

Includes all petroleum produced in Kentucky and Tennessee prior to 1883.

Minebal Be80Ubges.

Production of crude petroleum in the United States 1859-190£y by years and by

States — Continued.

Year.

niinois.

Kansas.

Texas.

Indian Territory.

Wyoming.

Louisiana.

United States.

2G0

dl,602

Total

a In addition to this quantity, it is estimated that for want of a market some 10,000,000 barrels ran to waste in and prior to 1862 in the Pennsylvania fields; also a large quantity in West Virginia and Tennessee.

b Includes all production prior to 1876 in Ohio, West Virginia, and California.

oin addition to this quantity, 4,325 barrels of crude oil were produced in Kentucky and Tennessee in 1896, 4,377 barrels in 1897, 19,125 barrels in 1898, and 13,578 barrels in 1899, for which, as none was Bold or used, no value could be given.

d Includes the production of Michigan.

'Includes production of Michigan and small production in Oklahoma Territory.

Petboleum. 545

The total output of crude petroleum since it was first discovered in quantity in 1859 by Colonel Drake on the waters of Oil Creek, near Titusville, Pa., to the end of 1902, amounted to 1,165,290,248 barrels. Allowing 5.6 cubic feet for 1 barrel, this quantity of petroleum would occupy 6,525,625,389 cubic feet of space, which would require a cube l,868i feet on each side to contain it. It would fill a tank, whose base is one mile square, to a height of 234 feet. It would likewise fill 38,843 tanks containing 30,000 barrels each. Allowing 90 feet for the diameter of tanks of this size, if they were placed so that their sides would touch, they would reach a distance of 662 miles; or again, if 2i feet bo allowed for the height of a barrel, and if these barrels filled with all the domestic oil that has been produced were laid so that their heads would touch, they would encircle the earth 2.28 times. If we estimate 3i barrels of petroleum as equal to 1 ton of average coal, we have a fuel equivalent represented by 332,940,071 tons of coal.

Of the grand total of the crude petroleum produced in the United States from the beginning in 1859 to the end of 1902, Pennsylvania and New York produced 53.9 per cent, Ohio 24.3 per cent. West Virginia 11.3 per cent, Indiana 3.9 per cent, California 3.6 per cent, Texas 2.1 per cent, leaving .9 per cent to be supplied by the States of Kansas, Colorado, Louisiana, Illinois, Missouri, Indian Territory, Wyoming, Michigan, and Oklahoma Territory.

Decrease In Appalachian Field.

This field embraces all the districts producing what is popularly known as Pennsylvania oil." It extends from Wellsville, in New York State, on the northeast, down through western Pennsylvania into West Virginia, includes a large portion of southeastern Ohio, and extends across the States of Kentucky and Tennessee into Alabama. The production in Kentucky is becoming more important each year. That of Tennessee has remained almost stationary for the last ten years, being confined to one locality near its northern border. Alabama has not yet produced any merchantable amount of petroleum. For the last two years all of the States in this field have shown a decreased production, except Kentucky and Tennessee, whose production, due principally to the former, is combined. In 1901 the decline was heaviest in West Virginia; in 1902 it was heaviest in New York. The total decrease in all of the States producing in the Appalachian field in 1902 was only 1,599,384 barrels, or 4.76 per cent, as compared with 2,677,262 barrels, or 7.37 per cent, in 1901. M R 1902 36

Minebal Besouboes.

The following table gives the production of the Appalachian States in 1901 and 1902, with the percentage of their increase or decrease. A part of the production in Ohio comes from another field, known as the Lima-Indiana field, but is not included in this table:

Prodiuiion of petroleum in the Appalachian field in 1901 and 190£y by Stales thawing

increase or decrease.

state.

Production.

Increase.

Decrease.

Percentage.

Increase.

Decrease.

New York

Barrels.

Barrels.

Barrels.

Barrels. 86,888 561,498 663,781 335,289

Percent

Per cent.

Southeastern Ohio

Kentucky and TennesBee

Total

Increase In Lima-Indiana Field.

This field embraces a portion of northwestern Ohio and central Indiana. The petroleum in this field comes from the Trenton limestone and carries a small percentage of sulphur. The petroleum from the Appalachian field is found almost entirely in sandstone, and is generally known as "white-sand oil;" it is free from sulphur, produces a larger percentage of illuminating oil, and is more easily refined. There was a decrease in 1902 in the production in that portion of this field lying in Ohio, which was more than offset by the increased production in Indiana. The net increase amounted to 1,425,247 barrels, or about 6.5 per cent.

The increase in this field was slightly less than the decrease in the Appalachian field. Combining the two there was a deficiency of only 174,137 barrels in the aggregate output of the Lima-Indiana and the Appalachian fields in 1902 as compared with 1901.

Production of petroleum in the Lima-Indiana field in 1901 and 1901S,

State.

Production.

Increase.

Decrease.

Percentage.

Increase.

Decrease.

Ohio

Barrels. 16,176,293 5,757,086

Indian

Total

Petboleum.

Wells And Stocks In Appalachian And Lima-Indiana

Fields.

In the following tables are shown the number of wells completed and of dry holes in the Appalachian and Lima- Indiana fields for the years 1901 and 1902:

Number of weds completed and of dry holes in the Appalachian and Lima Indiana fields in

Month.

Appalachian.

Completed.

Dry.

Lima-Indiana.

Completed.

Dry.

Total both fields.

Completed.

Dry.

January... Febrnary .

March

April

May

Jnne

July

August

September October . . . November. December.

Total

January... February .

March

April

May

June

July

August

September October... November. December.

Total

Although it is shown in the preceding tables that there was a slight decrease in the production of the two fields in 1902 as compared with 1901, the number of wells completed increased from 12,620 in 1901 to 14,182 in 1902. This increase occurred almost entirely in the Lima- Indiana field, which showed a gain of 1,547 wells over the previous year, while the increase in the Appalachian region was only 13. The productive wells in both these fields in 1902 was 80 per cent of the total number drilled, as compared with 78.6 per cent in 1901 and 80.6 per cent in 1900. The total number of wells operated in 1902 is

placed at 118,500.

Mineral Besouboes.

The combined stocks at the close of 1902 of the Appalachian and the Lima-Indiana fields showed a decrease of 4,347,648 barrels as compared with the quantity in stock at the close of 1901. The decrease was principally in the Appalachian field* The stock held in the Lima-Indiana field was only 453,880 barrels less at the close of 1902 than at the close of 1901. The gross amount of stocks in both fields at the close of 1902 was very nearly the same as that of 1899, as will be seen in the following table:

Stocks of petroleum held by pipe lines at dose of 1899j 1900, 1901, and 190fS in the Appalachian and Limor Indiana fields.

National Transit Co j 7,615,626

Southwest Pennsylvania Pipe Line Co 1 , 560, 448

Eureka Pipe Line Co , 1,598,080

Cumberland Pipe Line Co i

Southern Pipe Line Co 396, 256

Crescent Pipe Line Co 73, 633

New York Transit Co 756,120

Tidewater Pipe Co 294,265

Producers and Refiners' Oil Co 140,966

Elk Oil Co 697

Emery Pipe Line Co 26,102

United States Pipe Line Co 88,148

other lines 287,872

Total stocks Appalachian field . Total Lima-Indiana stocks

Total both fields .

Exports.

The following tables are the official statement of the Bureau of Statistics of the quantity and value of petroleum and its products (mineral oils) exported from the ports and districts in the United States for the year ending December 31, 1902, as compared with the preceding year:

Exports of mineral oils from the United States in 1901 and 190fS.

Port and kind.

Delaware

New York

Philadelphia...

Galveston

Other districts .

Total 127,008,002

U.

Ml

Petroleum. 549

Exports of mineral oils from the United States in 1901 and 190S — Continued.

Port and kind.

Naphtha.

Boffton and Charlwrtown ...,.,.

t846

Delaware

New York

Galveston

Other districts

Total

Illuminating.

Baltimore ,,.r.r---r

Boston and Charlestown

Delaware

New York

Qalyeston

Other districts

Total .

Lxtbbicatinq And Paraffin.

Baltimore

7U,817

Boston and Charlestown

New York

Qalyeston

Other districts

Total

Besiduxjm.

Boston and Charlestown

New York

Galveston

Other districts

Total

Grand total

Recapitulation By Kinds.

Crude petroleum

Naphtha

Illuminating oil

Lubricating oil and paraffin . Residuum

Total.

Recapitulation By Ports.

Baltimore

Boston and Charlestown.

Delaware

New York

Galveston

Other districts

Grand total .

Mineral Bes0Urce8.

It will be seen that the exports of petroleum and its products in 1902 were 1,064,233,601 gallons, which is 14,840,918 gallons less than the number of gallons exported in 1901. New York continues to be the leading port of export. Philadelphia is second, and has been gradually gaining on the metropolis.

Of the total quantity exported, 66 per cent was loaded at New York, 30 per cent at Philadelphia, 8.6 per cent at ports in Delaware, 3.7 per cent at Baltimore, leaving about 1.7 per cent to be supplied by Boston and Charlestown, Galveston, and other districts. The great demand for American petroleum and its products, at home and abroad, attests their superiority and plainly shows that the product of no other country can compete with ours as a universal illuminant and lubricant.

Exports of mineral oils from the United States, I887-190S, [Gallons.]

Year.

Crude.

Naphtha.

Illuminating.

Lubricating and

Residuum.

Total.

paraffin.

Quantity. 681,021,329

Value.

This table indicates the remarkably steady' and growing trade in the export of crude petroleum for a series of years, that of 1901 and 1902 being unusually large. Comparing the separate exports for the years 1901 and 1902 there is a considerable falling off in the naphtha and illuminating products in 1902, and an increase in the amount of crude, lubricating, and residuum products. The quantity of crude produced in the Appalachian and the Lima-Indiana fields combined from which the exports are chiefly derived, also continues with remarkable regularity. The great increase in the crude production is in the fields of the Southwest and West, of which at present only a comparatively small amount is converted into the finer grades. There were, however, 18,430,353 gallons of crude exported from Texas ports during the year 1902, amounting to nearly 13 per cent of the total crude exported from all ports. . ., ,.

Ic

Petroleum. 551

Exports of mineral oil from tJie United States years 1899-1902, by montJis.

Month.

January

Febroary

March

April

May

June

July

Auguflt

September ,

October

December

Total 12 montlis.

Month.

Oallons. 62,885,776 51,769,280 85,273,708 66,878,667 87,216,379 87,214,749 81.171,542

January

February

March

May

June ,

July

August ,

September

October ,

November

December

Total 12 months,

Mineral Be80Ur0E8.

The following table exhibits the total production of crude petroleum in 1902, in barrels and in gallons, also the sepai"ate derivatives exported and their value, together with their sum and value. This amount represents approximately 45 per cent of the total refined product that was obtained from the crude petroleum in the United States:

Quantity of crude petroleum produced irif and qualities and values of petroleum products exported from, the United States during each of the calendar years from 1871 to 1902, inclusive.

Year ending December 81—

1898n 1894a 1896a. 1896a.

Production.

& 60, 960, 361

b55, 364,233

ft 57, 070, 860

Gallons.

Exports.

Mineral, crude (including all natural oils, without regard to gravity).

Mineral, refined or manufactured.

Naphtha, benzine, gasoline, etc.

Gallofu. 8,396,905 8,688,257 10,250,497 10,616,644 14,048,726 18,252,751 19,565,909 18,431,782 19,524,582 15,115,181 20,665,116 16,969,839 17,865,814 18,676,421 14,739,469 14,474,951 12,882.213 13,481,706 13,984.407 12,462,686 11,424.998 16,393,284 17,304,005 15,555,754 14,801,224 12,849,819 18,430,820 17,026,626 17,904,015 18.262,744 21,684,734 19,682,637

S895.910 1,307,058 1,266,962

a Exports are for fiscal years from 1893 to 1896. inclusive.

bin addition to this quantity, 4.825 barrels of crude oil were produced in Kentucky and Tennessee in 1896, 4,377 barrels in 1897, 19,125 barrels in 1898, and 18.578 barrels in 1899, for which, as none was sold or used, no value could be given.

0 Includes 41,405 barrels of oil sold in Kentucky and Tennessee in 1900, but produced In previous years.

d In addition to this quantity, 608,386 barrels were produced, but not marketed.

Peteoleum.

Q%tantUy of crude petroleum produced in, and quUies and values of petroleum products exported from, the United Slates, etc, — Continued.

Year ending December 81—

Exports.

Mineral, refined or manufactured.

Uluminating.

o Exports are for fiscal years from 1898 to 1896, inclusive.

Minebal Resources.

Quantity of crude petroleum produced in, and qualities and values of petroleum products exported from, the United States, etc, — Continaed.

Year ending December 31—

Exports.

Residuum (tar, pitch, and all other, from which the light bodies have been distilled).

2U,008

Total.

Oattona, 152,196,617 144,318,707 240,369,908 235,108,168 237,526,312 263,449,455 361,883,225 849,346,253 421,719,782 346,779,448 514,661,719 503,492,462 533,145,429 544,496,608 560,784,459 591,884,302 601,846,817 572,457,975 680,705,456 693,829.818 673.905,577 744,638,463 804,221,230 908,252,314 884,502,082 890,458,994 994,297,757 986,480,610 951,024,441 975,123,476 1,079,074,519 1,064,283,601

a Exports tire for fiscal years from 1893 to 1896, inclusive.

Petroleum.

Production of petroleum in the Appalachian oilfield, 1889-190$ , by States. [Barrels of 42 gallons.]

Year.

and

New York.

West Virginia.

Southeastern Ohio.

Kentucky and Tennessee.

Total.

This table shows a decrease in the production in 1902 as compared with that of 1901 of 1,599,384 barrels, the equivalent of 4.76 per cent, which was greatest proportionally in southeastern Ohio. Were it not for the increase of 1,662 wells drilled in 1902, as compared with 1901, this slight decrease would not be so conspicuous. The onlydivision showing an increase was Kentucky and Tennessee.

Production Of Appalachian Field, By Months And Years.

In the following table is given the production of crude petroleum in the Appalachian oil field from 1896 to 1902, by months:

Production of crude petroleum in the Appalachian oilfield, 1896-1902, by months and years.

Month.

January

2,918,175 1 3,003,286 2,596,900 ! 2,567.288 8,004,813 ' 2,916,677 2,950.469 2,862,813 3,148,944 2,963,001 8,068,698 2,751,409 3,100,319 I 2,921,520 3.196,715 1 2,941,678 3,002,998 2,644,108 3.245,506 j 2,814,972 8.009,503 : 2,590,781 8,061,398 2.640,744

February'

March

April

May

June . ,

July . . .

August

October

November

December

Total

38,068,866 ' 36,296,483 88,618,171

MiKeRal resources.

Average Daily Production Of Appalachian Field, 1896-1902, By

Months And Years.

In the following table is given the average daily production in the Appalachian oil field from 1896 to 1902, by months and years:

Average daUy production of crude petroleum in the Appalachian oilfield each month, 1896-190S, by mordhs and years.

Month.

.Tanuarv

February

March

April

May

June

July

August

September

October

November

December

Average...

Average monthly prices of Appalachian crude petroleum in 1901 and 190S. [Per barrel of 42 gallons.]

Month.

January

Februarj-

March

April

May

June

July

August

September —

October

November

December

Average

S1.34i 1.28t 1.40f

Comlng. ig

Tiona. P"°S;l- Coming. Newcas-

n.3o

tie.

to. 90

Petroleum. 557

Kansas.

Condition, of the ind/ustry, — There was a large quantity of new and productive territory developed in this State, operations being quite aetive in the latter part of 1902. Although no wells of the gushei class have been found, there has been a large percentage of profitable wells drilled, which produce from 10 to 35 barrels per day. These wells are comparatively shallow, ranging from 750 to 850 feet in depth, and the drilling is inexpensive, as it is usually accomplished by what is known as a portable rig. The Kansas petroleum and natural-gas field is located in the southeastern portion of the State, in the counties of Neosho, Allen, Chautauqua, Montgomery, and Wilson.

Formerly the production came almost entirely from Wilson County, in the vicinity of Neodesha, but the year 1901 developed the existence of the Chanute pool, in Neosho County, and the Humboldt pool, in Allen County.

The production in all of the new pools in the State has suffered for want of transportation, which was remedied about the beginning of the year 1903 by the construction of a pipe line connecting the Chanute and Humboldt pools with the refinery at Neodesha.

Oil-hearing formations. — The petroleum, as well as the natural gas, is found principally in a dark sand, known generally as a "sugar sand," which is usually 15 to 20 feet in thickness, the wells reaching this formation usually at about 800 feet. This sand is not always found — that is, it does not extend uniformly throughout all this portion of southeastern Kansas, but is subject to irregularities, so that the productive pools are found surrounded by barren territory. The general dip of the strata in this portion of the State is from west to northwest, subject to slight folds that are not generally apparent at the surface, but have been proved by leveling and careful measurement of ' the depth of the top of the producing horizon.

All of the petroleum in southeastern Kansas comes from what is generally known as the Cherokee shales, a stratum about 450 feet thick, resting on the floor of the Mississippian or Eocarboniferous limestone, capped by the Fort Scott limestone. The most productive sand is found at from 50 to 75 feet above the base of the lower limestone.

In certain districts in Kansas this Cherokee shale contains most valuable deposits of bituminous coal. In the oil and gas region it is made up principally of shale with thin beds of sandstone and limestone, near the bottom of which the principal oil and gas bearing sand is encountered.

Above the Fort Scott limestone there is a series of shales known as the Pleasonton shales, about 250 feet in thickness, which in localities carry workable seams of coal, and which are in turn capped by several series of limestone, alternating with shale and sandstogt5iulb

Mineral Besoubcks.

gradual dip of 15 feet to the mile to the west-northwest, as well as the general elevation of the surface in that direction, soon buries the Carboniferous measures under the Permian, which in turn are capped by the Cretaceous.

Production In Kansas.

The production for 1902 was 331,749 barrels; that for 1901 was 179,151 barrels, again of 152,598 barrels, or 85 per cent. The number of producing wells in 1902 was 391; of this number 83 could not be operated, owing to want of transportation facilities. In the year 1901 there were only 160 wells operated. From the present outlook there will be a much larger production secured in the future, since this is a reasonably sure territory and the wells are not expensive, as they are shallow, only requiring one string of casing, and there is an abundance of natural-gas fuel and a good supply of water.

Indications seem to show that there will be in the near future a continuous production extending from Allen County, through Neosho, Wilson, and Montgomery counties, into Indian Territory.

The total production of oil in Kansas, so far as records have been obtained, is as follows:

Production of petroleum in KanaaSj 1889-190Z.

Year.

Quantity.

Barrd9,

Year.

Quantity.

Barrdi. 113,571

The value of the petroleum produced in Kansas in 1902 was $292,464, an average of 88 cents per barrel. The average price per barrel received in 1901 was 84 cents.

The following table gives the total output, the daily average production, and the average daily production per well in Kansas from 1897 to 1902:

Total and average daily production of wells in Kansas 1837-190, [Barrels of 42 gallonfl.]

Iroduction.

Production in year

Average daily production

Avorairc daily well production..

Petroleum.

The following table gives the monthly production in Kansas from 1898 to 1902:

Production of crude petroleum in Kanms, 1898-190fS, by months. [Barrels of 42 gallons.]

Month.

January . . . February . .

March

April

May

June

July

August — September. October November. December .

Total

WELL RECORDS IN KANSAS. Number of producing oil vJh in Kansas at closeof each year, 1897-1902.

County.

December 31—

Allen

Chautauqua

Montgomery

Wilson

Woodson

Total

a 891

aThifl total includes 83 wells which were not pumped in 1902. Well record in Kansas in 1902.

County.

Wells pro- , ductive at i close of

Productive wells

drilled in

Abandoned in 1902.

Productive

wells at

close of

Dry holes drilled in 1902.

Allen

Chautauqua 6

Neosho

Wilson

Woodson

Total

aTwo gas wells in Montgomery County produced some oil in 1902; wells not included in this table,- Qf this total, 83 wells were not pumped in 1902,

Indian Territory.

Condition of the industry. — Operations in the northern portion of this Territory adjoining Kansas have been quite active during the last year. The southern border of the petroleum-producing area in that State has been gradually extended into the Territorj, and a continuous producing belt has been fully established. Operations have been retarded owing to the governmental conditions imposed upon persons securing leases from the Indians who own the land in fee. A number of grades of petroleum, from the heaviest to the lightest, have been developed at various depths, from shallow and from deep wells. The only pool operated was that belonging to the Osage Nation, the oil from which has been transported by rail to Neodesha, Kans., and there refined. Other developments await further adjustment, in the near future, of the laws regulating the leasing of oil lands to operators. It is therefore expected that the year 1903 will develop a large amount of production, as many wells are now shut in that are known to be producers of considerable importance.

The total production of crude petroleum in Indian Territory was 37,000 barrels in the year 1902, valued at $32,190, or 87 cents per barrel at wells. This petroleum was produced from 13 wells located in Osage Nation, six of which were drilled in the year 1902.

Owing to restrictions in the laws of the Creek Nation no petroleum was shipped from this field during 1902. There were 9 wells in this field in 1902, 5 of which were drilled in 1902. Two wells were drilling at the close of 1902. Of 7 wells in this field 4 are shallow, being only 537 to 660 feet deep; 3 are 1,350 feet deep. The first sand was found at 560 feet and was 10 feet thick; the second sand was found at 1,400 feet and was 25 feet thick. Gas is also found with the oil, the pressure being very strong, but it has not yet been tested. Very few wells are finished in shape to show their production, but those which are finished show a production of about 25 barrels a day. The oil is thin, is of amber color, is light in gravity, and contains a large percentage of illuminating petroleum.

No petroleum was produced and shipped from the Cherokee Nation in 1902. However, operations were resumed early in 1903, and a pipe line is being laid from the wells to the railroad. The oil is black, with asphaltum base; its gravity is from 23 to 30 Baum; about 20 per cent of it is illuminating, and about 60 per cent is lubricating oil. The sands are light gray and chocolate color, and are found at from 65 to 250 feet in depth. They contain no sulphur.

The total number of wells, of both oil and gas, in the Indian Territory at the close of 1902 was 29, 13 of which were drilled in 1902. In addition to these, 5 were in process of drilling at the close of 1902.

The following are the conditions for leasing the Cherokee allotted lands for operating for petroleum and natural gas, established by the Secretary of the Department of the Interior, Wahingto

isnea by n, D.#'

Petroleum.

All leases must follow the form approved by the Interior Department and must provide that only so much of the surface of land described as may be necessary to carry on the work contemplated shall be occupied by the lessees. All lessees must give bond guaranteeing payment of royalties and rents. The bond schedule follows:

Forty to 80 acres, |1,000; 80 to 120 acres, |1,500; 120 to 160, $2,000. Each 40 acres above 160, |500 additional. The Secretary can raise the amount if he deems it necessary. No lease shall be sublet, transferred, or without the consent and approval of the Secretary of the Interior. All leases shall provide for the payment of advanced annual royalties in sums not less than 15 cents per acre per annum for one and two years, 30 cents for three and four years, 75 cents for fifth and each succeeding year for the term the lease is to run. All leases should provide for the payment of a royalty of 10 per cent of the value of all crude oil extracted from said land to be paid monthly, on or before the 25th of the month succeeding that in which it is produced, and the average value of the oil during the month in which it is produced shall constitute the criterion for paying the royalty.

The royalty on natural gas shall be fixed by the Secretary at the end of each year, or oftener in his discretion. All lessees will be required to keep full and correct accounts of their operations and make report thereof promptly at the end of each month to the lessor and Secretary. The right is given to prospect for, extract, pipe, store, refine, and remove all such oil and natural gas, to use as land as is necessary, also right to obtain enough water from the land, and to use natural gas or oil for fuel to carry on operations. The lessor is given free use of gas to light his residence. If the lessee fails to pay the per acre royalty sixty days after it is due, the lease becomes void. The lessee must agree to exercise diligence in sinking wells for oil or gas and operate same in a workmanlike manner. He must commit no waste, and must surrender property at the termination of his lease. He shall not remove any buildings or improvements except tools, boilers, pipe lines, pumps, drills, engines, tanks, and machinery. The lessee shall not allow any nuisance committed on the property or any intoxicating liquor sold or given away. He must plug abandoned wells so as to effectually shut off all water above the oil-bearing horizon. Amounts due for royalties shall be a lien on implements, tools, and movable machinery. If the lessee make reasonable and bona fide effort to find and produce oil in paying quantities and such effort is unsuccessful, he may at any time thereafter, with the approval of the Secretary of the Interior, surrender and wholly terminate the lease upon the full payment and performance of all existing obligations, provided, however, that the approval of such surrender by the Secretary will be required only during the time his approval of the alienation of the land is required.

Production In Indian Territory.

The following table shows the production of petroleum in Indian Territory from 1891 to 1902, inclusive.

Production of petroleum in Indian Territory 1891-190S.

Year.

Quantity.

Year.

Quantity.

Barrela. SO

Barrels.

Jigitized bv Vii

K B 1902 36

Colorado.

Condition of the indmtry. — There was great activity in the State throughout. the year 1902. The superior quality of the petroleum recently developed at Boulder, and its ready sale formed the incentive for a large amount of drilling over widely separated portions of Northern Colorado. Boulder, Fort Collins, and the older Florence field were the principal localities in which operations were active. To a smaller extent operations were active in Pueblo, Archuleta, and Rio Blanco counties; also in Routt Count and at Raton, near the southern boundary, in the northwestern portion of the State.

The general results of the operations can not be considered satisfactory, as no productive well has been developed outside of the pools at Florence and Boulder and their immediate neighborhood. The finding of a productive well, known as the Otero well, 4r miles north of Boulder, has lengthened the field considerably.

An important deep-test well was drilled in the Florence field south of the which, at the great depth of 3,650 feet, developed a very prolific oil pay below that found in the other wells. The old No. 49 well, drilled in 1890, continues to produce 40 barrels per day. This well for seveml years after it was first opened producwi at the rate of 350 barrels per day, and has placed nearly 1,000,000 barrels of petroleum to its credit.

Three pay streaks are usually developed in this field, the first at about 1,200 feet in depth, the second at from 1,600 to 2,000 feet, and the third at from 2,600 to 2,800 feet.

The formation credited with producing the petroleiun in this pool and that of the Boulder district, is the Fort Pierre group of the Montana Cretaceous. The Florence pool furnished nearly 98 per cent of the total production in the State in 1902. The petroleum is of a darkgreen color, of good quality, and with a gravity of to 32° Baum. The productive wells drilled in this pool in 1902 numbered 15. There were 26 dry holes, and 6 abandoned wells. At the close of 1902 there were 72 producing wells in the Florence pool and 4 in the Boulder pool.

PBODUCnON IN COLORADO

The production in 1902 was 396,901 barrels, valued at $484,683, an average of $1.22 per barrel, as compared with 460,520 barrels in 1901, valued at $461,031, or $1 per barrel, a decrease of 63,619 barrels in quantity and an increase of $23,652 in value. The production of the Boulder pool amounted to only 11,800 barrels, which is a disappointment, as the general average of the wells as reported should produce more than double this quantity. Toward the close of 1902 the shipments from this pool were very close to 130 barrels per day. The Quality of the petroleum from the Boulder pool ia,jRiBjt;ii$o that of

Petroleum.

any other west of the Mississippi River. Its gravity when fresh is 42.5 Baum, and it is similar to Pennsylvania petroleum in the percentages of its refined products. The development of a large supply of fairly good crude petroleum in Colorado and Wyoming would, owing to their location in the United States, be desirable because of the long distances the petroleum has now to be shipped by railroads to reach the western markets. The demand for refined petroleum is growing at a rapid rate in the great inland section of this country, and will probably continue to increase for many years.

In the following table will be found a statement of the production of crude oil in Colorado from 1887 to 1902:

Production of crude oil in Colorado, 1887-1902,

Year.

Quantity.

Year.

Quantity.

Barrels. 76,295 297,612 816,476 868,842 666,482 824,000 594,890 616,746 438,232

Barrd8. 361,460 384,934 441,383 390,278 317,386 460,620 396,901

Total

Wyoming.

Condition of the iruhtatiy. — There is in this State a considerable amount of petroleum developed, which at present lacks a market.

The known petroleum fields are widely distributed over the State from the southwest to the northeast corner.

The most active work during the year was in Uinta and Sweetwater counties in the southwestern portion of the State. At Spring Valley, in the first-named county, the Union Pacific Railroad drilled for water early in 1901, and unexpectedly developed a deposit of very remarkably pure petroleum, an analysis of which is shown on a following page. A number of wells drilled in this county failed to produce more than a small quantity of this high-grade petroleum.

The only regular production in the State comes from 10 wells drilled by the Pennsylvania Company at Salt Creek in the northeastern part of Natrona County, 50 miles north of Casper, where a small refinery is located, the oil being hauled from the field to the refinery in tank wagons. Operations in this field showed a considerable increase, amounting to 850 barrels, in 1902 over 1901. There are numerous petroleum seeps in the western central portion of Natrona County and an outcrop of oil-bearing sandstone in the Rattlesnake Ranged

Mineral Bbsouboes.

About 4,000 barrels of heavy petroleum were produced by an English syndicate in the Popo Agie district, near the center of Fremont County, from spouting wells recently drilled in that locality, which was used principally for fuel and lubrication in drilling new wells. There are a number of gushers in this district, several of which were completed in 1901 and 1902; the remainder are much older, having been drilled in 1884, but they still flow petroleum naturally when the gate is opened. The specific gravity of this petroleum is from 22° to 25° Baum; it flashes at 95° F., and ignites at about 135° F. There is a prospective field near Newcastle, in Weston County, which awaits development. Near Bonanza, in Bighorn County, a well was recently completed which gave indications of being, a fair producer of a superior grade of petroleum said to produce 50 per cent of illuminating oil.

The problem that now confronts most of the operators in this State is the question of transportation and market for a large quantity of the heavy oil which is known to exist in quantity in several localities. They are far away from any large population or manufacturing districts or lines of transportation leading directly to consumers. It must also be remembered that Wyoming is abundantly supplied with bituminous coal of good quality. All of these conditions operate to retard the more active development of petroleum in this State.

Peoduction In Wyoming.

There were produced in 1902 in Wyoming 6,253 barrels of crude petroleum, valued at $43,771. The wells which produced this oil are 10 in number and located in Natrona County. There are 55 feet of producing sand of fine texture. There has been no perceptible diminution in any of the wells since they commenced producing.

Production of petroleum in Wyoming, 189jhl902,

Year.

Quantity.

Year.

Quantity.

Barrda, 2,869 8,455 2,878 3,650 6,475 6,560

Barrels, 5,450 5,400 a6,2W

Total

a In addition to thia quantity 4,000 barrels were produced in the Popo Agie oil district in Fremont County and used for lubricating and fuel purposes in the development of oil wells, and also the Tnion

Pacific well at Spring Valley produced about 2,500 gallons; but as there was no market for this pronot included in the table.

duction it was not 1

Pbtboleuh.

The following analysis of the Spring Valley petroleum has been made by Dr. F. Salathe.

Analysis of Spring Valley, Wyoming, crude petroleum, by Dr. F, Salathe.

Constituent.

Per cent.

Water white kerosene 46° B., 146P flash, 172° Are

Signal and headlight. 40° B., 800° fire

Lubricating o reduced stock 23.5° B

Total

2S.60

a Amount of paraffin in reduced stock, 18.6 per cent. Color of crude, olive green. Specific gravity, 0.8329. Flashes at a temperature below 60° F.

DistUlaHon of Spring Valley crude petroleum, by Wilbur C. Knight.

Number.

Temperature.

Specific gravity.

Remarks.

Oil at 16° C.

Do.

Do.

Do.

Do.

Do.

Oil at 18° C.

Oil at 22° C.

Do.

10a

Do.

a A little more than 6 per cent. This oil is practically gasoline, kerosene, and paraffin. Estimates of the percentages of paraffin range from 10 per cent to 16 per cent. Both the gasoline and kerosene are of excellent quality.

Color, light green.

Specific gravity, 0.8176 (42° B.). This sample was taken the first strike, and is a lighter oil than was found at a greater depth. Flashes at a temperature below 66° F.

Missouri.

During 1902 some little excitement was created by the discovery of oil at Belton, Cass County. There are three companies in the district, but very little oil was produced and sold in 1902. The oil is highgrade lubricating, and is worth $3 a barrel at the well. The wells, 7 in number, are shallow, being from 341 to 490 feet deep. Gas is also produced, and the town of Belton is partly supplied with this fuel for heating and lighting. The following analysis of the oil from these wells, by Professor Frankforter, of the University of Minnesota, shows it to be a high-grade lubricating oil:

MINEBAL RESOURCES. AncUym of petroUvm from BeUon, Mo.

Per cent.

Light oil between keroflene and gasoline

Lubricating oil with paraffin base

Residuum consisting of 10 per cent tar and 8 per cent paraffin, with only a trace of inoi ganic matter

Total

The production from this new district added somewhat to the small quantity that has for many years been produced, and still continues to be produced, from a well located in Bates County. There are numerous indications of petroleum in the limestone in the neighborhood of Joplin and elsewhere in this State.

Production of petroleum in Missouri, 1889-190S, to which that of other States has been

added since 1898.

Year.

Quantity.

Year.

Quantity.

Barrels.

ol32

al,602

a Includes the production of Michigan.

6 Includes the production of Michigan and Oklahoma Territory.

Michigan.

The production of petroleum in this State fell off in 1902, compared with the production of 1901, both of which were insignificant.

The source is the Cornif erous limestone which has produced petroleum for many years in Canada. The production in Michigan is at Port Huron.

Oklahoma Territory.

There are many natural petroleum seeps in this Territory, but nothing in the way of established production of petroleum was reported for 1902. There is some oil produced in this Territory quite near the line of Indian Territory. In addition, numerous springs and wells in this Territory have indications of petroleum. Liquid and solid asphalt have also been found in shafts and water wells. Guthrie, Lawton, Fort Sill, Richards, and Granite have all more or less natural vents, showing both petroleum and natural gas, and in all probability a few 3'ears will see this Territory placed on the list of regular producers.

Ic

Peteoleum. 567

Alabama.

Numerous tests throughout this State during the years 1901 and 1902 have thus far failed to find petroleum in paying quantities, although some of these tests have found shows of oil and slight Hows of natural gas. A number of wells were put down in Washington and Mobile counties, in the southwestern portion of the State, which were unsuccessful in finding anything but traces of petroleum. Wells were also drilled in Madison, Clarke, Walker, and Calhoun counties, in the northern portion of the State, which did not find any petroleum of commercial value. Operations are still in progress in Madison County. The well in Calhoun County, near Piedmont, was drilled to a depth of 1,454 feet, at which point the hole was plugged. Some natural gaa was developed between 800 and 1,000 feet.

Louisiana.

Conditio7i of the industry. — The year 1902 gave this State a distinctive place among those producing petroleum. Although there was some productionJn 1901, there were no sales of petroleum, and therefore no credit could be given. The production and sales in 1902 amounted to 548,617 barrels, valued at $188,985, at the rate of 34.4 cents per barrel. There was a large amount of drilling in the search for petroleum over a considerable area in the southwest portion of the State. The most successful development was near Jennings, 90 miles east of Beaumont, Tex., and 190 miles west of New Orleans. Several promising wells also were drilled near Welch, 12 miles west of Jennings. More or less developments, showing petroleum and natural gas in small quantities, were made at Calcasieu, Lake Charles, Cowley, Lafayette, and Sulphur. In drilling test wells several other localities have developed outbursts of natural gas, accompanied by slight showings of petroleum. The first well of importance was drilled near Jennings, the pool being 6 miles northeast of that station, in Acadia Parish.

In August, 1901, at a depth of 1,822 feet, a bed of loose sand containing petroleum was tapped. This well flowed spasmodically large quantities of petroleum and sand to a height many feet above the top of the derrick. Owing to an accident, this original well had to be abandoned. There were at the close of 1902 4 pumping wells and 1 flowing well in the Jennings pool, 4 wells preparing to pump, and 2 drilling wells, a total of 11 operations. The difficulty in this pool is the strong gas pressure and the loose sand saturated with petroleum, which clogs up the casing so completely as to shut off all outflow. This difficulty has been overcome to a great extent by the perforation of the lower joint of the casing or by inserting a perforated liner at the bottom. No solid material is encountered in drilling wells at this

Ic

ICINEBAL BESOtJBCES.

locality, the formation consisting of series of sand-clay and "gumbo." The petroleum is about 26 Baum6 in gravity and is superior in quality to that produced at Beaumont and Sour Lake. Dry holes have been developed to the east and south of the productive area.

About 12 miles west of Jennings the pool at Welsh is located. There is every indication that a producing area has been developed at this point, as several wells have found petroleum, although the same difficulty found at Jennings exists here also, namely, a bed of loose sand associated with the petroleum, which has thus far interfered with the output of the wells.

Tankage has been erected at both Jennings and Welsh, and at Jennings the pool has been connected by a pipe line with the railroad and also with tide water. A market has thus been secured, as the sugar refineries and other manufactories located along the coast and up the Mississippi River have in many instances discarded coal for fuel oil.

From the indications existing in many localities over a large portion of southwestern Louisiana, it is reasonable to predict that this State will in a few years produce a large quantity of petroleum.

Production.

The following table shows the production in 1902:

Production of petroleum in Louisiana in 190S, by manihs.

Month.

May

June

July

August

September

Barrels.

Month.

October

November. December .

Total

The avemge price was $0.3445 per barrel. This oil was produced from five wells, all of which were completed in 1902.

Texas.

Condition ofth industry, — The close of the year 1902 almost completed the second anniversary of the discovery made by the great Lucas well on the Coastal Plain of Southeastern Texas, within a few miles of tide water. Since that event not less than $10,000,000 has been invested in wells, pipe lines, refineries, and tank vessels. Over 24,000,000 barrels of petroleum have been brought to the surface from the heretofore unknown reservoirs in the vicinity.

The production in 1902 including that stored in tanks was 18,615,017 Of this total about 7,800,000 barrels were tanked, leaving 11,215,007 barrels as the quantity consumed locally or shipped from

Ic

Pbtrolbum. 569

the State. This amount of production places this State second in the list, next to Ohio, which is first, in the order of production by States.

This large production has had its far-reaching influence throughout the petroleum producing regions of the entire world. The sudden development of this large amount of petroleum, requiring the storing, the transportation, and the marketing of this quantity in so limited a time, is certainly a monument to the ability and enterprise of those engaged in the industry.

The present known deposits of petroleum and the numerous possibilities that underlie both the great Coastal Plain and the elevated localities far inland make it impossible to measure its future possibilities in the way of developments. This wonderful reservoir of cheap fuel must increase the present industrial activity and invite many new industries which will add materially to the prosperity of this already prosperous State.

The chief market for this petroleum in 1902 was as fuel, much the largest portion being distributed by tank cars on the railroads and a considerable part being used as a manufactured gas enricher. A very considerable quantity was transported by pipe lines from Beaumont and Sour Lake to Port Arthur and Sabine Pass, where it was loaded into tank vessels and transported to New York, Philadelphia, and New Orleans; smaller quantities were transported coastwise to Morgan City, Bell Isle, and Gretna, La., also to Tampa, Fla., and to Havana, Cuba. A very considerable quantity, also, was shipped in large tank vessels to Plymouth, and Dover, England, principally for use as a fuel after the more volatile portions had been removed; a portion also was marketed abroad as a gas oil for enriching manufactured gas, for which latter purpose it has been very successfully applied.

At the seaports of Port Arthur and Sabine Pass, the former being 18 and the latter 25 miles south of the Beaumont pool, several extensive refineries have been erected for the separation of the more volatile constituents from the crude petroleum. About 30 per cent of the lighter products are removed by distillation, which leaves a safe export petroleum. The main bulk of the lighter products find a market as gas oil after a comparatively small percentage has been converted into illuminating petroleum. The general average specific gravity of Beaumont petroleum is 22 Baum equal to 0.92. The lowest temperature at which this petroleum gives oflF an inflammable vapor, or the flash point, is to 160° F., the diflerence being due to the length of time it has been exposed to the air.

Beaumont Distbict. Cienkbal Conditions.

During the first six months in the year 1902 the wells in the Beaumont pool continued to flow natural' and to produce large quantities

Ic

of petroleum. A very destructive conflagration, involving the loss of $200,000 woilh of material and temporarily interfering with the production, occurred in the early part of the year.

The presence of a large amount of water in the oil-producing sand about the 1st of August began seriously to affect the production of the wells. This water was forced into the strata by the rotary system of drilling, as numerous wells were being drilled. Saltwater, in some instances, also made its appearance in considerable quantity.

About the 1st of July many of the wells in this pool ceased to flow naturally, as the pressure from the natural gas had been exhausted by the numerous wells so closely crowded together. For several monttus these wells were revived by the artificial method of pumping natural gas or air into the space in the rock above the oil.

This was practiced with success until the main body of the oil was reduced to a lower level in the wells and the space became too large for individual wells to be helped in this way. Toward the close of the year pumping was generally resorted to, although there were a few spouters which were probably connected with an untapped reservoir of gas and which continued to gush out the petroleum in considerable quantities after many of the original gushers had begun pumping. A number of wells have been drilled deeper to a lower pay. The remaining oil must be won by the slower methods of pumping, as the gas pressure has been exhausted. The pumping wells average between 300 and 400 barrels per day.

As nearly as can be ascertained about 110 wells were pumping at the close of 1902, 20 were being connected up and drilled deeper, and 10 new wells were being drilled. Over 380 wells have been drilled in this pool since the discovery of the original well January 10, 1901, by Capt. A. F. Lucas. At this date this remarkable well began to spout unexpectedly, forcing out the water and over 1,000 feet of 4-inch tubing, and sending a solid column of petroleum 6 inches in diameter to a height of 160 feet after wrecking the top of the derrick. Until it was capped and the flow shut in on January 19, the production of this well for the nine days it was uncontrolled was not less than 75,000 barrels per day.

Physical Conditions Of The Beaumont Distbict.

About 4 miles southwest of the city of Beaumont a slight mound, known as Spindle Top, rises from the monotonous coastal plain, liarly explorers were attracted to this locality by the existence of several small flows of natural gas, which had been known since the early occupation, of the countr3 There were also three springs on the mound, the water of which was more or less charged with acid and sulphate of iron. Small crystals of native sulphur were also found on the surface by the early explorers. The elevation of this mound is

Ic

PETROLEUM. 57l

only about 15 feet above the general surface of the plain; its general contour is elliptical; the longer axis is about 3,300 feet and its breadth about 2,500 feet, and its area is less than 180 acres. The elevation of the summit is about 40 feet above the level of the sea. This area has produced all of the petroleum credited to the Beaumont district, and it is surrounded by a circle of dry holes, several of which have been drilled to a depth of from 2,500 to 3,000 feet, at that depth failing to find the productive strata or any indications of it.

In past years, before the Lucas well was put down, two attempts to drill wells were made, and one of these wells was located only 200 feet from the Lucas gusher. By a series of mishaps these holes were lost, and the project was for the time abandoned.

Soub Lake District. Deyelophent Of The Di8Tbict.

One of the most important events of the year was that of fully determining the existence of a large pool of petroleum at Sour Lake, in Hardin County, 20 miles northwest of Beaumont, which in quality closely resembles the petroleum produced in the Beaumont pool.

A number of shallow wells, probably five in all, were drilled in this locality previous to 1901. The earliest development dates back to 1893. Three of them found a small amount of heavy petroleum of 16° gravity in a loose sand at about 230 feet. During the summer of 1901 the J. M. Guflfey Company drilled a well in this locality that gave spasmodic flows of loose sand and mud accompanied with considerable petroleum and some gas at a depth of about 900 feet. Several pockets of gas were found that gave temporary flows in this manner, completely filling the casing for 700 feet or more. It was finished at 1,200 feet. In November a well was completed to a depth of 1,500 feet for the Great Western Oil Company, by Mr. Neil Sinclair, contractor, which encountered more or less loose sand alternating with clay and beds of gravel. Between 850 and 880 feet a sand was encountered which gave a big flow of hot salt water impregnated with sulphur; the water was at a temperature of 100° and was accompanied with some petroleum. At 1,040 feet four distinct petroleum sands were encountered, each about 10 feet thick and separated by a hard crystalline sand. The lowest of these sands contained some petroleum, followed by another flow of hot salt water over 100° in temperature. Then followed shale with boulders and some petroleum at 1,080 to 1,090 feet. From 1,090 to 1,400 feet there were hard and soft sands, the upper portion being very fine, and finally the last 100 feet was a series of beds of iron pyrites 6 to 10 feet in thickness, separated by beds of clay. None of these measures contained any signs of petroleum.

About the middle of March, 1902, the Great Western Oil Company secured a gusher at a depth of 683 feet, located near the original wells about 4rOO yards north of the hotel building at Sour Lake. After penetrating 40 feet of very nice oil sand, upon which the 8-inch casing rested, the 6-inch casing was pulled back and the well began to flow vigorously.

Three times after it was cleared it flowed a solid 8-inch stream 25 feet above the top of the derrick. This well is like the first one, except that it has much more vigorous, spasmodic flows, accompained with loose sand, which interrupts the flow of the petroleum and renders it difficult to keep the bore hole unobstructed. This sand has to be bailed out, and the valve closed for a time; then when the valve is suddenly opened the well will flow furiously.

During the year 1902 a number of wells had been completed, which produced from 600 to 10,000 barrels per day, the value of the field being thus fully established, although more or less trouble was experienced from choking of the wells by loose sand and boulders.

By the close of 1902 the J. M. Guffey Company had completed a pipe line connecting this district with Beaumont and another line was in process of construction. It is confidently predicted that this pool will add very greatly to the production of Texas in 1903, as the area now known is eight times as large as that of Spindle Top and the limits have not yet been reached.

Saratoga District.

Twelve miles northwest of Sour Lake the Saratoga pool is located, in which a few fair producers have been developed, whose production per day has been estimated at from 25 to 500 barrels of oil of a specific gravity of about 18 Baum. Only a limited amount of tankage has been erected in this district, and the capacit}' of the wells has not been fully established. Their depth is from 980 to 1,020 feet.

Indications seem to warrant the probability that this pool will be a prominent factor in the future, as it is operated so-far by large and conservative companies who have had experience and will avoid the wasteful methods of development practiced in the Spindle Top pool.

Cjorsicana District.

This pool is located at Corsicana, Navarro County, 200 miles northwest of Beaumont. Since 1897 it has produced over 500,000 barrels of a very superior crude petroleum very different from that found elsewhere in the State.

The output has shown a slight decrease in the last two years, and fewer wells have been drilled.

The greater portion of the petroleum comes from a .depth of 1,010 to 1,040 feet in a loose-grained quartz sand, in which foraminifera or

&gt;Uv Ic

Petroleum. 573

microscopic fossils are found. This bed of sand I'anges from 15 to 30 feet in thickness, and is capped by an almost continuous deposit of Ponderosa clay and marl. There are a few limestone concretions found near the surface. The original wells produced from 10 to 30 barrels per day when first opened up, and they are now producing about onehalf of that amount.

The area of the original field, as now developed, begins just south-, east of Corsicana, near the old reservoir, and extends in a general northern direction, taking in a large portion of the town and extending almost north for 4 miles, with an average of width of over 1 mile, the western boundary being very close to the line of the Southern Pacific Railroad. This field is fully equipped with all the modern appliances, including gas engines in some instances, for producing petroleum in an economical manner.

During the early part of 1901 a field of heavy petroleum was developed 5 miles due east of Corsicana, and also at Powell, 3 miles farther east on the St. Louis, Arkansas and Texas Kailroad. Some of the ie wells that produced over 100 barrels per day when first opened up are now producing only from 3 to 8 barrels per day.

Most of the wells find this heavy petroleum at a depth of 700 feet. A few to the east have found heavy petroleum at a depth of 4:00 feet.

The following analysis is given of Corsicana crude petroleum of 0.8206 specific gravity, by Mr. F. C. Thiele, in the Oil, Paint, and Drug Reporter:

Analysis of Corsicana petroleum.

Percent.

Specific gravity.

Naph t ha

Kerosene (illuminating product principally) . Refdduum

Total

Bexar County District.

Only a small quantity of heavy petroleum was produced in this pool in 1902. It came from wells 600 to 800 feet in depth near San Antonio and supplied a small local demand.

Nacogdoches County District.

Numerous shallow wells were drilled prior to 1895 near Oil Springs in Nacogdoches County some 12 miles southeast of the town of Nacogdoches. There has been a considerable outta} in drilling wells, establishing receiving tanks, and building a pipe line, all of which has been practically abandoned. Only a very limited quantity supplying a local

Ic

Petroleum-Producing Localities Of Texas, By Colnties.

The localities in which petroleum has thus far been developed in Texas, in greater or less quantity and of different density and composition, are arranged by the following alphabetical list of counties. The list is taken from Bulletin No. 18 of the University of Texas.

Andbbson County:

New Palestine. Sand impregnation. Bastrop County:

Near Elgin. Bell County:

Western part

Small quantities near Belton. Bexar County:

Bulnig Place, 7 miles south of San Antonio.

J. Linn Survey, 10 miles south of San Antonio. Brazoria County:

Kaiser Mound, near Columbia. Brewster County:

Six miles east of Terlingua, in bituminous shale. Brown County:

Brown wood. Burleson County:

Near Rita. Caldwell County:

Near Lockhart Clay County:

Two miles from Hurnville, north of Henrietta. Coleman County:

Near Trickham. Cooke County:

Muenster, west. Coryell County:

Gatesville. Denton County:

Reported 6 miles from Denton. Duval County:

Piedras Pintas, near Benavides. Edwards County:

Reported near Rocksprings. El Paso County:

Twenty miles north of Vanhom, in small amount. Gonzales County:

Near Ottine. Grimes County:

Near Keith.

Lamb Springs neighborhood. Hardin County:

Saratoga.

Sonr Lake. Jack County:

Ten miles north of Jacksboro. I

Ic

Petroleum. 575

Jefferson County:

The Beaumont field. Live Oak County:

Atascosa Creek , 12 miles north of Oakville. McCuLLocH County:

Near Milburn. McLennan County:

Near Waco. McMuLLEN County:

Crowther. Medina County:

Near Dunlay. Montague County:

St. Jo, east. Nacogdoches County:

Oil Springs, 6 miles south of Melrose.

Chireno. Navarro County:

The Corsicana field.

The Powell field.

Frost. Nueces County:

Puerto-Richard King's Ranch. Palo Pinto County:

Near Strawn.

One mile north of Mineral Wells. Pecos County:

Fifteen miles northeast of Fort Stockton.

Twenty-two miles north of Fort Stockton. Reeves County:

Pecos Valley, above and below Pecos City.

Nine miles north of Toyah. San Auguotine County:

San Augustine. Shelby County:

Near Timpson. Tarrant County:

Near Fort Worth. Travis County:

Walnut Creek, 9 miles north of Austin. Wilson County:

Sutherland Springs.

Mineral Besouboe8.

Production Of Petroleum In Texas.

The production of petroleum in Texas since 1889 has been as follows:

Prodiiction of petroleum in Texas, 1889-1 90£.

Year.

Quantity.

Year.

Quantity.

Total

This table gives the total quantity of crude petroleum produced and sold in 1902 as 18,083,658 barrels. In addition to this quantity 431,359 barrels were held in tanks by the companies which produced it, making the total production for the State 18,515,017 barrels in 1902. It is estimated that at the close of 1902 storage tanks contained about 7,300,000 barrels, leaving 11,215,017 barrels as the quantity which was either used locally or shipped from the State. The total production in 1901, excluding stocks, was 4,393,658 barrels. The gain of 1902 over 1901 amounted to 311.6 per cent. The value received for crude petroleum in 1902 amounted to $3,998,097, or 22.11 cents per barrel. Compared with 1901 the total value shows a gain of 220 per cent.

In the following table is given a statement of the production of crude petroleum in Texas in the year 1902, by districts and months:

Production of crude petroleum in Texas in 1902, [Barrels of 42 gallons.]

Month.

Beaumont. Conslcana.

Powell.

Sour Lake, etc.

Total.

January

February . .

March

April

May

June

July

August

September.

October

November. December .

Total 017,420,949

M8, 068, 658

a In addition to this quantity 431,359 barrels were produced and were still on hand and uuBOld by the producing companies in 1902. .. iiiiifiiincludes

a small amount of petroleum produced In Bexar County, -gitized by vj VJig

Petroleum.

The following table gives a statement of the production and value of crude petroleum at wells in Texas in 1901 and 1902, by fields:

Production and value of petroleum in Texas in 1901 and 190£. [Barrels of 42 gallons.]

Meld.

Quantity.

Value.

Value per barrel.

Quantity.

Value.

Value per barrel.

Beaumont

So. 175

S3, 563, 285

Powell

Sour Ijake, etr

Total

a4. 898, 668

a Includes small production of petroleum in Bexar County. PEODVCTION OF STOCKS IN THE BEAUMONT DISTRICT.

From the foregoing table is derived the following statement of production and stocks in the Beaumont district in 1901 and 1902:

Total production in Beaumont district for 1901 and 190S,

Barrels.

Production in 1901, including stocks 6,185,883

Production in 1902, including stocks 17,862,308

Total production, including stocks, in 1901 and 1902 . .'. 23, 038, 191

The stock in tanks at the close of 1901 and 1902 in the Beaumont field was as follows:

SlQck of Beaumont petroleum in tanks at the dose of 1901 and 190S,

Barrels.

Stock in tanks on January 1, 1902 1,592,770

Increase at the close of 1902 5,707,230

Total amount in tanks at the close of 1902 7,300,000

Shipments during 1902 10,562,308

Total production 17,862,308

The value of the stocks held by the producing companies, many of which are also consumers owning their own refineries, is placed at the average of that portion sold, as there are no large companies purchasing the product and storing it, as at Corsicana and in other fields.

New Mexico.

The following summary is from the annual report for 1902 of the governor of New Mexico, which gives an interesting description of recent oil discoveries in the Territory, and the efforts now being made to develop various deposits.

Quadalvpe County. — The oil deposits in this county, in the Salado refirion and near Santa Rosa, are being systematically developed.

M B 1902-

Capital has become interested in these oil fields, and drilling for oil, with every indication of success, is in progress.

In the oil fields 4 to 8 miles north of Santa Rosa the rock is asphaltum rock, and the oil oozes to the surface at various places, especially at the so-called springs on the Perea grant.

San Juan County, — This is considered a very good oil-bearing district. A number of companies have been organized for the development of oil, and one company is drilling a well near Farmington, while others are making preparations to do so. The San Juan oil lands comprise, as far as now explored, about 100,000 acres, of which 60,000 have been already filed upon.

Colfax County. — This county is now being exploited through the enterprise of Dr. J. J. Shuler and other citizens of Raton and also of Colorado Springs capitalists, and $15,000 has been raised for driving a well. This work is now in progress some 2 miles from Raton, and the well has reached a depth of 2,300 feet.

Union County. — Indications of oil can be pointed out along many streams in Union County, and often in drilling for water very promising oil indications are struck.

Eddy County. — From the Texas boundary to within a few miles of Carlsbad are fine indications of oil. A number of local companies have been organized to develop these oil indications.

Lincoln County. are excellent indications of oil in this county, which is famous for its mining enterprises. A great deal of capital has been brought into the county recently, and all its resources are in a fair way to be largely developed.

Otero County. — Indications of petroleum and gas have lately been struck in one of the canyons a few miles from Alamogordo. Timber and coal are plentiful, which makes the region ideal for the prosecution of mining enterprises of all kinds.

Utah.

There has been considerable prospecting during 1902 in Utah, in Emery County, on the Green River, where a limited quantity of highgrade lubricating petroleum was developed by the San Rafael Oil Company. There was also some petroleum developed in the Sinbad field, 25 miles southwest from Green River station; and near Bluff, in San Juan County, there were a number of shallow wells drilled, which developed a small quantity of lubricating petroleum.

This State in former ears produced a considerable quantity of natural paraffin or black wax from localities in the Sanpete Valley, east of Salt Lake, which were soon exhausted. At the present time several varieties of solid hydrocarbons, somewhat resembling albertite, are mined in these seams.

Petboleum. 579

Nevada.

The presence of petroleum in paying quantities has not yet been developed in this State. Several wells have been drilled in the vicinity of Elko, and although several sands and shales somewhat similar to those holding petroleum in other sections have been penetrated, they are destitute of oil so far as tested in this locality.

Indications of petroleum are reported in Lincoln County.

Montana.

A number of petroleum springs or seeps are known to exist in two localities in Montana. One of these localities is near the Canadian boundary separating Montana from Alberta, east of the Flathead River, in Flathead and Seaton counties. The recent strike reported to the north of this section, in Alberta, on the waters of the Kootenay River, has added additional interest to this section.

The other section of the State in which numerous seeps are known to exist is in southern central Montana, in the counties of Sweetgrass and Carbon. The latter county adjoins Wyoming. Three wells have been recently completed in Carbon County, north of the foothills of Bear Tooth Mountains, where the formations exposed are a series of sandstones and shales. Some of the sandstones carry beds of quartz pebbles that are in some instances 40 feet thick. The deepest of these wells was 1,400 feet; two others, located farther north, were from 300 to 400 feet in depth. All of these wells are reported to have developed a showing of heavy petrolemn. Thus far nothing more has been done toward the testing of the many surface indications.

There are also indications of petroleum reported in Beaverhead County, in the extreme southwestern portion of the State.

In connection with the numerous discoveries of oil fields, it is interesting to note the discovery of an extensive field of petroleum shale in Montana similar to the deposits in Utah from which large quantities of the finest oils are distilled.

These fields are located about 60 miles northeast from Helena,, and on unsurveyed lands, which fact has largely retarded development. But enough work has been done to prove the existence of a stratum of the shale from 6 to 12 feet thick, covering an area of from 3 to 5 miles in extent.

The shale has been tested by experts of experience in the raw material and in the distilled product, and has been pronounced of as high character as any to be found in the United States, and the deposits are said to be of great commercial value.

Washington.

During the year 1902 a number of test wells were completed in Chehalis County on the Pacific coast north of Grays Harbor, none of which found petroleum in paying quantities, although there was considerable gas encountered. Some petroleum was reported to have been found at La Push above the Hoh River, in a well completed during 1902. The wells completed north of Spokane were entirely devoid of petroleum or natural gas. So far the prospects in this State are not encouraging, but there is ample room yet for the development of a paying field in Washington.

Oregon.

A number of test wells were drilled in 1902, in Lane, Douglas, Jackson, and Wasco counties, none of which found petroleum in paying quantities. In Josephine County there are several springs in which a film of petroleum is found floating on the top of the water.

California.

Cmxdition of the industry, — The increase in the production in California during the year 1902 was remarkable, although there were fewer wells drilled than in the preceding year, and during a portion of the time operations were partly suspended for want of the transportation of the production that had accumulated. Even imder these conditions the production and sale for the year 1902 were 13,984,268 barrels, the product of nearly 3,000 wells, as compared with 8,786,330 barrels produced and marketed during 1901. The value, however, $4,873,617, was less in 1902 than in 1901 by $100,923. The average price received during 1902 was 34.8 cents, as compared with 56.6 cents in 1901, At the end of 1902 there were stored at the various places of production 3,850,000 barrels of crude petroleum awaiting transportation.

The existence of such quantities of cheap fuel, which by pipe line and ocean freight may be conveniently transported to San Francisco, must add materially to the prosperity of this already prosperous State.

The imports of bituminous coal from foreign coimtries fell ofl 400,000 tons during 1902, and the domestic imports were 25 per cent less than in 1901. It has been estimated that, when the railroads of California are fully equipped for the use of liquid fuel, they alone will consume 8,000,000 barrels per year, and that the other industries in the State will use 5,000,000 barrels more when the improved methods of transportation have become fully established.

Petboleum.

Production Of Petroleum In California.

In the following tables is shown the production of petroleum in California by years, by counties for 1902, and by counties for various years:

Production of petroleum in California, 1876-1902,

Year.

Quantity.

Year.

Quantity.

PrevioiiB to 1876 ...

Barrels. 176,000 12,000 13,000 15,227 19,858 99,862 128,636 142,857 262,000 325,000 877,145 678,572 690,333 808,220

Total

Production of crude petroleum in California in 1902, by counties.

County.

Quantity.

Total value.

Value per barrel.

Fresno

Barrels. 572,498

'1,800

Kem

Los Angeles

Orange

Santa Barbara

Ventura

San Mateo

Total

Mineral Besouroes.

Produdwn of crude petroleum in California, 1S97-190S, by counties. [Barrels of 42 gallons.]

County.

Fresno

Kern

Lob Angeles —

Orange

Santa Barbara. .

Santa Clara

Ventura

Unapportioned .

J.

Total production

Total value

Average price per barrel .

I Si, 918, 569

Si. 00

S2, 376, 420

Si. 05

Production and value of crude petroleum in Galifomia in 1900, 1901, and 190e, by

counties,

County.

Quantity..

Value.

Quantity.

Value.

Quantity.

Value.

Fresno

Kern

Loe Angeles

Orange

Santa Barbara

Santa Clara .

Ventura

San Mateo...

Unapportioned

Total

Value per barrel

1

Alaska.

Alaska contains numerous surface indications of petroleum, beginning at Cape Yaktag, about 400 miles northwest of Sitka, and extending to Cape Martin, about 35 miles east of the mouth of the Copper River, a distance of 80 miles. The prospective territory is on the mainland, and extends from the coast line from half a mile to 4 miles inland, and its promising oil indications have invited many explorers to this wild region. There are found in this section of Alaska remarkable pools of crude petroleum from a foot in diameter up to 10 or 15 feet, and many of the streams emptying into the ocean carry a continuous film of petroleum. Farther back from the coast, in the Elayak region, there is a series of sandstones which carry several veins of bituminous coal from 3 to 8 feet in thickness.

One of the original discoverers of these surface indications was Mr. R. C. Johnson, who ran across them while exploring the numer-

Petroleum. 588

ous small creeks along the ocean for gold. In 1896 he organized the Alaska Development Company, whose stock was largely taken by English capitalists, and which is now known as the Alaska Steam Coal and Petroleum Syndicate. This company, after many unsuccessful attempts to drill a well, succeeded in getting one down late in the summer of 1902, which, at 365 feet, gave very promising results. This well was located on one of the small streams entering Catella Bay from the east on a low divide extending toward Point Hay, where there were abundant surface exposures and small feeders of petroleum constantly coming to the surface.

From Catella Bay to the east there are numerous springs and pools of petroleum, accompanied by natural gas and water, and highly charged with sulphur, extending to the mouth of the Chilkat River and up this stream for several miies. Still farther east, as far as Cape Suckling, but several miles inland, there are other surface indications.

The following is a record of the well completed as reported by the Alaska Steam Coal and Petroleum Syndicate, before referred to:

Log of well exiA of Catella Bay, Alaska, drilled m 190.

Formation.

Feet.

6 feet surface drift

140 feet light-colored shale ,

18 feet fine-grained sandstone

One-half foot coal contained In the sandstone

190 feet dark shale, very hard

One-half foot quartz containing iron pyrites, and contained in the shale. 1 foot oil sand and flow of oil

Total

Length of 12-inch casing

Length of 9|-inch casing

Numerous small showings of petroleum and natural gas were encountered as the drill proceeded down, and when at 366 feet a large quantity of oil was developed, which flowed some petroleum. The well is said to have continued to flow until it was capped.

An analysis of this petroleum is said to be as follows:

Analyttis of Alaska petrolexvm from Catella Bay well.

Specific gravity at 60° F. 0.7958, equal to 46.9° Baum.

Cold test did not chill at 3° F. below zero.

Per cent.

Distillation below 150° C, naphtha 38.5

150° C. to 285°, illuminating petroleum 31

Above 285° C, lubricating petroleum 21.5

Residue, coke and loss 9

Total j4ifeQdby.vjD.aeie

The petroleum is said to have a paraffin base.

Such a strike has caused the influx of a great number of prospectors and petroleum operators who have located a vast number of mining claims in this region. A second well is drilling not far from the original well owned by the Alaska Steam Coal, and Petroleum Syndicate, which at this writing has not found any petroleum.

There are some indications of petroleum near Innerskin Bay on the northwest shore of Cooks Inlet. This territory has been partially tested by a well recently drilled, but no very promising results have thus far been secured.

Petroleum indications are also reported on the Yukon River near Nulato, also near Cape Sabine on the Arctic Ocean near the sixty-ninth parallel.

The serious difficulty in developing the oil territory of Catella Bay, generally known as the Kayak petroleum field, is the absence of any harbor. Controller Bay is very shallow, and the mouth of Catella Bay is obstructed by a bar. A pipe line could, however, be laid from the present development across Controller Bay, a distance of 18 miles, to Big Kayak Island, where near the northern extremity there is a superior landlocked harbor.

Foreign Countries Of The Western Coisttinent.

Canada. Ontario.

For over twenty years there has been a gradual decline in the production of petroleum in Canada. This decline has been heaviest in the Oil Springs pool, while on the other hand the Petrolia district has continued to produce from 70 to 80 per cent of the entire output, with a regularity that is surprising.

The other sections of Canada where petroleum is known to exist have thus far failed to supply any petroleum in conunercial quantities. This is true of the provinces of New Brunswick, Quebec, Nova Scotia, Cape Breton, Alberta, and British Columbia. These localities are thousands of miles apart and the western provinces embrace large areas of unexplored territory, which may some day contribute vast quantities of fuel and illuminating petroleum.

The present production of crude petroleum is only sufficient to furnish about 50 per cent of the total amount consumed in Canada, the remainder being imported principally as illuminating petroleum from the United States. There is a government tax of $1.75 per barrel on the refined product, while the tax on the crude article is just one half this amount.

A very large proportion of the cinide petroleum produced is converted into merchantable products, by the ImperiufcyQiiiCompany

Petroleum. 585

(Limited), which is located at Sarnia at the mouth of the St. Clair River, and which is connected with Petrolia and Oil Springs by pipe lines. A very complete refinery, though of moderate capacity, which belongs to the Canadian Refining Company (Limited), has also been recently erected at Petrolia.

Toward the close of the year 1902 there was a large well drilled a few miles southeast of Chatham, which caused considei-able excitement. Of the numerous wells drilled on the strength of this first producer only a few paid, and the great majority were either dry or were wells of very moderate capacity. The new field is credited with producing only 2,462 barrels in 1902.

Nearly 10,000 wells in Canada produced only 519,846 barrels of petroleum in 1902. Of this number 8,100 were operated at Petrolia and vicinity; about 1,050 at Oil Springs, Euphemia, and Smiths Falls; 95 at Dutton; 210 at Bathwell, and 35 at Northwood and Chatham. The entire field is a few miles east of the St. Clair River in Ontario. The oil is found in a peculiar porous streak in the Corniferous Limestone from 2 to 5 feet in thickneas, which invariably has to be shot, that is, torpedoed, before anything like the usual amount of production can be secured.

The depth of the oil-bearing strata is on an average about 466 feet. The wells are very successfully operated in large clusters or groups, and the whole work is carried on in the most economical and businesslike way. The character of the petroleum produced at the wells is very similar to that found in the Lima, Ohio, and the Indiana fields. It contains a considerable proportion of sulphureted hydrogen, which makes it difficult to refine, as it is necessary to remove this gas from the merchantable article owing to its offensive odor.

Quebec.

OapeBay. — The Canadian Petroleum Company continues to operate in this portion of Canada, and preparations are being made to complete a refinery in this locality. Diligent search, however, has failed to establish the existence of any large amount of petroleum in this district.

New Brunswick.

A number of wells have been drilled in the vicinity of Memramcook, south of Moncton, in Westmoreland district. Several of the wells have produced a fair quantity of a superior grade of petroleum. Lately two deeper wells, that found the oil sand at about 1,450 feet, have been drilled. A pumping plant is nearing completion, and a refinery, with a capacity of 400 barrels per day, has been begun, at which benzine, naphtha, and illuminating and lubricating oils will be extracted from the crude petroleum. For the present the more complex residuum will not be further treated, but will be used for fuel. The production comes from the Iower Carboniferous measures.

NOVA scxxnA.

After sevei-al expensive tests by deep wells, the region near Lake Aimslie has been abandoned for the present. The succession of slates and sandstones are very similar to those found in the Pennsylvania and West Virginia oil fields.

Cape Breton.

There are some surface indications of oil in the northern portion of Cape Breton, but the territory has not yet been tested.

Alberta.

In the southwestern portion of Allerton a well of considerable showing of petroleum was drilled in toward the close of the year on the waters of the Belly River, not far north of the line of the United States. Unfortunately the tools became stuck at a depth of about 1,200 feet, just where the oil-producing formation was A well was drilled also near Calgary, on the main line of the Canadian Pacific Railroad, which at a depth of 1,020 feet found a considerable quantity of petroleum of a superior quality.

Several years ago a well of some importance was secured near Edmonson. Still farther north, following along the Athabasca River, in the Athabasca district, there are numerous indications of petroleum, reaching to the Pacific Ocean. There are conditions in the central and western portions of British Columbia similar to the regions producing petroleum in California on the south and Alaska on the north, and that will in all probability produce petroleum in quantity in the future when there are sufficient facilities for trans{)ortation. At present this region is almost an unexplored wilderness.

Newfoundland.

Although there are numerous indications of petroleum along the northwestern margin of Newfoundland, and although a number of wells have produced more or less petroleum, yet so far there seems to have been little progress made in securing a profitable yield. The petroleum of this region is found in the oldest known producing strata correlated with the Quebec group, and the Chazy and the Trenton, and for this reason it is watched with considerable interest, as there are many similar geological conditions on the east flank of the Appalachian Mountains in our Southern States.

Petroleum.

Production In Canada.

The following is a statement of the production of crude petroleum in Canada in the years 1898 to 1902, inclusive, by districts:

Production of crude petroleum in Canada, 1898-1902 , by distrids. [Barrels of 86 imperial gallons, or about 42 standard gallons.]

District

Petrolia

a528,641

M07,487

Bothwell

Plympton

Dawn...

Eaphemia

Zone

Baleigh '

Total

a Includes production from Plympton. b Includes the production from Dawn, Buphemia, and Zone.

There has been a considerable decline in production in 1902 as compared with previous years — mainly in the Petrolia district. The new development southeast of Chatham, known as the Saleigh district, opened up toward the close of the year, appears in the table for the first time. Canadian oils and napMka inspected and corresponding quantUies of crude oil, 1881-1902.

Year.

Refined oils inspected.

Crude equivalent calculated.

Ratio of crude to refined.

Production

of crude

petroleum.

Average

price per

barrel of

crude.

Value of crude oil.

ImperUd gculong.

u 11, 123, 194

Imperial gallons.

Barrels. 368,967 389,678 472,867 571,000 587,668 684,061 718,728 704,690 755,298 779,752 796,406 726,138 726,822 709,867 758,391 811,427 913,496 756,679 630,62

i.m

Jiitizei

a Petroleum and naphtha.

Minebal Besoubges.

Trinidad.

Recent wells completed a little north of the famous Pitch Lake of the island of Trinidad at Guayaguayare in the extreme southeastern portion of the island, have developed one well in this lo'cality which is said to be good for 40 barrels per and another good for 10 barrels, at a depth of 1,140 feet. The petroleum developed by these wells is said to be quite light in gravity, although very dark in color. Several other well locations have been made, and a thorough test of the possibilities of the island as a producer will be made.

For many yeara past inunense quantities of asphaltum have been taken from Pitch Lake on this island, without any apparent exhaustion of the supply.

Argentina.

Petroleum springs are found on the surface in some places in Argentina, the best known of which are Garrapatal and La Brea, their origin being due to subterranean deposits of unknown depths. The appearance at the surface through narrow crevices in the rocks is easily explained by the fact that gases generating in the interior naturally seek an exit, and force the liquid to the surface. These springs have existed for a long time, and the air has condensed and hardened the oil and converted it into a kind of asphalt. In this manner is formed a mixture resembling tar, out of which the oil oozes at the places mentioned. Near these springs are also found hot springs and sulphur springs. Another proof of subterranean vapors of great expansive force in the provinces of Jujuy and Salta is the frequent occurrence of earthquakes in that vicinity. Petroleum springs are also found in Vachenta, province of Mendoza.

Petroleum is found on the east slope of the Andes Mountains, in southwestern Argentina, not far from the town of Mendoza, and also at other places in the Republic. It is used principally for locomotive fuel.

Peru.

Peru is the only country in South America that produces any refined petroleum.

Production of petroleum in Zorritos oilfield of Peru, 1896-190g, [QalloDfl.]

Year.

troleumT defined.

ing oil. Benzine.

806,900 a400,000 a282,430 a373,250

Jigitiz4d by

Petroleum. 589

Countries Of The Eastern Continent.

Russia.

Condition of the indu8try, — For the first time in eight years the output of crude petroleum in Russia in 1902 has shown a decline. The decline is not very large; it amounts to 4,628,512 barrels, equal to 6 per cent. The production for 1902 was 80,640,044 barrels; that of 1901 was 85,168,656 barrels, the latter being the largest output of crude petroleum in any country in the history of the development up to that date.

This decline in the production in 1902 was due to several known causes, and not to any lack of supply in the original reservoirs. The principal reasons for the decline in the output are the want of organization among the producers as a whole, the inferior means of storage and transportation, and the very heavy tax imposed by the Russian Government upon certain territory that is controlled by it. This tax is based upon a minimum production, and compels the operators on the Government leases to work their wells up to their limit and make forced sales. The quantity thus thrown on the market was so large that at times the price received was less than the tax paid. The average price for crude petroleimi was 20 per cent lower than for the year previous.

A new field was developed in December, 1902, by a well drilled by the Nobel Brothers near Berekei Station, on the Vladikavkas Railroad, 170 miles northwest of Baku. The petroleum is said to be of superior quality and entirely disconnected from any other development, and it may become a prominent factor in the future. The present output is only about 1,000 barrels per day. The Bibi-Eibat district produced the largest quantity of petroleum from flowing wells, showing an increase of 40 per cent in 1902 over 1901.

There was a large flowing well or spouter drilled in during the year on the Rothschilds plot. No. 25, at Romany, which yielded about 80,000 barrels per day. Another well on an adjoining property, belonging to Polock & Co., flowed naturally at the rate of 100,000 barrels per day. A large area in the Romany Valley was covered by this great output from the two spouters mentioned. The proportion of crude supplied from the flowing wells amounts to 15 per cent of the production, which is very close to the proportion of last year, although the work in drilling and deepening was much greater in 1901 than it was in 1902.

The Grosni field continued to produce regularly, the output for 1902 being nearly the same as for 1901.

The demand for fuel petroleum continues, although the price declined from an average of 38 cents per barrel in 1901 to 33 cents per barrel in 1902, a loss of 5 cents per barrel.

Mineral Besoueces.

Close to 50 per cent of the entire output was disposed of as fuel petroleum or residuum. The amount thus consumed reached between 38,000,000 and 40,000,000 barrels in 1902, and would require 13,500,- 000 tons of Russian coal to replace it.

In the body of this report will be found a detailed statement of the various conditions of the industry in Russia for the year 1902, compiled by Mr, James C. Chambers, United States consul at Batum.

Production In Russia.

Total production of crude petroleum in Russia 1897-190,

Year.

Apsheron Peninsula.

Orosni.

Total.

Comparative produdion of crude petroleum of Russia and the United States, 1894r'190S.

Year.

Russia.

Profitable production.

Gain or loss.

Percentage of gain or loss.

United States.

Production.

Qain or loss.

Percentage of gain or loss.

Production of Russia in percen age of production of United States.

Percentages of worlds s prodtujtUm of petroleum in 1901 and 190iS, by countries.

Percentage of total crude produced by Russia

Percentage of total crude petroleum produced by the United States

Percentage of all other countHe prodnciTg

Total

Peteoleum. 591

According to London Engineering, the petroleum deposits in Fergana, the most easterly of the Russian provinces in Central Asia, are at present attracting considerable attention. Petroleum seems to exist in almost all parts of the province, and it is in many places found together with a black asphalt-like substance, which is called "kirr," and which is already being somewhat extensively exploited for asphalting purposes. The richest deposits appear to be in the Andishan district, along the borders of the river Malu-Su, and in the Margelan district. The former have recently been examined and a number of borings carried out. The latter, known as the Tschinison deposits, are situated some 16 miles from the town of Margelan and about 12 miles from the railway station of Vannowskoja, on the Central Asian Railway. These deposits have already been worked, in days long gone by, by the Chinese, it is surmised, but when the Russians took possession of the province the petroleum industry was revived in a primitive manner, although the yield was somewhat important. The matter was again dropped, from want of capital and want of transport, but the building of the Samarkand-Andishan Railway gave a fresh impetus to exploitation, and a company has been formed with a capital of 250,000 rubles. The oil-carrying layers are located at a considerable depth, probably about 1,000 feet. Preparatory work for the construction of a pipe to the Vannowskoja Railway has already been commenced, and the building of large tanks is under contemplation. The petroleum is likely to find a ready sale for the Central-Asian and the Orenburg-Taschkent railways.

Austria-Hungary. Gaugia.

Condition of the industry. — The very remarkable production to the South of the old town of Boryslaw in central Galicia, which for many years has supplied the wonderful mineral wax or ozocerite, has completely demoralized the production in the older fields scattered along the flanks of the Carpathian Mountains for 200 miles. The deep wells in the Boryslaw field began to produce largely at the close of 1901. The year 1902 developed a number of these deep gushers, several of which at a depth of 900 meters, or about 3,000 feet, have flowed as much as 3,500 barrels per day, and even at this depth the oil-bearing stmta has not yet been exhausted. The price of crude petroleum was greatly depressed by these large flowing wells, so that very few pumping wells in the other fields could be operated at a profit. The price declined as low as 1 crown, or 50 kreuzers, per 100 kilos, equal to 32 cents per barrel. Many of the wells had to be closed down, as the tankage and railroad facilities were overburdened. This low price must certainly stimulate capitalists to devise some plan by which this

Ic

article can be marketed in the outside countries. Germany would probably take the crude petroleum in large quantities, but the Austrian refiners want to reap the benefit of refining the crude. It is highly probable, however, that it will finally find a market in Germany either in the refined or in the crude state.

As a fuel oil, it should find a ready market at much better prices than those quoted, as there is a great scarcity of good bituminous coal in this portion of Austria.

There is no doubt that a strong company, having sufficient capital and with the proper franchises, could arrange to market the present production of Ghilicia at a profit, if it were possible to get the producers to give the necessary united support and thereby reap the benefit due to them. The output of petroleum in Galicia places it second in the list of producing countries in Europe and Asia, the output being about 2 per cent of the entire world's production. The importation of colored distillate, classed as crude, from Russia to Fiume, which amounted in the last sixteen years to 12,729,410 metric centners, or 9,166,000 barrels, ceased in the year 1900, owing to the increased duty imposed by the Austro-Hungarian Government.

The Galician Petroleum Association have just published interesting data relative to the petroleum industry of Galicia in 1902. It is stated that the total quantity of crude oil produced in Galicia last year amounted to 576,000 metric tons, exclusive of the quantity used as fuel at the oil fields. The increase in production, as compared with 1901, amounts to 123,800 metric tons, or 21.35 per cent. From 1896 to 1900, inclusive, the output increased by about 300,000 tons. The increase in the production is almost exclusively due to the prolific wells at Boryslaw, the production in other districts compared with 1901 having changed but little. Boryslaw alone produced last year 261,220 metric tons, or 46 per cent of the total production of Galicia. In eastern Galicia 467,300 tons were produced; in western Galicia there were only 108,760 tons. The greatest proportion of the production (60 per cent) was produced by foreign companies, Galician firms contributintr only 40 per cent.

It is specially interesting to note the average productivity of Galician wells. The number of borings at the end of 1902 was 1,824. Thus the average production per well for the year amounted to 316 tons. In western Galicia the average production per well per annum amounts to 120 tons; in eastern Galicia to 600 tons. In Boryslaw, where the oil is produced exclusively by spouters, the average production per well for the year is 3,000 tons.

As the development of the petroleum industry in Galicia at the present moment depends very largely on Boryslaw, where all the boring operations are concentrated, while in other localities the operations are limited to bailing old wells, the local conditions must be taken into account in order to form an idea of what the production in

Petkoleum.

Galicia may be in the near future. In the opinion of geologists the oil deposits of Boryslaw are not likely to be exhausted for some years.

At the end of 1902 there were at Boryslaw 125 wells in course of boring. Assuming that one-half of these wells are completed in course of 1903 and that one-third are productive during the whole year, and allowing an output of 3,000 tons per well, this would represent an increase in production for the year of 120,000 tons.

During the year the Austro- Hungarian refineries treated 490,230 metric tons of crude oil, and of this, 83,870 tons, or including remainder of stock left over from 1901, about 140,000 tons, could not find a market in Austria- Hungary, which was the cause of the great fall in prices. It may be mentioned that in 1902 the Austrian refineries exported to foreign countries 30,960 tons of burning oil, for the manufacture of which 80,000 tons of crude oil were required, which was sold to the refineries at a specially low price. Thus, as the quantity of crude oil required for kerosene in Austria-Hungary was only from 410,000 to 420,000 tons, the remaining 150,000 tons must be disposed of abroad in the form of kerosene or crude, or be used up in the country for fuel purposes in order to obviate overproduction. In all probability this will be avoided by the export of kerosene abroad, mainly to Germany.

The data given below show the development of the Gralician petroleum industry. Up to the year 1894, inclusive, the figures are taken from the statistical reports of the Austrian ministry of agriculture, and those since 1895, inclusive, from the reports of the Galician Petroleum Association:

Production of crude petroleum in Galicia 1886-1902, by districts.

Year.

Quantity.

Dlatrict.

Meiric tons.

Gorllce district (Kryg, , Libuaza, Slary, Sekowa, Kobylanka, Mencina, Woitowa Harklowa); Bobrka; Lodyna, near Ustrzykl; Roplanka, near Dukla; Sloboda: RunKureka.

The above districts and WIetrzno, near Bobrka, Weglowka, near Kioeno, Wankowa, and Ropienka, near OLazanlca.

Same, and Rowne, near Dukla.

Same.

The above, and Strzelbice and Stary Sambor.

The above, and Patok, near Krosno.

The above, and Torogzowka, near Krosno; Brellkow, near Olszanlca.

Districts as in 1886.

Districts as in 1886, and Schodnica.

Districts as in 1886, chiefly Neu Sandez to Sanok and Llsko to Stryj.

Chiefly the second named In above.

Chiefly the second and Pasleczna.

Do.

Do.

Jigitized by

M B 1902 38

HDSrERAL BESOUBCES.

The following table gives a comprehensive idea of the exploitation of the fields in 1901:

Production of crude petroleum in QoJicm in 1901, by districts.

Number of bore hole—

Number of —

District.

With

traces of

oU.

Productive.

Under boring.

Producing firms.

Producing wells.

Wells In boring.

Quantity.

Nftii 'ris. Gorllce

N 400

Metric torn.

Jaslo,* Ktosdo, Sanok

Ldsko, Chyrow

Stryj, Drohobycz

RtaniRlaw. Kolo?neft, , - - , ,

The producing localities and productions are divided into five districts, of which Neu Sandez, Gorlice, and Jaslo, Krosno, Sanok are in the mining district of Jaslo; Lisko, Chyrow in the mining district of Drohobycz; Stanislaw, Madworna, Kolomea in the mining district of Stanislaw.

The total number of petroleum properties in Galicia in 1901 was 240, in 78 localities, of which 166 produced oil, 36 had started boring, and 38 had given up operations.

Pboduction Is Qalicu.

In the following table is given a statement of the production of crude petroleum in Galicia from 1886 to 1902, inclusive, as ascertained by the statistical bureau of the Galizischer Landes-Petroleum-Verein, Lemberg:

Production of crude petroleum in Galicia 1886-1902,

Year.

Quantity.

Metric centners.

Barrels qf ii gallons.

Year.

Quantity.

Metric centners,

Barrels qf iSffoUons,

Petroleum.

The following equivalents of value, weight, and length are given:

1 crown =20. 3 cents.

1 florin or gulden s=40. 2 cents.

1 metric tons=2,204.62 pounds.

1 metric ton =7. 1905 barrels of crude petroleum of 42 gallons =2, 204.62 pounds.

1 kilo=2.20462 pounds.

1 gallon refined petroleum =6.6 pounds.

1 gallon crude petroleum =7.3 pounds.

1 quintal or 1 metric centner of refined petroleum=0. 795317 barrel of 42 gallons.

1 quintal or 1 metric centner of crude petroleum =0.71905 barrel of 42 gallons.

1 kilometer=3,280.89 feet=0.6213 mile.

Statistics Of 4Iialician Peticoleux Fields In 1901 Amd 1908.

The following table gives the statistics of the Gralician petroleum fields in 1901 and 1902:

Number of properties and qfweUs by districts.

Number of

Nmnber of wells.

District

properties.

In boring.

In exploitation.

Total.

S4

Metric tons.

Metric tons.

Drohobycza

f?tAriiiiLw

Total

a Includes Boryslaw. Number and capacity of reservoirs.

District.

Number of reservoirs.

Total capacity.

Jaslo

Metric toru.

Metric tow,

Total

a Includes Boryslaw. OZOCEBITE.

This solid hydrocarbon is also known as mineral wax, and, under the name of paraffin, is a constituent of the crude petroleum found in the eastern fields of the United States and in many of the European fields, the exceptions being chiefly California and Texas in this country, Peru in South America, and Japan and Borneo in Asia. by vjuuiC

Some deposits of a mineral closely related to ozocerite, mined in former years in Utah, were finally exhausted. Immense quantities are extracted from the crude petroleum found in the Pennsylvania and the Lima (Ohio) fields, and also from the crude petroleum produced in Galicia, Roumania, Sumatra, and India.

The principal natural supply comes from Boryslaw, in Galicia, where it has been mined for a number of years by shafts from 30 to 200 meters in depth, from which lateral galleries are driven.

It is necessary to force a large amount of pure air into these workings to carry off the natural gas, which is more or less abundant and which in the past has caused serious explosions, involving the loss of many lives.

As the production does not vary greatly from year to year, the conditions are probably quite similar at this time to those obtaining in 1899, when the condition of the industry was described by the Petroleum and Mining Review. According to that journal ozocerite is found in Austria-Hungary, Roumania, Egypt, Algeria, Canada, and Mexico, generally mingled with rock salt and coal. But so far it has not been discovered anywhere in sufficient quantity to give rise to a lucrative exploitation, except in the district of Boryslaw, in the province of Galicia.

From an official investigation made in 1898, it is stated that during the previous year the Galician mines of ozocerite covered a surface of 956,885 square meters, exploited by 42 firms, and employing 5,413 persons, and the production at that date had amounted to 77,586 quintals, or 8,554 tons.

In 1899 there were exported from Austria 54,413 quintals, or 6,000 tons of ozocerite, valued at 2,149,900 florins, or 1864,260, of which 68 per cent, or 37,367 quintals, were for Germany. The rest was shipped to France, Great Britain, and other countries.

In the same year 11,210 quintals, or 1,236 tons, of refined ozocerite, of the value of 588,500 florins, or $236,577, were exported, but for several years past the exportation of the refined product has diminished.

An ozocerite mine is opened by digging pit, which is put in communication by means of galleries with the deposits of the wax. It sometimes happens when a mine is opened that the enormous pressure of the accumulated gases causes the soft wax to spurt out with violence. Such accidents endanger the lives of the miners, who ai'e obliged to flee to the higher parts of the mine. In certain cases the pressure is so strong that the whole excavation is filled with the wax to the surface. Previous to 1884 the annual average of the deaths caused by such accidents was nine in a thousand. Lately, however, measures have been taken by the Government to protect the lives of the miners. Mineral wax is never found in a pure state, and for exportation must be freed near the mine of the fpreiffninatters con-

Pktboleum. 597

tained — earth, small stones, etc. For this purpose it is put into vats heated either by open fire or by steam. In the first case the fire chamber is so arranged as to heat the sides as well as the bottom of the vat, for otherwise the vat would become superheated, which would cause a partial distillation.

The greater part of the ozocerite produced in Austria, says Le Chimique, is converted into ceresin. There are about twent} refineries, and it is doubtful whether two of these refineries employ the same process. In most of the refining factories the wax is mingled with from 6 to 10 per cent of sulphuric acid, heated, and filtered through bone black or charcoal, which imparts a clear yellow color.

It is treated anew with sulphuric acid and finally with caustic soda, until no trace of acid remains. Efforts have been made with some success to replace sulphuric acid with benzol; in this case the solvent must be eliminated by distillation.

Roumania.

Condition of the vnchisi/ry. — The natui*al resources of petroleum in Roumania are much greater than its production would at the present time indicate. Its geographic position and its imdeveloped possibilities will one day place it among the most important producers of superior grades of petroleum and its derivatives. Progi*ess toward the improved methods of developing the known petroleum fields is slow, as a large percentage is produced from hand-dug wells. The facilities for transportation and storing the comparatively small amount of petroleum that is now produced are inadequate. The pipe lines in existence are short, reaching only the nearest railroad station or an inland refinery. The railroads are the principal method of transportation, and their rates are necessarily high on both the crade and the manufactured products, and the facilities are inadequate to the demands of a country that is capable of so large an increase in its production. The crude petroleum should be refined inside of its borders, as thereby numerous incidental industries will be benefited.

Koumania is a large importer of English coal, which costs not less than J9 per ton at many points of consumption. This should in a great measure be replaced by the residuum of the refineries, as is the case now, but to a certain extent only.

A very able report upon this industry in Roumania has been made by Mr. Jacques Kanitz, and although the figures for the production are placed by him at quantities considerably less than were reported from other sources, it is highly probable that the true production lies somewhere between the two statements.

Minebal Besourcks.

Petroleum Industry In Roumania In 1902.

Mr. Kanitz says that Boumania did not escape the great depression which prevailed in the principal centers of the petroleum production in the world in the beginning of 1902. Accordingly a continuous depression in the prices of crude oil is to be noted in the markets of that country during the period covered by the present report, a depression which, unlike that in Russia and America, continued to the end of the year.

The constant increase in the production, without proportional increase in consumption, together with the total lack of organization among the producers, naturally led to a decline in the price of crude oil from 4 kreutzers per kilogram (1 kreutzer equals one-half cent), equal to 58 cents per barrel in October, 1901, to 3i kreutzers in December, 1901, and to 8 kreutzers per kilogram, equal to 50 cents per barrel, in April, 1902, and toward the end of the year the price reached a minimum of about 1.70 francs per 100 kilograms at the well, equal to cents per barrel.

Up to the middle of the year the movement toward a combination of the crude-oil producers, supported with the utmost energy by the Koumanian ministry of domains, showed every promise of success. For this reason the price maintained itself above 3 francs up to that period, notwithstanding the fact that in the first half of the year, while the stimulus of the high prices continued, the production had increased considerably. When that combination failed to be realized, and when the consumption of illuminating and heating oil underwent its usual summer decline, without any sale for the crude oil, with which the producers' tanks were soon filled, the prices necessarily dropped, and some producers were even forced to suspend the production of oil or to stop their bore holes before they had reached the oil.

Despite this involuntary limitation of the production in the second half of the year, the total production of 1902 amounted in round numbers to 310,000 metric tons of crude oil, an increase of about 15 per cent over the 270,000 tons of the preceding year, the highest annual production yet attained in Roumania.

The production of the last ten years was as follows:

Production of crude oil in Roumania, 189S-190S.

Year.

Quantity.

Year.

Quantity.

Metric ioM, 66,600 76,000 80,000 110,000

Metric iont, 180,000 250,000

i810,000

oa

a

Petroleum. 599

The proportion in which the several districts participated in the total production underwent no material change during the year 1902. Prahova district still produces by far the greatest quantity. The only notable increase was in Dimbovita district, whose quantity was mainly increased by the successful boring operations of the International Roumanian Petroleum Industry Company, in the Gura Ocnita, in 1902. The production of the various districts in 1902 is estimated as follows:

Production of oil in Boumania in 1901 and 190iSj by districts.

District

Metric Urns,

Metric Utm. 283,000

pimboyitft , -

Bacaa

Buzcn

Total

The Steaua Romana Company contributes about 45 per cent of the total production of 1902, while only two other companies, the Talega Oil Company and the International, show a production of more than 10 per cent each of the total production.

As regards boring, the first half year of 1902 shows a greater activity than the second half year. The stagnation in the second half year is to be attributed mainly to the causes above set forth, namely, the decline in the price of crude oil, lack of storage room, and lack of sale.

The Steaua Romana, one of the principal refining companies of the country, was placed in a very precarious situation by the failure, in 1900, of its founder, the Ungarische Industrie-Bank in Budapest, and it is only owing to the assistance of the Wiener Bank-Verein in Vienna that the continued existence of the Steaua Romana now seems assured. The good conditions that have prevailed for some time on the world's market, together with the continued good production, render it more than probable that even the current fiscal year of this enterprise — May, 1902-April, 1903— will close with a decided profit.

This probability is further strengthened by the fact that in the spring of 1902 the large refineries of the country succeeded in forming a trust, with the salutary result that the price of refined petroleum, from the low level of 5 francs per 100 kilograms, or %1 for 220.6 pounds, reached the level of 10 francs per 100 kilograms, or J2 per 220.5 pounds.

The activity of the refineries during the year 1902 was considerable. At the beginning, under the continued stimulus of the high benzine prices abroad, a forced benzine production ensued, highly remunerative to all the factories, but coming to an abrupt end about the middle of the year through the sudden change in the world's

Mineral Resources.

Accordingly the quotation of benzine for export dropped from 15 francs per 100 kilograms to 6 francs at the end of the year.

For this decline the factories were in part compensated, on the one hand, by the above-mentioned rise in the petroleum prices within the country, and, on the other hand, by the considerable increase in the consumption of residuum for heating purposes, and, toward the close of the year, in the great rise in price of refined petroleum on the international markets.

While the petroleum consumption in the country shows no noteworthy upward movement, the use of residuum for heating shows a continuous, strongly progressive rise. Besides private industry, in which the liquid fuel is entirely displacing coal, the principal consumer in the country is the Roumanian State Railway, which is already using petroleum residuum on most of its locomotives. How rapidly this consumption has increased in recent years is seen from the following table of consumption of petroleum residuum by that railway:

Consumption of petroleum residuum on Roumanian Stale Raihvay 1894-1902,

Year.

Quantity.

Year.

Quantity.

iidiric tofw. 2,056 2,233 2,087 6,510

Metric tons.

a30,000 a 40, 000

a Estimated.

In like manner the tests made by the Roumanian Maritime Service, on the 135 trial trips of the steamer Eegele Carols have given such exceedingly favorable results (an effective saving of 40 per cent) that the commission in charge decidedly advocates the definitive introduction of this fuel on ships.

Germany.

Co7iditio7i of the industry, — Although Germany is one of the largest purchasers of petroleum products from the United States, there are in it two producing fields, one of which has maintained a small but steady production for many years in the province of Alsatia, near the town of Haguenau; the other, nearly 300 miles to the northwest, is in the province of Hanover, near the town of Weitze. The latter field, after lying almost dormant for several years, was revived in 1900, and since then has produced more petroleum than the Alsatian province. Of the total production in 1902, the Hanover district produced about 60 per cent and the Alsatian province 40 per cent.

Ic

Petboleum.

The total production for the year 1902 is placed at 363,674 ban-els, of which quantity 209,964 barrels are credited to the Hanover field and 143,710 barrels to the Alsatian field.

Operations near Weitze in the Hanover field have been very active during the last year, a somewhat lighter petroleum having been found in a lower strata. All the crude petroleum produced in Germany is quite heavy, comparatively, and only a small percentage of naphtha and illuminating products are obtained from it in the process of distillation. By careful manipulation in the refinery, however, a superior lubricating product is manufactured from the crude petroleum of both districts.

The principal refineries in the Alsace field are at Pechebroun and Bodromstein, and that near Celle, in the Hanover field, is located at Piene. The petroleum found in Alsace is of a gravity of 28° Baum, that in the Hanover field is considerably heavier. Twenty-five per cent of illuminating petroleum is said to be extracted from the petroleum of Alsace as well as over 30 per cent of lubricating oils, and not over 16 per cent of illuminating petroleum is secured from the Hanover field, but the percentage of lubricating petroleum is said to be over 37.

Germany encourages the development of her petroleum fields by imposing on all of the petroleum products brought into the country a heavy import duty amounting to 6 marks per 100 kilos, or Jl.80 per barrel, on illuminating petroleum, and to 10 marks per 100 kilos on lubricating petroleum, or $3 per barrel.

Production.

The production and value of petroleum in Germany from 1880 to 1902 is shown in the following table:

Production and value of petroleum in Qermanyy 1880-1902. [Metric 7.1126 barrels.]

Quantity.

Value.

Year.

Metric ton8.o

Marks, b

Dollars.

Production and value of petroleum in Germany, 1880-190 — Continued. [Metric ton=7.1126 barrels.]

Quantity.

Value.

Year.

Metric ton8.a

Mark8.b

Dollars.

a One metric ton, crude=7.1126 barrels. h One mark taken a8a24 cents.

Trodudvofti of petroleum in AUace-Lorraine, 1880-190iS,

Quantity.

Year.

Quantity.

Year.

Metric tons.

Barrels.

Metric tons.

Barrels.

Italy.

Condition of the imdust/ry, — The statistics of the production for Italy in 1902 are not yet available. The production for 1901 amounted to nearly 18,000 barrels, as compared with 12,000 barrels in 1900, a large increase.

Some favorable indications of a large deposit have lately been found in the Parma region. The price, as quoted — $8.02 per terrel — ought to stimulate a very careful search. The duty imposed on refined petroleum causes the high price of the native product. There is an import duty of 48 lire per 100 kilos, or $11.50 per barrel, as well as an excise duty of $2.26 per barrel.

Not many miles from Naples petroleum has been found in workable quantities, notably at San Giovanni d'Incarico and at Pico, in the valley of the Liri, both in the province of Caserta. It is a fact that as recently as 1878, 600 tons, or almost all the Italian petroleum, came from Pico alone. In the last twenty years the annual output has seriously decreased. Indeed it ' has become insignificatilf aS compared

Petboleum.

with the increased production of the borings in northern Italy. Petroleum has also been stated to occur atTramutola, on the Gulf of Taranto, and asphalt is recorded on the east side of the Abruzzi, about 20 miles from Pescara. Asphalt has also been f oimd in the province of Salerno. The depth of the water (80 fathoms) at the spot in the Bay of Naples, where the smell was noticed, is too great for the collection of the oil to be commercially practicable, but the long-continued escape of petroleum in the immediate vicinity of the Apeninne limestones of the Sorrentine peninsula is an indication that deep borings might be successful and might ultimately yield as profitable a supply of petroleum as the borings in northern Italy, near Bologna and Piacenza. These extend along anticlinals of the Tertiary limestone, and therefore are geologically similar in many respects to the country in or near which the newly discovered petroleum spring occurs.

From the volumes of Rivista del Servizio Minerario the following statements are extracted regarding the production of crude and refined petroleum in this country:

Production of crude petroleum in Holy, 1860-190L

Year.

Number of wells in operation.

Qua

Dtity.

Val

ue.

Metric tons.

United

States

barrels.

Unit value.

Total value.

of workmen em-

Lire.

Dollars.

Lire.

Dollars.

ployed.

S

H4

U,2e9

8Ot

Mineral Besources.

Production of crude petroleum in Italy, 1860-1901 — Continued.

Number of wells In operation.

Quantity.

Value.

Number

Year.

Metric tons.

United States barrels.

Unit value.

Total value.

of workmen em-

Lire.

Dollars.

Lire.

Dollars.

ployed.

7.1905 barrel8=l metric ton of crude 7.955 barrel8=l metric ton of refined.

Production of crude petroleum in Italy, 1896-1901,

1 lira— 19.3 cents.

Province.

Number of wells in operation.

Quantity.

Value.

Mining district.

Metric tons.

Barrels

of 42 gallons.

Per ton.

Per barrel.

Total.

Rmilla .

Lire.

Lire.

Rome

Total

Bologna

Milan ;

fParma IPiacenza . Chieti

Rome

Total

f Parma IPiacenza . Chieti

Milan

Rome

Total

f Parma IPiacenza . Chieti

Milan

t 1,910

Rome

Total

Milan

Rome

Total

Milan

Borne

Total

MUan

Rome

Total

Petboleum.

Great Britain.

Condition of the industry. — Petroleum and natural gas are both known to exist in certain localities in England, but thus far no large reservoir has been found. For the last seventeen years or more there has been some production from Longton, North Staffordshire, which is given in the following table. There are a number of localities in which petroleum and natural gas have been found in small quantities, but little has been done in the way of testing by drilling deep wells.

PKODUCTnON AND VALUE.

The mineral statistics of the United Kingdom give the production and value of petroleum from 1886 to 1902 as follows:

Production and value of petroleum in Derbyshire England, 1886-1901S.

Production.

Value.o

Year.

Pounds sterling.

Dollars.

a Value at wells. £1=$4.86.

Scotch Shale-Oil Industry.

The shale-oil industry of Scotland is of no small importance, and the quantity worked has increased very considerably during the last twenty years. The Scottish oil companies together produce about 600,000 barrels of burning oil per annum, probably 250,000 barrels of lubricating and other oils, approximately 160,000 barrels of naphtha, and 20,000 tons of solid paraffin.

Minebal Be80Ub0Es.

In the following table is given the quantity and value of oil shale produced in Great Britain during the years 1897 to 1902, inclusive:

Quantity and value of oil shale produced in Oreat Britain, lS97y 1898, 1899, 1900, 1901,

and 1902,

Country.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Tons. 10,568 2,211,617 1,660

Tom. 2,975 2,133,409 1,609

Tom. 2,208,249 2,376

Scotland

Wales

Total

Country.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Tom.

Tom.

Scotland

Wales

Total

The quantity and value of oil shale produced in Great Britain from 1873 to 1902 are shown in the following table:

Production of oil thole in the United Kingdom, 1873-1902.

Year.

Quantity.

Value.

Year.

Quantity.

Value.

Statute torn.

Ic

Pbtboleum,

NEW SOUTH WALES. PBODUOnON OF KEB08ENB SHALE.

The quality and value of the kerosene shale wrought in the two districts of New South Wales from which it was produced during the years 1899 and 1900 were as follows:

Quantity and value of kerosene shale wrougJU in New South Wales in 1899 and 1900. [Annual Report of the Department of Mines, New South Wales.]

Year.

Western division.

Southwestern division.

Total.

Tons.

Value.

Tons.

Value.

Tons.

Value.

£ 8. d. 81,415 5 0 19,444 13 0

£ 8. d. 40,823 6 0 20,651 13 0

The production of oil shale is gradually decreasing, and there are several reasons for this, among which are —

(1) The area of known first-class shale is becoming rapidly worked out.

(2) The freights for exporting shale have been so high as to limit the quantity exported.

(3) Recently certain oils have been used to increase the illuminating power of gas, which to a large extent is taking the place of oil shale for this purpose.

Mr. F. W. Goding, United States consul at Newcastle, New South Wales, says that it is reported that an oil spring of good quality has been discovered in the southeastern district of South Australia. The spring is near the lakes which exist at the mouth of the Murray River, in the vicinity of the little town of Meningie, on the eastern shore of Lake Albert. The existence of petroleum in this desert region has been known for years. The oil exudes from the banks of Lake Coorong, and also from the more southern coast line. The quantity of the supply and the purity of the oil are questions for future investigation.

At present, large quantities of kerosene are landed at the various ports of the Commonwealth from Asia and America. The oil is stored in immense tanks, from which it is retailed much in the same way as milk. Should the discovery develop into an established industry, it will seriously affect the importation of American kerosene into that Commonwealth.

Minebal Besoitboes.

Imports of kerosene into New South Wales, 1894r-1901. [English gallonfi imd pounds sterling.]

Year.

Quantity.

Value.

Oallotu.

Exports of shale {kerosene) from New South Wales, 1895-1901.

Year.

Quantity.

Value.

Long tons. 84,549 14,220 21,980 18,845 9,147 16,677 19,885

New Zealand.

Petroleum has been known to exist in both the northern and the southern divisions of the island for many years.

In 1874 a shallow well was drilled in the Poverty Bay district, near where there was a natural showing. At a depth of 110 feet the cribbing collapsed and stopped further progress. In a few weeks a large amount of remarkably pure petroleum accumulated in the abandoned hole. Subsequent efforts to find petroleum in paying quantities, near this region were failures, although some of the wells reached a depth of 2,000 feet.

Recent explorations have been transferred to the southern division of the island, on the Midland Railway, near Lake Brunner, 21 miles inland from Greymouth, where there are numerous surface indications. Five shallow wells have been completed, all of which gave small showings of petroleum. In one of these wells there is an outburst of natural gas, salt water, and a small showing of petroleum regularly every two hours.

Petroleum. 609

Algeria. The Petroleum Industry In Algeria In 1902.

The progress of development work in the petroliferous region, as well as in the refining and marketing of the products in Algeria, was very rapid toward the end of 1902. Algeria is advancing rapidly to the position of a petroleum producing country.

The demonstration of the value of Dahra petroleum as fuel has been made by the syndicate of the same name, which has undertaken active exploitation work.

In view of the favorable results of the use of liquid fuel, both on railways and steamers, obtained in every country in Europe, it may be hoped that Algerians will give every material and moral support, not only to present operations but also to new prospecting work, which is bound to be successful throughout the colony. The searches must be carried out in a rational manner, avoiding all "wild-cat" methods, such as have been used in many countries during the last two or three years.

For lighting purposes Dahra petroleum occupies the first place, both by its illuminating power and flash point, which is above 50° C.

It has been accepted for Government contracts, and wherever it has been tried it has taken preference over other oils.

Dahra oil is thick, but its thickness is due to the presence of solid paraflSn and of vaseline to the extent of 10 to 13 per cent in the crude oil. The paraflin scale, filtered by way of an experiment and bleached under the sun, proved to be of first quality. After the separation of burning oil and paraflin scale a lubricating oil is left.

In 1902 a change was introduced into the method of working, and the progress of the development has taken a practical turn. Oil was found at a depth of 400 meters in good quantities, and as much as 32 cubic meters of it was extracted per day from one well. The oil, thickened in its passage upward, oozes out for a distance of li kilometers.

The strata traversed by the well are impregnated with petroleum, and the earth analyzed yielded 20 per cent of oil, the driller striking the petroliferous sand at 400 meters, which is the first oil stratum. The second and third are still awaiting the drill.

Forty-two per cent burning oil, 10 to 12 per cent paraffin scale, and the rest lubricating oil of superior quality% represent the proportions obtained from the oil in 1902. The installation at St. Amie (Oran) consists of a steel tank of 500,000 liters, a new refinery, and works for manufacturing lubricating oils. The governor-general and Government of Algeria are granting every facility, as well as their moral support, toward the development of the oil fields, and it is, thanks to this, that success has been attained in the year 1902.

Persia.

There are rumors of the formation of a Belgian company for petroleum exploitation in Persia.

The Persian petroliferous region extends along a line northeast and southwest, starting at Shahku, on the Turco-Persian frontier, and ending on the eastern side of the Persian Gulf.

The northern part of this basin has its center at Kasharashirin, near Shahku. Around this village are numerous pits of a depth of about 32 feet. This deposit is situated on an eocene axis of sand and marl, and the Kurds exploit it in a most primitive manner, contenting themselves with collecting the oil from the pits every four or five days. An average output of 10 barrels is collected each time. The petroleum is very fluid and of a greenish color and is refined on the spot. In the center of the Persian basin, parallel to the Bakhtiari Mountains, there is the petroliferous district of Lauriston. This district, like that of Kasharashirin, is characterized by the same blue clays which are found in Galicia. The petroleum deposits are in the neighborhood of important salt and sulphur deposits.

The existence of petroleum is also shown in a most conspicuous manner at Chouster, where the inhabitants collect it on the surface. The Chouster oil is of a special quality, being of a yellow color, very clear and almost transparent, and having a specific gravity of 0.773.

South of this station and a few kilometers from Ram-Armuz are the natural springs of Chardin, one of which has a regular output of about 22 gallons per day.

Natural petroleum springs also exist near the Persian convent of Nuamzady at Haf-Cheide. These springs, which have an output of about 1 barrel per day, produce an oil of a greenish color and of a specific gravity of 0.927.

The south of the Peraian basin runs along the shore of the Persian Gulf, Dalike being the most important station here. In this district work has been seriously started, which unfortunately could not be brought to a successful finish, owing to the inclemency of the weather in the summer, the bad quality of the water, which corroded the boilers, the high cost of fuel, and especially the pillaging by the neighboring tribes. The Persian Bank Mining Right Corporation, which holds the concession of this property, has placed at its head an experienced man — Engineer Kmentt.

The workmen brought from Galicia were not able to stand the climate, and those from Baku were no better.

The petroleum of Dalike is heavy and bituminous, and, according to Redwood, has a specific gravity of 1.016.

Investigations are to be made shortly on the shores of the Caspian Sea, near the village of Talish, where there are abundant traces of

Petboleum. 611

petroleum. Here drinkable waters and cheap and abundant liquid fuel are obtainable, while the natives are better policed than on the Persian Gulf.

Dutch East Indies— Sumatra, Java, And Borneo.

Condition of the indnistry, — The year 1902 has been one of activity in all of the three islands, and more petroleum was produced and sold during the year than ever before. The inferior quality found in Java and Borneo was largely marketed as a fuel petroleum, while that produced in Sumatra, being of a superior quality with a paraffin base, was converted into illuminating and lubricating petroleum and paraffin. The refineries of Sumatra produced 264,320,600 liters in 101, equal to 1,652,000 barrels of refined petroleum, which will probably be increased by at least 30 per cent for the year 1902, when the figures can be secured from these far-oflf regions. The quality of the illuminating products is generally considered inferior to that of the United States and Russia, and they are sold at a reduced price, reaching a class in the densely populated portions of their own islands, and in China, India, Siam, and Persia that do not appreciate the qualities of a superior illuminating petroleum, being satisfied with an inferior article consumed in a primitive clay lamp.

A very large percentage of the petroleum produced in Java, and nearly all of that produced in, Borneo is marketed as a fuel oil after the more volatile portions have been removed in the refinery. There is also a considerable amount of crude petroleum exported from Sumatra to Java and there refined.

The laws of Japan and India require a flash test of 100° C. for illuminating petroleum, while a number of other countries will accept and store petroleum of a considerably lower flash test.

The Shell Transport Company has devoted a large amount of capital to marketing the fuel petroleum and bulk oils produced in the islands of the Dutch East Indies group and Russia, and has erected stoi-age tanks at the following-named seaports: In Africa at Port Tenenk, on the Suez Canal at Port Said, and at Zanzibar; in British India, at Bombay, Calcutta, Madras, Karachi, Intikorin, Colombo, Penang, and Singapore; in Dutch East India at Soerabaya, Batavia, and Sheribon; in Sitim at Bangkok; in China at Hongkong, Shanghai, Amoy, Swatow, and Foochow; in Japan at Kobe, Yokohama, and Nagasaki; and in Australia at Sydney, Greenwig, Williamstown, and Adelaide.

Singapore is a very large and important distributing point, the most important of any in the Far East, for the refined products and the fuel petroleum of the Dutch East Indies. There are ten large storage tanks erected here, and there are ample wharf facilities for the numerous tank steamers which make direct connection with Palembang and Balik- Pappan. There are also extensive canning works located here. Liquid

Minebal Besoubgeb.

fuel is year by year gaining a more extensive foothold as its merits become more generally known, and because of the increased price of coal, which has to be transported thousands of miles to many of the ports of eastern Europe, southern Asia, and Africa. The yearly increase in the quantity of liquid fuel produced and consumed, together with the new areas that have lately been developed in these islands and elsewhere in the other portions of the globe, show that to a certain extent an increasing amount of coal must be supplanted by liquid petroleum as a fuel.

Expobts,

The export of kerosene from Dutch India to various countries between the years 1896 and 1900, as reported by Mr. A. V. Ragosine,*' was as follows:

Export of kerosene from Dutch India, 1896-1900, by years and countries.

Country.

Holland

British India

Malacca

Singapore

Slam

Saigon

Hongkong

other Chinese ports

Japan

Timor

Australia

Total

Caaea.

Oases.

Cases.

Cases.

Case =10 gallons.

The export was chiefly effected by the Shell Transport and Trading Company, who have exported in their tank steamers kerosene, residuals, and, during the last two years, benzine from BalikPappan, Palembang (Moeara Enim Company), and also from Langkat (the Sumatra Company), chiefly in bulk; the Royal Company, who exported in their steamers their own oils and those of the Sumatra Palembang Company, chiefly in cases; and the Mining and Forest Exploitation Company, of Lower Langkat, who export their kerosene of the Dragon brand chioflv to Penang, Singapore, Siam, and China in cases.

aKeftlannoie Dielo.

Petboleum. 613

Sumatra.

There are three larpfe refining companies in the island of Sumatra, namely, the Sumatra Palembang, the Moeara Enim, and the 'Koenigliche," as it is improperly called.

The first two companies, the original Holland companies, are located in the southern part of the island; the latter, in the northern part, is a comparatively new organization with rapidly increasing output.

The original Holland companies in their early history, during the years 1897 and 1898, created a flurry in all of the petroleum-producing localities in both the Old and the New Worlds.

The output of the original wells, the comparative ease with which they were drilled, their location so near tide water, and their nearness to the central markets of Asia, as well also as the superior quality of the petroleum, all contributed toward this. Suddenly these wells ceased to flow, and pumping had to be resorted to; this, however, failed to keep up the production. Neither did the drilling of an immense number of wells in the neighborhood of the original gushers supply the deficiency; in consequence, the refineries did not have the necessary quantity of crude petroleum, and their production was greatly decreased. These conditions brought about the necessity of finding new fields, which was finally accomplished; but the locality was from 40 to 120 miles from the refineries, which involved a large amount of expense to connect them by pipe lines. These difficulties for a time curtailed the production of the original plants, which has been more than regained in the last three years.

The production of fuel petroleum on the island of Borneo has been increasing by very large quantities since the year 1900.

The most important company, however, is the 'Koninklijke Nederlandsche Maatschappi j tot Explotatie van Petroleum-Bronnen," called, in brief , the ''Koninklijke" — that is, "Koenigliche." The company was established in the year 1890, with a capital of 5,000,000 gulden preferred stock and 3,000,000 obligations. At first it gained the small territory Lepan near the city Langkat, to which the properties in Besitang, Aroebaai, and Boekit were added, so that in the year 1896 it possessed 170,000 hectares. During the first year little drilling was done, while the wells continuously yielded a quantity of crude oil; and this condition continued until the year 1898, in which the value of the oil fields decreased greatly. Some of the wells ceased to produce oil, others decreased their output, and a third class delivered water instead of oil, so that in the year 1899 they yielded only one-third of what they did at the beginning, despite regular drilling. This induced the company to make very extensive acquisitions and openings in various sections of the country, particularly in the northern part of the island. Previous to the year 1901 these examinations were unsuc-

Ic

cessful on the whole. The first success was in Perlak, upon territory acquired from a similar company, which developed very rich wells, whose production reached a total of 1,500,000 metric centners of crude oil in the year 1901, which is an amount equivalent to two-thirds of the complete production of the '' Koenigliche." Of the remaining new wells, those in Langsar may be mentioned as profitable, and especially those in Sumatra, Borneo, Koetei, and on the island Pulu Miang. The developments in Perlak have improved the material condition of the "Koenigliche" in an extraordinary manner. The first refinery of the company was erected in the year 1891 in the city of Pankalan- Brandan, and by Americans, for a periodic business. A second refinery was built in the year 1897 in Besitang, not vry far distant from the first. The crude oils of the "Koenigliche" are strongly benzinecontaining, especially that of Sumatra. They contain on an average:

Percent.

Benzine 30 to 40

Petroleum 40to50

Residuum 30 to 10

Formerly all the benzine was consumed as fuel, and the production of petroleum was restricted to 35 to 40 per cent. At present the benzine is redistilled, and the heavy portions are added to petroleum, whereby this product has increased to 45 or 50 per cent.

The two refineries of the company possess a manufacturing capacity of over 1,500,000 metric centners of crude oil, but only a part of this amount is refined, on account of the lack of crude oil; so, during the last two years, only half of this quantity was refined, and in the critical years, 1899 and 1900, only a fourth thereof. The greatest production of the company was during the years 1897 and 1898.

During the year 1900, 1,392 metric centners of paraffin were produced, and during 1901, 2,910 metric centners, the quality of which is excellent, for it possesses a melting point of 62 C. and is disposed of in Europe at good prices. On the other hand, the petroleum is of inferior quality, specific gravity 0.837 to 0.869, yellow to dark yellow, and badly refined. These characteristics may be explained by the circumstance that it is destined for consumption by the natives, who are not particular in this respect. The financial statements of the Dordschen Petroleum Company are very good. It gives from 10 to 20 per cent dividends and is considered as an exemplarily conducted undertaking.

In addition, the "Java Maatschappij " and a Chinese firm, Tan-koktay, operate in Tava. Both are unimportant, but possess their own refineries. Maatschappij Java operates near the city of Samarat, with an annual production of 12,000 metric centners of petroleum. The Chinese company is in operation only periodically.

Pbtbolettm. 615

Borneo.

The entire production is in the control of S. M. Samue. and the Shell Transport and Trading Company, which undertakings at Borneo bear the names Niederlandisch-Indische Industrie und Handelsgesellschaft." The earth oil wells of the company are situated in the southeastern part of the island in the basin of the river Koetei, from which the entire strip of land takes its name. The possessions of the company embrace the extensive territory between the city of Samarinda (seat of the Holland assistant minister) and the Balik Papan Bay, and measures 360,000 hexameters, but only a very insignificant part of this territory is developed, and, indeed, in only two places, one lying at the northeastern part of the bay, which likewise bears the name of the bay Balik Papan, and the second, north of this, on the side of the river Koetei, which is named Sanga-Sanga (signifying fever, in the language of the natives). The distance between these twoplaces is about 80 kilometers in an air line, but no land connection exists, and intercourse is effected by means of steamers.

In Balik Papan there are thirty wells, which encountered the first dark crude oil (specific gravity 0.970) at a depth of about 200 meters, and at a depth of from 600 to 620 meters a second, lighter crude oil (specific gravity 0.896). A deeper oil stratum has not yet been found. The entire amount of the crude oil recovered is unimportant. Oil springs do not occur.

Java.

The most important company in Java is the Dordsche Petroleum Maatschappij, which was organized in the year 1890 with a capital of 10,000,000 Dutch gulden. In the year 1897 the capital was increased to 20,000,000 gulden. The company disposed of several extensive concessions in Java and Madura, of which the most important are Kedundung, Igareng, Kogozam, and Soerabaya, besides formerly unprofitable concessions in Borneo and Sumatra. The entire area comprises about 600,000 hectares. Mr. Stoop, the general director of the wells, expresses his opinion of the wells as follows: "The conmion strata which were examined are soft clay and sand, and the harder sandstone and lime appear very seldom. Thanks to this circumstance, a peculiar method of boring, consisting in a revolving pipe with additional steel drill and water spray, is used. Since oil was first discovered in the harder strata the necessity of employing the Canadian system and the Rapid system of drilling was made evident. After experimenting for sixteen years, the flush water has proved very good for the purpose of recovering oil, and the controversy of the Galician technical drillers over this method is inexplicable."

The petroleum is found at a depth of from 150 to 600 meters, and the wells produce from 172 to 1,100 metric centners of petroleum

Ic

MINEBAL BEOUBdlBd.

within twenty-four hours. The crude oil is worked up in three refineries in Wonakromo, near the city Soerabaya, in Igareng, in the vicinity of the district of Rembang, and in Semaranga. Semaranga is the youngest refinery and Igareng the greatest refinery in which, besides petroleum, both paraffin and lubricating oils are produced, and recently the refinery was connected with a railway. Formerly the crude oil was conducted through pipe lines which the company possesses for a distance of 200 kilometers; from the Island of Madura the oil is carried to the refineries at Soerabaya by steamers. The refineries work up their petroleum mainly for home consumption and freight it in thin-plated cans with the mark "D. P. M." The interior consumption of petroleum by the very dense population (Java has 27,000,000 inhabitants) amounts to about 4,000,000 cans; therefore the entire production of the company may easily be stated at about 1,500,000 cans.

Since the year 1896 the production of the refined product in cans was as follows:

Production of refined petroleum in Java 1896-1902, [Canfl.]

Kind of oil.

Qasollne

Lubricatiiur oil

Lucigen

a Six months.

Upon the territory Sanga-Sanga there are over thirty wells, with a top diameter of from 10 to 12 inches and an end diameter of 5 inches. On drilling, four oil zones were encountered at the following depths: Sixty, 100, 180, and 240 meters. There should be a fifth zone at a depth of about 300 meters. The first three zones give a heavy, thick oil, which is lighter than that from the fourth zone and has a specific gravity of 0.860. Likewise, these wells do not yield an especially large production, the best having a daily output of 600 metric centners; on an average, however, they produce scarcely 60 metric centners. There are no springs, though there are a few self-flowing wells, but the majority must be pumped.

The production of this crude oil region chiefly supplies the refinery of the company in Balik Papan, the greatest upon the Sunda Islands.

At present the company is building a sulphuric acid works in the vicinity of the refinery, not only for their own requirements, but also for the entire Indian petroleum industry; as formerly the sulphuric acid was imported from Holland, and recently also from Japan.

Petboleum. 61 7

The heavy crude oil from Balik-Papan is suitable only for fuel, the lighter with the specific gravity 0.890 yields 44 per cent petroleum distillate, 8.5 per cent solar oil, 46 per cent residuum, and 1.6 percent loss. The crude oil from Sanga-Sanga, of specific gravity 0.860, yields benzine and loss 18.5 per cent, petroleum distillate 51.9 per cent and residuum 29.6 per cent. Neither the one nor the other contains paraffin. By the working up of equal quantities of both the following result is obtainable:

Per cent.

Benzine and lose 9

Petroleum 26

Solar oil 7

Residuum 58

Total 100

The benzine obtained is heavy. Light fractions of benzine are not generally obtainable from this crude oil. The final salable products of the Borneo oil may be said to be the following: About 28 per cent petroleum; about 65 per cent residuum.

The petroleum is heavy, from 0.829 to 0.835 specific gravity, and shows, in consequence of the fractional distillation, abnormally high specific gravities to the separate fractions, which are far higher than those of the Russian products. High specific gravity is generally a characteristic mark of the crude oil of Borneo and likewise of that of Java, so that the admission is justified that the same consists of heavy carbureted hydrogen as naphthene. In consequence of this the lighting power of this oil is small. For example, in an experiment with a round burner the petroleum of Borneo gave a light of 4.2 candlepower; on the other hand, in the same lamp, the Russian kerosene gave a light of from 9.5 to 10 candlepower, and when mixed in equal parts a light of 8.6 candlepower. The refinery in Balik-Papan possesses a working capacity of over 2,000,000 metric centners of crude oil, three hundred working days in a year. The effective production in metric centners was:

Year.

Petroleum.

Fuel oil.

Of fuel oil two kinds were recovered, one having its burning point above 100° C, the other with its burning point below the same. This fuel oil f oims the foundation of the entire enterprise, especially of the fleet of the Shell Transport and Trading Company, which supply therewith their 24-tank steamers for the local and more particularly the marine freight connection. Through the possession of such a considerable number of tank steamers this company commands the entire freight intercourse for bulk freight (that is with fluid products), andisffos

Hinebal Bksoubces.

class importance to the petroleum business in the Orient. The Shell Company provides for the transportation of oil from Batum and Novorossisk to Egypt and the ports of the Indian Ocean and Far East, freighting the petroleum from the central station in Singapore to the separate harbors of the Dutch and British colonies, China, etc. From Balik-Papan it carries gas oil to England and petroleum and fuel oil to China, Japan, and the central station at Singapore, and benzine from Sumatra to London.

The production of these three islands is estimated as follows for the years 1901 and 1902:

Production of petroleum in Sumatra Java, and Borneo in 1901 and 1902,

Country.

Bnmati r .

Barreta.

Java

Borneo - -- --

Totiil

The following statement, furnished by the secretary-general to the department of colonies, Holland, gives the production of petroleum in the Dutch East Indies during the years 1900 and 1901:

Production of petroleum in the Dutch East Indies in 1900 and 1901.

Country.

Crude.

Refined.

Crude.

Refined.

tonaa..

liters..

.do

Java

a Metric ton =2,204.6 pounds.

b Liter =61.027 cubic inches .2642 of a United States gallon. 160 liters 1 United States barrel (approximately) .

Philippine Islands.

CoThdition of the industry. — There is considerable petroleum produced on these islands by crude methods. Several unsuccessTul attempts to drill by the American methods have been made. One of these tests developed some petroleum, but the soft, caving nature of the ground and the lack of suflScient casing caused the loss of several wells.

There are localities near Cavite where some small amount of crude petroleum has been found bubbling up through the water. This has led to the formation of a company, which will drill a test well in that vicinity.

Explorers are busy examining the conditions of the existence and the quality of the petroleum, and the probabilities are that in a few

PETBOLEUM. 6l9

years petroleum will be one of the articles of export, instead of being, as at present, almost entirely an article of import.

The islands of Panay, Leyte, Guimaras, Negros, Mindanao, and Cebu are known to contain petroleum. The large island of Mindanao produces some petroleum in the vicinity of Chattabatto. The island of Cebu has deposits of petroleum at Toledo, on the west coast, associated with coal and natuml gas. On the island of Panay petroleum is reported at Janiway, in the province of Iloilo. The island of Leyte is said to have deposits of petroleum 4 miles from the town of Villaba, on the west coast.

The position of these islands would indicate the probable existence of petroleum, as Borneo, on the southwest, and Formosa and Japan, on the north, contain productive areas that are extensively operated.

Japan.

Condition of the industry. — The niain supply of petroleum thus far developed in the Empire of Japan is found on the island of Nippon, in the province of Echigo, on the northwestern coast, about 200 miles northwest of the city of Tokyo. There are other localities on this island where some petroleum has been produced, namely, in the province of Ugo, in the extreme northern portion, and in the province of Totomi, about 150 miles southwest of Tokyo.

The island of Hokkaido or Ezo has produced some superior grades of crude petroleum in a limited way, near the western flank of the foothills of the great mountain chain running to the north, in the provinces of Mikawa and Ishikari, but nothing has been so far discovered that is of any commercial value.

The production in Echigo and the indications elsewhere are usually in the middle and newer Tertiary formation. Their individual occurrence is invariably on the flanks or along the crest of well-marked anticlinals. Generally these anticlinals are of comparatively short extent, as they suddenly burst up out of the level newer formations, run their course, with slight undulations, for from half a mile to 2 or 3 miles, and then suddenly plunge under the level surface of the plain. There are other cases where the ridge of an anticlinal can be traced for 10 or 15 miles continuously.

There are usually steep dipping flanks on both sides of the anticlinals which soon carry the oil-bearing strata to depths too great to be reached by the drill, or at which the strata is saturated with water. The depth of the wells is from 750 to 1,250 feet, and probably 80 per cent of the production comes from drilled wells. The remainder is from dug wells or shafts which range in depth from 200 to 600 feet.

The strata holding the crude petroleum is generally a loosely cemented sandstone of a bluish cast, with more or less small crystals of pure silica, and in some cases with pebbles interspersed, the strata being from 5 to 40 feet in thickness. There are usually beds of

blue shale or clay capping the sandstone, and in many wells they follow each other in succession. A few of the wells flowed naturally when the field was new. At present nearly all of the wells are pumped. The life of the average well in some of the fields is not long, as a few weeks or months find the output greatly reduced from the original volume; others decrease more slowly. It requires the constant drilling of new wells and the deepening of others where lower productive strata have been developed to keep up the production in most of the fields.

The petroleum produced in the early history of the development generally came from hand-dug wells, which ranged from 100 to 500 feet in depth. These wells were roughly cribbed with timber as they proceeded down. A supply of pure air was furnished the workmea at the bottom by means of a peculiar bellows operated from the top. All of the hoisting was done by a cable made of rice straw.

One of the other methods of drilling is known as the "bamboo rig," in which large bamboo poles are spliced and joined together by iron bands and are coiled upon the outside of a large reel or wheel, on the inside of which one or two workmen raise or lower the tools by treading. The tools aro of iron with steel bits and in the operation of drilling are raised by means of a lever in the upper portion of the derrick, or by a walking beam attached to a windlass.

During the last six or eight years the greater portion of the production has been secured by regularly cable-drilled wells, and some wells were drilled by the Canadian rod system. It is rather surprising that the workmen of this country should so soon have acquired the knowledge that enables them to drill wells where there are serious difficulties encountered and a very large amount of skill is required to accomplish the end. In several of the fields the improved method of pumping wells in clusters by wire rope and solid connections is used. There are also a number of pipe lines connecting several of the fields with refineries that have been laid and are operated by Japanese workmen. There is, however, a considerable percentage of crude petroleum transported from the points of production to these native refineries in tin and wooden cases on the backs of coolies. The heavy distillate or residuum is also transported in the same manner from the refineries back to the wells, where it is used as fuel. The locomotives in Echigo use residuals and inferior crude petroleum as a fuel, and its use in the crude and residual condition is almost universal in pumping and drilling wells and under the boilers of the pipe lines.

The refineries are quite numerous in Echigo, about forty now being in operation. Some of them are primitive; others are fairly well equipped. The best refinery is that recently erected by the International Oil Company at Naoyetsu. It was built and is operated by Americans, and a superior quality of illuminating and lubricating petroleum is manufactured. ic

Petboleum.

The other refineries are almost entirely in the hands of two powerful native companies, which also control a very large percentage of the production of the crude petroleum. These are known as the Nippon and the Hoden companies. The refineries operated by these two companies produce inferior manufactured products, which find a ready sale at a reduced price, although the flash test of the illuminating petroleum is generally too low for safety. All of the petroleum produced in Echigo is of an asphalt base; hence there can be no paraffin produced. The quality of the crude varies in the diflferent fields to a marked degree. Some of it will produce as much as 70 per cent of illuminating products, the larger portion will only produce from 35 to 40 per cent, and a still poorer grade from the Nutsu field will only give 20 per cent. This last finds a market as a fuel oil at Nugata and on the railroad between Naoyetsu and Nugata.

The average amount of marketable products secured in Echigo is not far from 40 to 45 per cent. The specific gravity varies from 22° to 45° Baum6; about 75 per cent of the output will average 33° Baum6. The price paid for crude petroleum during 1902 was quite high, owing to there being very little oflfered for sale, as the production is controlled by the two large Japanese companies and the International Oil Company. Crude petroleum was sold as high as 2i to 3 yen per koku, or from $1.10 to $1.25 per barrel. The daily production by districts in Echigo in 1902 was as follows:

Daily production in Echigo in 1902, by districts.

Dtetrict.

Naamine, Kamada, and other districts adjacent. . Nagloka

Higashi. Niltsu...

Quantity.

Total daily production .

Barrels.

This gives a production of 1,193,550 barrels for the year 1902.

The number of American drilled, native hand-drilled, and hand-dug shafts in operation in the above-named districts in 1902 is estimated to be as follows:

Number of American drilled, native hand-drilled, and hand-dug weUs

Echigo in 1902, by districts.

in operation in

District.

American drUled.

hand

drilled.

Native hand dug.

Total.

NAfrAmine. KaTnada. and difltriots adlaoent

Nagioka

Total

jigitip

o

Mineral Ses0Ub0E8.

The following table shows the gradual increase in the production of crude petroleum in Japan from 1875 to 1902. The gain of 1902 over 1901 is very slight, with indications of a smaller production for 1903.

Production of petroleum in Japan, 1875-190fS.

Production.

Value received for crude and refined sold.

Year.

Grade.

Refined, a

Koku. b

Gallons.

Koku. ft

Gallons.

Yen.fl

4,830 8,156 10,114 18,920 24,816 26,974 17,721 16,450 21,659 29,541 30,981 40,113 80,304 39,605 55,871 64,399 65,983 72,893 94,146 161,986 149,497 208,600 231,221 280,764 e474,406 767,092 963,000 1,060,000

U, 146, 381

a This production of refined oil is not the whole amount of refined oil made in Japan, but is only that portion which is refined bv those who produce crude oil and refine it themselves. Most of the crude oil goes into the hands of others, by wnom it is refined, and as yet there are no means of ascertaining this quantity.

61 koku 39.7 English gallons 47.46 United States gallons 1.13 United States barrels.

c Value of yen on January 1, 1885, in United States money, 86.8 cents; 1886, 81 cents; 1887, 78.4 cents; 1888, 75.3 cent8; 1889. 73.4 cents; 1890, 75.2 cents; 1891, 83.1 cents; 1892, 74.5 cents; 1893. 66.1 cents; 1894, 65.6 cents; 1895, 49.1 cents; 1896, 52.9 cents; 1897, 51.1 cents; 1898, 49.8 cents; 1899, 49.8 cents; 1900, 49.8 cents.

d Not ascertained.

eThis represents the quantity of crude sold in 1899.

Petboleum. 623

India.

Condition of the industry. — Nearly the entire production of India is from the two districts in Upper Burma which are known as the Yengenyoung and the Yengenyat districts. The former is 300 miles northwest of Rangoon, and the latter is 50 miles north of the former by direct line, but many miles farther by the river. Both of these districts ai*e very close to the great Irawaddy River. There is at present an insignificant production at Digboi in Upper Assam, 350 miles farther north of the Yengenyat district by direct measurement, and some 60 miles south of the Bramapootra River. Besides the localities named, there are a number of surface indications and shallow wells in which traces of petroleum have been found, extending for 400 or 500 miles in the valley of the Irawaddy River, north of Prome.

Petroleum has been also developed in a small way on the west coast on the islands of Cheduba and Ramree. There was at one time a production in northern Panjab which has been practically abandoned for several years.

The daily production for 1902 is placed as follows:

Daly prodxuAion of petroleum in Iru

ita m 1902, by districts.

Dtotrict.

Quantity.

Barrels.

Yengenyoong, Upper Burma ! 2, 850

Yengenyat, Upper Burma j 1,200

Digboi, Upper Assam 1 200

Total 4,260

This gives a total of 1,551,250 barrels for the year.

There are 60 producing cable-drilled wells in the Yengenyat district and 110 producing wells in the Yengenyoung district, that range from 700 to 1,350 feet in depth. In the latter district about 700 barrels are produced per day from the old dug wells or pits. This district is about Si miles long in a general northwest and southeast direction, and half a mile in width, and is about 3 miles east of the Irawaddy River. The Yengenyat district is 50 miles farther north on the west side of the same river and within one-half to three-fourths of a mile of its bank.

The geological conditions show marked anticlinals with a gentle dip of 15° to 20° to the west and of from 60° to 80° to the east. These can be traced many miles farther to the north of the known producing areas known as the Tangyi hills by following the axis line or by offsetting to other parallel anticlinals. The Irawaddy River breaks through one of these axis lines between these two fields. The parallel ridges to the east of the Yengenyoung production are known as the Pagan and Gwegys hills, and are marked lines of upUf paratively level plain.

The geological equivalents of this section are the Miocene and Pliocene divisions of the Tertiary group, as determined by Dr. F. Noelling, paleontologist of the geological survey of India.

The wells usually encounter a number of sandstones of a bluish color, that are from 10 to 60 feet in thickness. They contain many quartz grains and are usually capped by a bluish shale. As many as twelve separate sands have been found in a single well, but not more than three have thus far proved to be productive.

Many of these wells flow originally as much as 1,000 to 1,500 barrels per day, but in the course of time they all become pumping wells, continuing to be productive for from eight to ten years, and gradually diminishing until exhausted.

Nearly all the petroleum found in Burma and Assam has a paraffin base. The general average is from 6 to 10 per cent of paraffin. The oil in many cases will chill on tte derrick floor at a temperature of 77° F. It is rather remarkable that the crude petroleum as it comes from the well is from 90° to 92° F. in temperature, or 15° F. above the average of the surface. In this particular it is similar to the condition of the petroleum as found in the Beaumont and the Sour Lake districts in Texas. The general specific gravity of the petroleum in Burma and Assam is from 32° to 38° Baum; probably 36° is the true average. Besides the usual 6 to 10 per cent of paraffin, from 60 to 70 per cent of inferior illuminating product is secured, which has a general average of about 40° Baum6, 3 to 5 per cent of heavy naphtha, 10 to 15 per cent of lubricating petroleum, and 8 to 10 per cent of residuum. A very superior candle is made from the paraffin.

There are extensive refineries at Rangoon to which point all of the crude production in the Yengenyat and the Yengenyoung fields is transported in large iron barges drawing from 3 to 5 feet or more and carrying from 500 to 1,000 long tons each.

The entire business in Burma is in the hands of the Burma Oil (Company, which has a monopoly of the industry. The production in the Upper Assam field has only really started since the new refinery has been completed by the Assam Oil Company. This is located at Digboi, some 60 miles inland from Dibrugarh on the Bramapootra River, near the extreme northwestern portion of Upper Assam, where an inferior grade of illuminating petroleum is manufactured, which finds a ready sale and is distributed down the river as far as Gauhati.

There have been 22 wells completed in this field, nearly all of which are producers; but the capacity of the refinery at present is not sufficient to test their output. The oil company here owns 8 square miles of productive territory.

A superior quality of paraffin candle is made at Digboi, which has a much wider range of sale than the other manufactured products.

There are many indications that India will in the future produce a

Petboleum.

much larger amount of petroleum than it does at present, as the structural conditions arc favorable in many localities that have not been sufficiently tested to develop the deposit of crude petroleum that underlies them.

The Yencrenyat and Yengenyoung districts are capable of producing much more petroleum than they do at the present time. The extreme drought in this section of India made it impossible for the usual luxuriant jungle growth to exist here. The consequence is that the outcrop of the measures is generally well exposed and the structure easily determined. In the Assam field the jungle growth is very dense; the structure is therefore determined with difficulty in this region.

A pipe line is contemplated connecting the Yengenyoung district with the refinery of the Burma Oil Company at Rangoon. This will greatly facilitate the transportation of the crude petroleum, which is now loaded in bulk barges and towed by steamers to the refinery. The low water of winter and spring greatly interferes with the full loading of these barges, which, when loaded to their capacity, carry from 600 to 1,000 long tons.

The following table gives the production of petroleum in India from 1889 to 1902, in imperial gallons reduced to barrels of 42 gallons and in rupees reduced to dollars:

Production and value of in India 1889-190.

Quantity.

Value.

Year.

Imperial gallons.

Rupees.

Dollars.

l,885i259

The value of the rupee on January 1, 18S5, in United States money was 37.8 cents; 1886, 35.7 cents; 1887, 34.6 cents; 1888, 32.2 cents; 1889, 32.3 cents; 1890, 33.2 cents; 1891, 36.6 cents; 1892, 32.8 cents; 1893, 29.2 cents; 1894, 24.5 cents; 1895, 21.6 cents; 1896, 23.3 cents; 1897, 22.5 cents; 1898, 20.1 cents; 1899, 20.6 cents; 1900, 32.4 cents;

Vic M R 1902 40 O

China.

In a limited way crude petroleum is produced in the Kouang-Li district and in the Tal-li chen district, generally by the crude methods that have been in use for several hundred years. The yield of the wells now operated is small, owing to the methods in use. Petroleum, natural gas, and salt brine deposits are reported by travelers in the vast interior of the Chinese Empire. However, this great Empire will, for many years to come, depend upon the petroleum developed by other countries for its supply.

The petroleum trade of China is one that is constantly on the increase, as is fully shown in the following tables. The gain of 1901 over 1900 is nearly 60 per cent in quantity and 24 per cent in value. A general idea of the intricate nature of the trade with the interior, which is a comparatively small part of the total consumption, may be obtained from a report by Acting Consul-General J. Scott (Canton), who states that kerosene oil has become a daily necessity with the Cantonese, and in Fatshan large establishments are engaged in the manufacture of cheap lamps and chimneys suitable to all classes of Chinese. Hongkong is the great depot for the kerosene trade of the southern ports of China from Foochow to Pakhoi; and at several of the treaty ports large oil-tank installations have been erected by Messrs. Samuel & Co., where the oil is tinned locally and sold at rates which are understood to undersell the American product of the Standard Oil Company. Of recent years kerosene has been discovered in large quantities in Sumatra, and a powerful Dutch company has followed the lead of Messrs. Samuel & Co., and now conducts a large and increasing trade in Dutch oil. The total import of kerosene oil in 1901 amounts to only 340,155 gallons for American oil and 222,210 for the Sumatra product. No Russian oil appears in the maritime customs returns. The explanation is, the native customs in Canton, by charging less duty than would otherwise be payable at the foreign customs department, have secured the whole of this latter import by junk. In 1900 the total import of kerosene was, American, 906,667 gallons; Sumatran, 639,960 gallons; Russian, 291,000 gallons; total, 1,839,633 gallons. This makes nearly six times the quantity imported in 1901. The trade has been subjected to much fluctuation from year to year, due to the vagaries of the officials in taxing or otherwise diverting the import into native hands for the more ready purpose of taxation and even of monopoly. In 1899 the actual import of kerosene amounted to 7,712,220 gallons, which will give a better index of the vast quantity used in the Canton and neighboring provinces, to which large quantities are regularly sent under transit passes.

Kerosene oil in large quantities is sent inland into the three provinces of Canton, Kwangsi, and Kweiehow. j

Petboleum.

Hawaii.

The following table shows the imports of refined oil into Hawaii in the last six months of 1899 and 1902:

Imports of refined mineral oil into Hawaii from the United Slatea in the last six months of

Month.

July

August

September.

October

November . December .

Total

Quantity. Value.

S4,811 10, 128 11,712 15,029 3,685 21,465

Quantity. Value.

Korea.

The acting British vice-consul at Chemulpo reported in 1902 that the import of kerosene oil continues to increase by leaps and bounds, but it is the American product alone which finds favor in this country, Japanese oil having declined from 222,730 gallons in 1900 to 19,260 gallons during 1901, while Russian and Sumatran oil have long ceased to figure in the returns. American oil, on the other hand, advanced from 1,797,630 gallons in 1900 to 2,463,631 gallons in 1901, an increase of 666,000 gallons. At Fusan, which has hitherto been the center of the Japanese trade, the Standard Oil Company have erected two large godowns, each with a capacity of 50,000 cases, and in December last the sailing ship Troop arrived from Philadelphia with 60,000 cases of oil, and she is to be followed by other vessels with further supplies to meet a largely increased demand which is expected to arise with the opening of the Seoul-Fusan Railway to traflSc. The commissioner of customs at Fusan, in his annual report on the trade of the year, remarks that one great obstacle in the way of the expansion of this branch of trade is the impossibility of procuring cheap lamps in the interior, owing to the large percentage of breakages, which can not be avoided under the present inconvenient system of transport. This may be true to a certain extent, but, at the same time, it must be remembered that the Koreans have very primitive ideas on the subject of artificial light, and are content to use a tiny lamp made out of old kerosene tins, without any glass at all. The chief factor in preventing the use of kerosene oil becoming general is

Ic

Mineral Besoubces.

the prohibitive cost of conveying it into the interior under the present conditions, but the construction of railways will effect a revolution in this industry, as in others.

Exports of petroleum from the United States into Korea in years ending June SO, 1901 and

Kind of oil.

Quantity.

Value.

Quantity.

Value.

Lubricating

Total

WORIiD'8 PRODUCTION.

The following table gives the production, approximately, of crude petroleum in all of the known countries of the world, together with the percentages of each for 1901 and 1902, in terms of United States barrels. A small estimated quantity has been placed under the head of ''all other countries." This quantity includes a primitive production in several of the South American States, Algeria in Africa, Pei'sia, the Philippines, and China, from which no returns could be secured.

The total increase in 1902 amounted to almost 12 per cent as compared with 1901, and to almost 26 per cent as compared with 1900. The most conspicuous items in the list are the increase in the production of the United States and the decrease in the production of Russia, the United States, for the first time in five years, surpassing Russia in production by 8,226,871 barrels. The United States and Russia produced, in 1902, 91.44 per cent of the total output as compared with 93.22 per cent in 1901, and with 94.11 per cent in 1900. Of the remaining 8.66 per cent Sumatra, Java, Borneo, Galicia, and Roumania, which furnished only 4.65 per cent in 1901, furnished 6.62 per cent in 1902, leaving 2.04 per cent of the total as the output of all the other producing countries.

Petboleum.

WorlcTs production of crude petroleum in 1901 and 1902, [Barrelfl of 42 United States gallonR.]

Country.

Quantity,

Percentage of total.

Quantity.

Percentage of total.

United States

Canada

Peru

Russia

Galicia

Sumatra, Java, and Borneo

Roumania

India

Japan

Germany

Italy

All other countries

Total

'2,059,990

The large increase in the production of the United States in 1902, amounting to 19,377,722 barrels, and the decrease in the production of Russia, amounting to 4,628,615 barrels, caused these two countries to change places, the United States now having the largest production.

Although in the production of crude petroleum the United States and Russia so closely divide the 91.44 per cent of the entire production of the world, yet when the quality of the crude petroleum is considered the parallel is by no means so complete, since more than double the quantity of the higher grades of refined products are secured from the avei-age crude petroleum produced in the United States as compared with that produced in Russia.

The following table is compiled upon the assumption that the refined products from the crude petroleum produced in the United States amount to 62 per cent of the gross output, as compared with 20 per cent of the gross output of Russian crude, and with 28 per cent of the average crude produced in all other countries.

Approximate production of refined products from crude petroleum produced in the United States, Russia, and all other countries in 1902.

Country.

Quantity.

Proportion.

United States

Percent,

All other countries

Total

The United States therefore produced nearly 2.6 barrels of refined products in 1902 for every barrel produced by the rest of the world.

The purest and most valuable grades of crude petroleum in the known world continue to be produced in the northeastern portion of the United States, in the Appalachian and the Lima-Indiana fields.

A very fair grade is also produced in a comparatively small way in Sumatra, Java, Galicia, Boumania, and India.

Of late years there has-been a very large production of crude petroleum of inferior quality consumed as fuel oil. Recently in Russia the crude has only been distilled sufficiently to satisfy the requirements of the Government as to the flash test, and the remainder is marketed as fuel petroleum, under the head of residuum. This is also true to a certain extent in our newly-developed fields in Texas, Louisiana, and California, the crude production of which is chiefly marketed in the crude state for fuel petroleum. The exports of this petroleum must of course meet the conditions demanded as to fire and flash test by the country to which it is consigned.

Cheaper transportation by pipe lines and tank ships has made this variety of fuel marketable in distant quarters of the globe that are destitute of coal. Its peculiar adaptability and fitness as a fuel for ocean liners and locomotives, where limited boiler space demands the greatest possible efficiency, are being more generally recognized throughout the world.

Natural Gas.

By F. H. OuPHANT.

Introduction.

The early use and development in the United States of this most perfect fuel was chiefly due to its observed presence in natural springs, afterwards to artesian-well drilling in search of salt brine.

In subsequent years the search for petroleum, with which it is usually associated, developed large areas of high pressure reservoirs of this remarkable hydrocarbon, which is to-day, and has been for the last thirty years, a most economical and convenient source of heat, light, and power. Outside of the United States its production is insignificant— not over li per cent of the quantity produced in this country. A large portion of this outside production comes from our neighbor — Canada.

Its introduction into commercial use was slow, and it required several years for its value to begin to be appreciated. After its value was fully demonstrated there was a rush of capital, and a large amount of money was invested in gas territory, gas wells, and pipe lines.

Then followed a period of reckless consumption and appalling waste. These conditions rapidly depleted many of the original fields of their high pressure and brought about the necessity of building larger and in many cases much longer lines to reach more remote districts where the original pressure was known to exist in reservoirs which contained it in commercial quantities, and by their remoteness were not subject to the ruinous competition that helped to exhaust the nearer original fields.

Many of these more recent localities of high-pressure gas were developed in the search for petroleum ; others were located by structural conditions of the strata, as natural gas inevitably seeks the higher portions of the rock in which it is sealed.

Not until it was fully realized that a large proportion of our then known natural supply had been consumed and dissipated by the extravagant and wanton methods in use, were improved methods adopted for holding back the gas in the original rock reservoirs.

iC

Mineral Resoitboes.

VAIilTE OF NATURAIi-GAS PBODUCTIOIS.

In the following table is given the approximate value of natural gas produced and sold in the United States from 1889 to 1902, by States:

Approximale value of natural gas proditced in the United SUUes, 1889-1902 by States.

state.

Arlcansas

California

Colorado

Illinois

a5,687

Indiana

Kansas

Kentucky

Missouri

New York

Ohio

Pennsylvania ... South Dakota. . . .

Texas

Utah

West Virginia... other states

Total

State.

S60

40

California

Colorado

Illinois

Indiana

Indian Territory. KanimJ?

Kentucky

Missouri

New York

Ohio

Pennsylvania ... South Dakota . . .

Texas

Utah 20,000

West Virginia ... 640, 000 Other States 50.000

Total

a Includes value of gas produced in South Dakota, Texas, and Utah.

6 Does not include value of gas produced in Canada and consumed in the United States.

Natural Gas. 688

This table is conspicuous for the large increase in the value of the natural gas sold in 1902.

A considerable quantity of natural gas is consumed in the manufacture of lampblack. This is the only article manufactured from natural gas.

There was a slight increase in the price of the natural gas marketed in a number of localities. The increase in the quantity marketed came principally from Pennsylvania and West Virginia. Indiana maintained its former production from declining fields by the use of natural-gas compressor plants. In Ohio also the compressor was largely used to keep up the declining output of its fields. The largest gain in 1902 was in West Virginia, which furnished large quantities of natural gas to Pennsylvania and Ohio. Pennsylvania furnished a large amount to New York and Ohio, and a small amount to West Virginia. Indiana furnished gas to Ohio and Illinois, and Kentucky furnished natural gas to Ohio and West Virginia. The quantity and value of the natural gas produced in Kansas has been steadily} increasing. The State of California made large gains, although its production is as yet insignificant. Indian Territory appears for the first time in the list of producers, but Utah has for several years past failed to record any production.

The Appalachian and the Lima-Indiana natural-gas production amounted to 97 per cent of the total production of the United States in 1902. The Appalachian proportion of the total value of the production was 69.5 per cent, leaving 27.6 per cent that represented the production of the Lima-Indiana fields. The State of Ohio produced natural gas from both of these fields. Of the total value in 1902, Pennsylvania produced 46.6 per cent, Indiana 22.9 per cent. West Virginia 17.4 per cent, Ohio 7.6 per cent, Kansas 2.67 per cent, New York 1.12 per cent, Kentucky 1.18 percent, and the remaining States only 0.49 of 1 per cent. Canada's production of natural gas was only 0.63 per cent of the value of that produced in the United States.

QUANTITY AND VALUE OF NATUBAIi GAS CONSUMED IN

The value of natural gas produced and sold for consumption in the United States in the year 1902 was $30,867,668, a value greater than that of any previous year. At an average price of 15 cents per 1,000 cubic feet, this sum represents a production of 205,784,453,333 cubic feet. Were it possible to store this quantity in equal density in a reservoir whose base is 1 square mile the sides of the resei*voir would be 1.4 miles high. Assuming that 20,000 cubic feet of natural gas be taken as equal to 1 ton of coal, the quantity of natural gas in 1902 represents, in round numbers, 10,289,000 tons of coal, valued at $3 oer ton.

The value of the coal and wood actually displaced is reported as $39,798,833, so that the use of the natural gas resulted in an apparent saving to its consumers in 1902 of $8,931,165.

The value of the natural gas produced and sold in 1902 was $3,801,591 greater than that of 1901, an increase of over 14 per cent. The value of the production in 1901 was 14 per cent more than that of 1900, and that of 1900 was 18 per cent greater than in 1 899. It may be interesting to note that the value of natural gas in 1902 was 43.3 per cent of the value of the crude petroleum produced in the same year. When the value of the coal and other fuel displaced by the natural gas is taken into consideration, the value of the natui*al gas amounts to very nearly 56 per cent of the value of the crude petroleum. Natural gas is a finished product, however, while petroleum is a crude commodity, requiring treatment before it can be marketed.

There were 14,370 wells producing natural gas at the close of 1902, of which number 107 were shut in and not in use, leaving 14,263 wells that were in use. There were 2,749 new productive wells completed during 1902, 594 wells were or unproductive, and 1,250 wells were abandoned. At the close of 1901 there were 12,865 producing wells, so that 1902 shows a gain of 1,505 productive wells. In 1902 there were laid 3,125 miles of main line of pipe from 2 inches up to 20 inches in diameter. The total miles of main line in use at the close of 1902 were 24,973, sufficient to girdle the globe.

COMBINED VAIiUE OF NATURAL GAS AND PETROIjEUM, BY STATES, IN 1902.

The following table is made up of the combined value of naturalas and petroleum in 1902. The total value of both was $102,036,924, of which 30.2 per cent was the value of the natural gas and 69.8 per cent that of the petroleum. Of this amount Pennsylvania produced 29 per cent, Ohio 22.7 per cent, West Virginia 22 per cent, Indiana 13.3 per cent, California 4.88 per cent, Texas 3.9 per cent, New York 1.84 per cent, Kansas 1.08 per cent, leaving but 1.3 per cent for the production of the remaining States.

Natubal Gas.

In the States of Indiana, Kansas, and Kentucky the value of the natural gas produced exceeded the value of the petroleum. The value of natural gas in Pennsylvania in 1902 was only $913,870 less than that of the petroleum. This State produces the largest part of the combined value of natural gas and petroleum.

The combined value of natural gas and petroleum ranks next to pig iron and coal in the list of the values of the crude mineral products of the United States in 1902.

Value of the natural gaa and petroleum produced in 1902 and their combined value, by

States.

State.

Value of natural gem.

Value of petroleum.

Value of natural gaa and petroleum.

Pennsylvania .

Ohio

West Virginia .

Indiana

California

Texas

New York

Colorado

Kentucky and Tennessee

Louisiana

Wyoming

Indian Territory

South Dakota

Michigan, Missouri, and Oklahoma, niinois

Total.

VAIiTJB OF NATURAL GAS CONSUMED, BY STATES.

The following table ia interesting as revealing three important facts.

The first column shows that there was a large increase — 2,116, as compared with 1,545 in 1901 — in the number of companies and individuals reporting on the consumption of natural gas during 1902. This increase is largely made up from small producers in Pennsylvania, New York, Indiana, Illinois, and California. Many of the large natural-gas companies have consolidated in Pennsylvania, Ohio, and West Virginia.

The second colunm of this table indicates the value of the natural gas consumed in the State which produced it. Pennsylvania, Indiana, and West Virginia sold a considerable portion of their production outside of their borders. Ohio purchased very nearly double the amount that was produced inside of the State. West Virginia sold 54 per cent of her production to the States of Pennsylvania and Ohio. New York produced only 20 per cent of the quantity consumed; the other 80 per cent came from Pennsylvania chiefly. Gas produced in Canada and consumed in New York is not included in this table. 9' by vjuuic

Mineral Be80Ubce8.

A considerable portion of the natural gas produced in Kentucky was consumed in West Virginia and Ohio. The remaining States consumed inside of their own borders all of the natural gas they produced.

In the third column is given the value of the wood and coal displaced by natural gas in 1902. The increase in value was $8,931,165, an increase of 29 per cent, as compared with an increase of 20 per cent in 1901. This seems to indicate a considerable increase in the price both of the anthracite coal displaced by natural gas in the lake cities, in which anthi-acite was formerly used, and of the bituminous coal formerly used as a household fuel, a much greater increase in proportion than in the price of natural gas. In Indiana and Kansas natural gas is sold at very low prices, comparatively, and the fuel displaced would have cost nearly 60 per cent more than the price obtained for the natural gas.

Value of ncUural gas consumed in tJie United Slates in 190 y by StaieSy and the value of coal or wood displaced by same as reported by Syl47 persons, firmSy and corporations.

State.

Companies or indlviduals reporting.

Amount received for sale of gas or value of gas consumed.

Estimated value of coal,

wood, or other fuel displaced by gas.

Pennsylvania.

Indiana

Ohio

West Virginia

New York

Kansas

Kentucky and Tennessee.

California

Texas

South Dakota

Missouri

Colorado

Illinois

Indian Territory

Arkansas

Total.

a 379

&461

oll6

S13,942,823

tl7,912,669

a Includes 94 individual producers In Erie County, the product of whose wells is prlntipally for their own domestic consumption.

b Includes 333 individual producers in Ashtabula, Cuyahoga, Lake, and Lorain counties, the product of whose wells is principally for their own domestic consumption.

c Includes 63 individual producers in Chautauqua County, the product of whose wells is principally for their own consumption.

Natural Gas.

In the following table is given the value of natural gas consumed in the United States in 1899, 1900, 1901, and 1902, by States. The firstnamed five States, which produce and consume more than nine-tenths of the natural gas, show a regularly increased production during the last four years, and have maintained their respective places for that period.

Value of ncUural consumed in the United States, 1899-190£j by Stales.

State.

Indiana

Ohio

West Virginia

New York

Kansas

Kentucky

California

Texas

South Dakota

Colorado

Illinois

Indian Territory .

r, 926, 970

til, 786, 996

Total.

a A portion of this was consumed in Chicago, 111.

By comparing the value of the natural gas consumed as recorded in the above table with that produced as recorded in a previous table, it will be found that West Virginia produced $2,917,007 worth of gas in excess of the value of that consumed in the State in 1902. Indiana produced $371,264 worth of gas more than was consumed in the State. In Pennsylvania $409,400 represents the amount sold out of the State over that produced and purchased within the State. On the other hand, Ohio purchased $2,430,308 worth from other States, and New York purchased $1,377,238 worth of natural gas in excess of its production in 1902.

Mikebal Be80Ubges.

USES OF NATTJRAIi GAS.

In the following table are specified the uses to which the natural gas produced in the United States in 1902 was put:

Ikes to which natural gas produced in the United States in 190 was puty as reported hj 2yl47 persons firms, and corporations.

Companies or

individuals report

ing.

Domestic consumers supplied.

state.

Iron mills.

Steel works.

Glass works.

Other establishments.

Total.

Ohio

West Virginia

New York

irft.nittjf -

Kentucky

California

Texas

South Dakota

Missouri

Colorado

Illinois

Indian Territory

Arkansas

Total

There was an increase of 602 companies and individuals reporting in 1902 as compared with 1901. Many of these, however, were individuals owning a single well, which accounts in part for the large increase. A number of iron, steel, and glass works in Pennsylvania and a number of glass works in Indiana have their own natural-gas plants. The natural-gas companies have found more profitable customers in supplying the domestic trade, for which the natural gas is so eminently fitted and from which nearly all of their revenue is derived. There were 509,695 domestic consumers supplied in 1902. It is estimated that not less than 3,850,000 individuals are supplied with light and fuel by natural gas, and that not less than 4,500,000 people received the benefit of its use as an illuminant.

RECORI> OF WEIiliS AND PIPE lilNES, BY STATES.

In the following table will be found the number of companies and individuals reporting, the producing wells at the close of 1901 and 1902, the producing wells drilled, and the nonproducing or dry holes drilled in 1902, together with the total length of pipe in use at the close of 1902, by States.

Natubal Gas.

Record of wells and amount of pipe line, as reported by £fX47 persons, firms, and corporor

tions in 190X, by Stales.

State.

panics or

individuals reporir

Ing.

Producing, Dec. 81,

Wells.

Producing, drilled In

Abandoned

in

Producing, Dec. 81,

Non producing

holes drilled in 1902.

Total pipe laid to Dec. 31, 1902.

Feet

Miles.

Pennsylvania

Indiana

Ohio

West Virginia

New York

Kansas

Kentucky

California

Texas

South Dakota —

Missouri

Coloradoa

Illinois

Indian Territory. Arkansas

Total.

a Gas is produced from oil wells.

b Includes 107 wells not utillxed in 1902.

Record By States.

Pennsylvania.

This State has the largest area of natural gas. Its pools are thickly scattered to the west of an imaginary line drawn from the southeast corner of Greene County to the northeast corner of Potter County, embracing an area of about one-third of the entire State. All the counties to the west of and including those cut by this imaginary line in this portion of Pennsylvania produce more or less natural gas.

The pools in which the natural gas is found are generally extended in a northeast and southwest direction of greater or less extent. There are instances where cross lines of elevation have interrupted the general trend of the pools.

Three requisites are necessary for the accumulation and storage of natural gas: First, there must be an open, porous, or cellular structure in which the gas can accumulate; second, this open structure must be capped by a clay or shale that will close up the reservoir and adjust itself to the vents caused by flexures so as to seal them up; third, there must be sufficient pitch or relief in the gas-holding strata, so that the natural gas can accumulate in the domes of the arches and the flanks of the elevations, and thus be separated from the petroleum and It water with which it is usually associated. ic

Mineral Resources.

These conditions have been particularly fulfilled in the structure of the western portion of the State of Pennsylvania. This State produced nearly 47 per cent of the entire output of the United States in 1902, nearly as much as the combined production of Indiana, Ohio, and West Virginia. The value of the production in 1902 was 114,352,223, an increase of 11,664,062 over the value of the production in 1901.

When the combined values of natural gas and petroleum are considered, Pennsylvania heads the list with a production of $29,618,316, amounting to clearly 30 per cent of the combined value of natural gas and petroleum produced in 1902.

Although many of the older natural-gas pools, which in former years were large producers, have at this date ceased to produce any considerable amount, there are other fields in which by means of the suction lines leading to the gas-compressor plants large areas of low-pressure gas are made available and have for many years been producing large amounts in the aggregate.

The deep Bayard and other sands in Greene County, the Gordon, the Big Injun, the Fourth and the Fifth sands of Washington and Fayette counties, the Speechley in Butler, Armstrong, and Venango counties, and the deeper underlying sands of Elk, McKean, and Potter counties have all contributed largely to maintain and even to increase materially the output of Pennsylvania.

Value of naturcu

gas produced in Pennsylvania, 1885-1902,

Year.

Value.

Year.

Value.

Kecord Of Natural-Gas Industry In Pennsylvania.

In the following table there is exhibited a very complete record of the several uses to which natural gas is applied, including its value, the value of other fuel displaced, the number of domestic consumers supplied, the number of iron, steel, glass, and other establishments supplied, the operation of wells, and the feet of pipe line completed at the close of 1900, 1901, and 1902.

Natural Gas.

Record of natural-gas industry in Pennsylvaniaf 1900-190.

Amount received for sale of gas or value of gau consumed. .

Value of natural gas produced

Value of coal and wood displaced

Domestic consumers supplied

I ton and st€el works supplied

Glass works supplied

Other establishments supplied

Total establishments supplied

Total wells producing Jan. 1

Total productive wells drilled

Total wells abandoned

Total wells prod ucing Dec . 81

Total dry holes drilled

Total feet of pipe laid to Dec. 81

Number establishments reporting

a229,730

a 826, 912

a Number domestic fires supplied.

Indiana.

The production of natural gas in this State in 1902 is valued at 17,081,344, a gain of $126,778 over 1901. It is remarkable with what regularity the production in this State has been maintained for the last ten years in the face of a declining pressure. Indiana probably produced as much natural gas in 1902 as did Pennsylvania, although the price received in the latter State was double that received for the sale of natural gas in Indiana. A very large proportion of the natural gas is marketed in this State at a low figure, based upon the amount that passes through a certain sized orifice. Whether a greater or less amount is consumed by the individual, the price remains the same, and there is no effort on the part of the consumer to use the gas in an economical manner. When the gas is sold by the meter, the indifference of the consumer ends, and the gas is consumed in such a manner that usually one-half the amount formerly used will accomplish the same results. There has been a disposition of late years to consume an extra amount of the gaseous fuel that is developed in drilling prospective oil wells, and is sold to manufacturers at a low rate. The petroleum found in the Trenton rock on the northern flank of the great natural-gas field has caused the waste of many millions of cubic feet of gas that has escaped into the air in the process of completing oil wells. To guard against this waste, a special law was enacted requiring the shutting in of wells that produced large quantities of natural gas accompanied usually by a small quantity of petroleum. This law had some good effect, but in many cases it was evaded.

The original natural-gajs field in Indiana occupied an area of 2,850 square miles of almost continuous territory over the flat dome of the

M R 1902 41 . ..,,.,

Mineral Resoubces.

Trenton rock. This field was unsuspected for many years until the Ohio field was developed. The original pressure in 1886 was 325 pounds to the square inch. At the end of 1902 this pressure had declined to an average of about 50 pounds, which represents only 15 per cent of the original volume. This may be increased to 20 per cent, owing to tardy manner in which the pressure adjusts itself in the rock as the gas approaches exhaustion.

By means of natural-gas compressors and fan blowers the remaining portion in the once great reservoir is being fast depleted. Salt water becomes more of an enemy to the life of a gas well as the pressure decreases.

The production of petroleum in Indiana in 1902 was valued at ,526,622; the value of the natural gas was $7,081,344, a total of $13,607,966, which is 13.3 per cent of the combined value of petroleum and natural gas produced in the United States during 1902.

For a number of years gas mains leading from Indiana to Chicago, 111., have furnished that city with from 18,000,000 to 20,000,000 cubic feet per day. Several large towns on the western border of Ohio have also been supplied with natural gas produced in Indiana.

In the following table will be found a statement of the value of the natui*al gas produced in Indiana from 1886 to 1902:

VcUtie of natural gas produced m Indiana 1S86-190S.

Year.

Value.

Year.

Value.

Record Of The Natural-Gas Industry In Indiana.

The following table is a complete record of the operations in the Indiana natural-gas field in the years 1900, 1901, and 1902, audit indicates a considerable increase in nearly all of the items. Many of the gas wells were drilled in search of petroleum, and when they developed into gas wells they were piped to the nearest manufacturer and their product disposed of at remarkably low rates. There is a decided increase in the price of the production in the face of the declining pressure and of the many abandoned gas wells.

NATURAL GAS. Record of ncUural-gas industry in Indiana 1900-1902.

a 181, 751

a 153,869

70O.

Amount received for sale of gas or value of gas consumed. .

Value of natural gas produced

Value of coal and wood displaced

consumers supplied

Iron and steel works supplied

Olaffi works supplied

Other establishments supplied

Total establishments supplied

Total wells producing Jan. 1

Total productive wells drilled

Total wells abandoned

Total wells producing Dec. 31

Total dry holes drilled

Total feet of pipe laid to Dec. 31

Number of establishments reporting

a Number domestic fires supplied.

West Virginia.

This State is yearly becoming more prominent as a natural-gas producer, and is the hope of the future for a continued supply to western Pennsylvania and eastern Ohio. Its field operations have within the last two years proven the existence of deeply-buried strata containing high-pressure gas over many large areas in Lewis, Harrison, Marion, Monongalia, and Wetzel counties, developed in the Big Injun, the Gordon sand, the Gordon Stray, the Fourth, the Fifth, and the Bayard or Sixth sands. Many of the wells in this section of the State are among the largest in volume; as much as 26,000,000 cubic feet are recorded as the output of a single well. The rock pressure is from 1,000 to 1,250 pounds to the square inch, and the depth of the wells is from 2,700 to 3,200 feet. The other counties in which more or less natural gas has been developed are Tyler, Ritchie, Doddridge, Marshall, Wood, Wirt, Roane, Calhoun, Boone, Mingo, Kanawha, Logan, and Gilmer. Several of the largest natural-gas companies in western Pennsylvania supply Pittsburg with natural gas produced in West Virginia. During the last year several large lines have been completed across the Ohio River into eastern and southern Ohio.

The value of the production of natural gas in 1902 was $5,390,181, an increase of $1,435,709, or 36 per cent, as compared with 1901, this State showing the largest percentage of increase in 1902. Of the total product only about 46 per cent was consumed within the State, 54 per cent going to Pennsylvania and Ohio. West Virginia also received some natural gas from Kentucky and Pennsylvania which was consumed inside of its borders. The combined production of natural gas and petroleum in this State in 1902 was valued at $22,430,498, or 21.98

Ic

Mineral Resources.

per cent of the combined value of petroleum and natural gas produced in the United States in 1902. The increase in production of natural gas in this State has been quite regular since 1895. There are sufficient reservoirs now developed to add largely to the State's wealth in the future, as the petroleum and bituminous coal deposits recently developed have done.

The value of the natural-gas produced in West Virginia from 1889 to 1902 is shown in the following table:

Value of naJLural gas produced in WeiU Virginia 1889-190.

Year,

Value.

Year,

Value.

Record Of Natural-Gas Industry In West Virginia.

The following table gives a detailed statement of the operations in thia State in developing and marketing natural gas in 1900, 1901, and 1902. All of the individual items show an increase in 1902 over 1901, as does also 1901 over 1900.

Record of naiurai-gas hidustry in West Virginia 1900-190S.

Amount received for sale of gas, or value of gas consumed

Value of natural gas produced

Value of other fuel displaced

Domestic consumers supplied

Iron and steel works supplied

Glass works supplied

other establ ishments supplied

Total establishments supplied

Total wells producing Jan. 1

Total product! vc wells drilled

Total wells abandoned

Total wells producing Dec. 31

Total dry holes drilled

Total feet of pipe laid to Dec. 31

Number establishments reporting

a 45, 948

a55,806

a Number of domestic fires supplied.

Natubal Gas. 645

Ohio.

This State contains three natuml-gas fields. The first known field was along the eastern margin of the State, where are the sands of the Lower Coal Measures, the Waverly Series, and the Ohio shales. The second field in the central portion of the State receives its natural gas from the Clinton Limestone of the Upper Silurian series. This field was the last developed. The third field is that found in the northwestern portion of the State, and obtains its natural gas exclusively /rom the upper portion of the Trenton limestone of Lower Silurian series. The early use of natural gas dates back to 1866, when it was used at Gambler, in Coshocton County, in the manufacture of lampblack. In 18Y4 it was used at East Liverpool, in the household, for heat and light. The great Trenton rock gas field was first opened at Findlay in November, 1884. The Lancaster gas field was developed by a well drilled near that city in 1887. The gas produced from the eastern portion of the State, which was secured from the Berea, the Cow Run, and the Big Injun sands, was not developed in sufficient quantity to warrant the piping of it to far distant localities, but it has been an important factor in supplying many near-by towns and industries.

The Trenton rock gas field was rapidly developed until it covered about 500 square miles. The original rock pressure was 425 pounds to the square inch. A wanton waste of this fuel was caused by wild speculation and inflated values, and the end of this pool was in sight before the gas was thoroughly introduced into the near-by cities. For the last four years the pool has been practically exhausted.

The Lancaster field in central Ohio long lay undeveloped to any large extent until in 1899, when there was a rapid development of what is known as the Sugar Grove field. The original pressure of 750 pounds was, by 1900, reduced to 400 pounds, and in 1902 it was still further reduced to less than 100 pounds to the square inch.

During 1901 and 1902 a very large field was opened north of the original Lancaster field in Knox and Licking counties, which receives its production from the geological horizon of the Clinton limestone. The area of this field, so far as developed, is now about 20 miles long and from 4 to 6 miles in width. Of a total of 72 wells drilled inside of the area named, only 4 were dry holes. The rock pressure is 800 pounds to the square inch. The average flow is about 4,000,000 cubic feet per 24 hours. One well started at the rate of 14,000,000 cubic feet, but fell off to about 9,000,000 cubic feet. The area of this field, so far as developed, is much larger than the original Lancaster or Sugar Grove field, and promises to produce large quantities of highpressure natural gas.

Ohio has felt the loss of the natural gas in the original area near

iC

Findlay, which was squandered in the most reckless manner before it was possible to impress upon many individuals directly interested in the natural-gas business that the supply of natural gas is limited, that every cubic foot taken out leaves that much less to follow. The new fields are being operated with more care, owing to the severe lessons taught in the early stage of the development. In Ashtabula County a number of small gas wells have been secured from the Corniferous limestone, which have lately been piped to Ashtabula and Jefferson. West Virginia, however, continued to famish large quantity of natural gas to Ohio, supplying Marietta, Belpre, Newport, New Matamoras, Sardis, Powhatan, Deunison, Urichville, Canal Dover, Canton, Massillon, Akron, Cleveland, and in part Steubenville, East Liverpool, Toronto, Bridgeport, Mingo, and Wellsville. The indications are that a much larger quantity will be delivered to Ohio from West Virginia in the future. Pennsylvania supplies Youngstown and several villages in eastern Ohio. Kentucky furnishes gas to Ironton, and Indiana furnishes natural gas to several towns near the western border of the State.

The value of the natural gas produced in Ohio in 1902 was $2,356,308, which is a gain of $208,093 as compared with 1901. The greatest production in this State was in 1889, after the great Findlay gas field had been first opened; the least production was in 1897, just before the Lancaster and Sugar Grove pools were developed. Of the $4:, 785,616 in value of natural gas consumed in Ohio in 1902, $2,355,308 in value, or 49.3 per cent, was produced by the State; the remainder was furnished by West Virginia, Indiana Pennsylvania, and Kentucky. Of the total State production $2,005,351 wortli was from wells located in the counties of Fairfield, Hocking, Licking, Knox, Belmont, Guernsey, Noble, and Perry. The other counties in Ohio which produced commercial gas in 1902 were as follows: Allen, Auglaize, Colmnbiana, Darke, Hancock, Hardin, Harrison, Holmes, Logan, Lucas, Mercer, Morgan, Monroe, Ottawa, Sandusky, Stark, Van Wert, Washington, and Wood. In the total production for the State is included $20,Y19 worth of gas produced from oil wells, about one-fourth of which was consumed for domestic purposes. During the jear 1902 the city of Cleveland was for the first time supplied by natural gas from West Virginia.

The combined value of the natural gas and petroleum produced in Ohio in 1902 was $23,112,667, equal to 22.7 per cent of the entire production of natural gas and petroleum in the United States. Ohio occupies the second place in the combined value of natural gas and petroleum, Pennsylvania being first with a credit of over 29 per cent. The value of the petroleum produced in Ohio during 1902 was $20,757,359.

Natural Oab.

The value of the natural gas produced in Ohio from 1885 to 1902 is shown in the following table:

Value of natural gas produced in Ohio, 1886-1902.

Year.

Value.

Year.

Value.

Record Of The Natural-Gas Industry In Ohio.

The following table gives the details in the operation of the naturalgas industry in Ohio for three years, 1900, 1901, and 1902, in a complete manner. There are included in the following statement of wells 333 small wells or Tndividual producers in the counties of Ashtabula, Cuyahoga, Lake, and Lorain, which supply one or two families.

Record of luUural-gas induMry in Ohio, 1900, 1901, and 190iS.

Amount receiTed for sale of gas or value of gas coTLsumed. .

Value of natural gas produced

Value of coal and wood displaced

Domestic conmimers supplied

Iron and steel works supplied

Glass worlds supplied

Other establishments supplied

Total establishments supplied

Total wells producing Jan. 1

Total productive wells drilled

Total wells abandoned

Total wells producing Dec. 31

To tal dry h oles d rilled

Total feet of pipe laid to Dec. 31

Number establishments reporting

ja, 823, 209

S3,5G5,142

a 136, 743

Co

a 149, 709

3a5

H 785, 016

a Number domestic fires supplied.

Mineral Rk80Urce8.

New York.

Natural gas is found over a very large area in the western portion of New York in a number of diflferent sands and limestones, including the Devonian black slate, the Bradford sand, and the underlying Kane and Elk sands, the Corniferous limestone, the Medina sandstone, the Trenton limestone, and the Upper Calciferous. The greater portion of the gas comes from the neighborhood of Wellsville and Ricebrook, in Allegany County, from the sands found in the Upper Devonian. There are a vast number of wells scattered along the south shore of Lake Ontario and many wells along the south shore of Lake Erie that furnish from one to four families with gas. The greater portion of the natural gas consumed in the State comes from Pennsylvania, the largest consumption being in the city of Buffalo. The town of Fredonia used natural gas as far back as 1821 from natural flows and shallow wells, and has the honor of first making use of it as a source of light and heat. The counties producing natural gas are Allegany, Cattaraugus, Erie, Livingston, Niagara, Onondaga, Ontario, Oswego, Seneca, and Steuben. The value of the natural gas produced in New York in 1902 was $346,431, an increase of $53,199 as compared with 1901. The value of the natural gas consumed in the State in 1902 was $1,723,669, which was largely supplied by Pennsylvania. There were some new developments in southeastern Allegany County during 1902.

The value of natural gas produced in New York from 1886 to 1902 is given in the following table:

Value of natural ga produced in Neu* York 1885-190g.

Year.

Value.

Year.

Value.

a256,000

a A portion of this amount should be credited to Pennsylvania, but it won inipos.sible to make the separation.

Record Of Natural-Gas Industry In New York.

The following table gives a complete statement of the business operations in natural gas in the State of New York for the years 1900, 1901, and 1902, from which the conditions of this industry can readily be compared.

Natural Gas. 649

Becord of natural-gas industry in New Yorky 1900, 1901, and 190,

Amount received for sale of gas or value of gas consumed.

Value of natural gas produced

Value of coal and wood displaced

Domestic consumers supplied

Iron and steel works supplied

Glass works supplied

Other establishments supplied

Total establishments supplied

Total wells producing Jan. 1

Total productive wells drilled

Total wells abandoned

Total wells producing Dec. 31

Total dry holes drilled

Total feet of pipe laid to Dec. 31

Number of establishments reporting

a 89, 837

a 95, 161

a Number of domestic fires supplied. KANSAS.

This State is making remarkable progress in the development of its natural-gas fields. The present development begins at Paola and extends in a series of pools southwest across the southeast portion of the State to Indian Territory, embracing the counties of Miami, Allen, Neosho, Crawford, Wilson, Montgomery, and Labette. The principal pools of high-pressure gas with large volume have been developed at lola, Gas City, and La Harpe, in Allen County; at Chanute, in Neosho County; and near Cherry vale. Independence, and Coffey ville, in Montgomery County.

The gas is found in the sandstones and the more porous beds of the Cherokee shales, which are at the base of the Coal Measures in the Kansas field. There is not a uniform gas-producing formation, but rather local ''sands" at varying horizons in the 450 feet of Cherokee sliales. The depth at which gas is encountered increases to the westward as a result of the dip, and in the more productive belt varies from 700 to 1,150 feet. The volume of many of these wells is as high as 5,000,000 cubic feet in twenty-four hours, and a few have gone as high as 10,000,000 cubic feet. The original rock pressure, which was 325 pounds to the square inch in a number of the pools, has decreased somewhat. In some of the pools the pressure was originally only 150 pounds.

The early history of this district dates back thirty years, when the Acres Mineral well was completed at lola, which gave a small flow of natural gas. After several wells had been drilled near this location a vigorous well was found in 1893, which flowed about 3,000,000 cubic feet in twenty -four hours. In 1892 the gas began to be introduced successfully in a small way. In the year 1899 it was supfuiljyipplied

Mineral Re80Ub0Es.

to the reduction of zinc ore, and began to be used by many of the large towns in southeastern Kansas, and it began to be used also in the manufacture of brick and hydraulic cement and in numerous other manufactories. Development in the last year has been active, and numerous natural-gas wells have been found.

The production of natural gas in Kansas in 1902 is valued at $824,- 431, an increase of 1165,258, or almost 20 per cent. The value of the fuel displaced was $1,175,349, a saving of $350,918 to the consumers. The value of the petroleum produced in Kansas in 1902 was $292,464, a total of $1,116,895 for the combined value of natural gas and petroleum, or over 1 per cent of the total value of both.

The value of the natural gas produced in Kansas from 1889 to 1902 has been as follows:

Valve of natural gas produced iii Kansas 1889-190S.

Year.

Value.

Year.

Value.

Record Of Natural-Gas Industry In Kansas.

The following table gives in detail the record for natural gas in Kansas during 1901 and 1902:

Record of natural-gas indnMry in Kansas 1901 and 1902,

Amount received for sale of gas or value of gas consumecl .

Value of natural gas produced

Value of coal and wood displaced

Domestic consumers supplied

Iron and steel works supplied

Zinc smelters supplied

Glass works supplied

Brick works supplied

other establishments supplied

Total establishments supplied

Total wells producing Jan. 1

Total productive wells drilled

Total wells abandoned

Total wells producing Dec. 31

Total dry holes drilled

Total feet pi pe laid to Dec. 81

Number of establishments reporting

Ic

Natural Gas.

Kentucky.

The principal gas area thus far developed is in eastern Kentucky, in Martin County. There are some fair gas wells in western Floyd County. Aehland, Catlettsburg, and Louisa are supplied from this region. In Meade County there is still found some shale gas, which is conveyed to Louisville. During the fall of 1901 a large gas well was developed near the Beaver oil pool in Wayne County. There is also a fair gas well just over the State line in Fentress County, Tenn. There is a small supply of gas obtained for domestic use in Breckinridge County, in the vicinity of Cloverport, also in Hardin and Jefferson counties.

Numerous gas wells of modei-ate output were found in the search for petroleum, few of which have been utilized. A considerable portion of the natural gas produced in eastern Kentucky was sold at Huntington and other towns in West Virginia, and at Ironton, Ohio.

The production in 1902 was valued at $365,611, which is a large increase over former years.

The value of the natural gas produced in Kentucky from 1889 to 1902 is shown in the following table:

VcUtie of natural gas produced in Kentucky 1889-1908.

Year.

Value.

Year.

Value.

S99,000 90,000

a 365, 611

a Includes HomegaM produced In West Virginia but consumed in Kentucky.

California.

Although there are numerous small gas wells in this State, by far the greatest production comes from wells at the city of Stockton, in the great San Joaquin Valley. It is also found near the city of Sacramento, in the Sacramento Valley, in Tulare County, near Tulare Lake, and in Tehama County. To a small extent it is produced by a few wells at the city of Los Angeles. In the two former instances it is associated with artesian-water flows. At Stockton the wells are 2,000 feet deep, yet none of them has passed through the alluvial deposit into the solid stratified measures. Under the pressure of 2,000 feet, water will absorb a large amount of gas, which is gradually liberated as it ascends in the well and the pressure diminishes. Ten of these

Nc

Mineral Re80Urce8.

The total value of natural gas produced in California in 1902 was $120,648, of which a quantity valued at $88,610 was used principally for domestic purposes. Nearly all of this gas was produced from wells in San Joaquin and Sacarmento counties, the product being consumed in Sacramento and Stockton, where there were some 1,400 consumers. A few wells located in Los Angeles and Santa Barbara counties produced a small amount of gas, which was utilized for domestic purposes by the ownere of the wells.

In the total value of gas for the State of California we have included $32,138 worth of gas produced from oil wells, the product being used in the operation of oil plants and none being sold for domestic purposes.

The value of the natural gas produced in California from 1889 to 1902 is shown in the following table:

Vcdxte of natural gas produced in California, 1889-1902.

Year.

Value.

Year.

Value.

S55,682

a 120, 648

a Includes $32,138 worth of gas produced from oil wells and consumed In oil operations.

Texas.

The total value of the natural gas produced in the State of Texas in 1902 amounted to $14,963, of which $11,575 worth was from gas wells, the remainder being from oil wells. The gas used in the State for domestic purposes is produced from gas and oil wells in Navarro County and is consumed in the city of Corsicana. Gas from wells in Jefferson County was consumed by establishments in Gladys City.

Some wonderful pockets of high-pressure gas have been developed in the Beaumont field, which blew up bowlders and sand mixed with water and traces of petroleum. When the pressure was confined it developed 250 or more pounds to the square inch, and, after the gas originally in the rock had been exhausted, the gas under pressure was used to assist the petroleum wells to flow by having the gas turned into the petroleum wells.

Several large natural gas wells were developed on Bryans Mound, near the shore of the Gulf in Brazoria Countj and at Big Hill in Jefferson County, none of which have as yet been utilized.

Numerous artesian wells along the Gulf coast give off considerable natural gas with the artesian water. , . . ,, ,„

/vJ VIC

Natural Gas.

South Dakota.

The gas found in this State is associated with flows of water at a number of localities, but only recently has its value been appreciated.

At Pierre there are three wells which have furnished sufficient natural gas to be used extensively for domestic purposes in the town and to furnish fuel for a 60-horsepower boiler. These wells also supply sufficient water for the use of the inhabitants of the town.

The locations and conditions of the occurrence of natural gas in this State, so far as developed, were discussed at some length in an article written by Prof. J. E. Todd, State geologist, and quoted in this report for 1901.

The value of the natural gas produced in South Dakota from 1899 to 1902 has been as follows:

Valxie of Twiural gas produced in SotUh Dakota, 1899-1902.

Year.

Value.

Year.

Value.

S3, 500 9,817

Illinois.

The production of natui-al gas in this State comes from shallow but persistent wells in Randolph and Bureau counties, which supply single families.

The production of natural gas in Illinois from 1889 to 1902 was valued as follows:

Value of natural gas produced in lUinois, 1889-1902,

Year.

Value.

Year.

Value.

Utah.

No natural gas has been produced in this State for four years. The wells, 12 miles north of Salt Lake City, have become choked up by the decomposition of the slate forming the walls of the gas wells.

The value of natural gas produced in Utah from 1893 to 1902 has been as follows:

Ic

Mineral Besouboes.

Value of natural gas produced in Utah, 189S-190S,

Year.

Value.

Year.

Value.

S7,875

Missouri.

During the year 1902 a gas well was drilled in Cass County, Mo., the product of which has been supplied to consumers in the town of Belton since September of that year. The gas is found at a depth of 366 feet.

Several gas wells in Bates County are producing small quantities of gas, which is utilized for domestic purposes by the owners of the wells.

A small quantity of gas is also produced and used for heating and illuminating purposes in Kansas City.

Arkansas.

During the year 1902 some development work was done in Sebastian County, Ark., two productive gas wells having been drilled. There are at present four productive gas wells, and preparations are being made to utilize the gas in the town of Mansfield, where pipes are now being laid for its distribution. The wells are 2,380, 1,125, 970, and 1,04:0 feet deep, the pressure being from 160 to 226 pounds.

Indian Territory

A small amount of gas was produced from a few wells at Red Fork, in Creek Nation, during the jear 1902, the product being used chiefly for domestic purposes.

Canada.

There was a large decline in the amount and value of the natural gas produced in the Essex County field, the supply being discontinued to the city of Detroit in the fall of 1901. The Welland County field continues to furnish the city of Buffalo a decreasing supply. The drain on both these fields has reduced the original rock pressure materially. There is some natural gas found among the small petroleum wells between Petrolia and Sarnia, which is consumed in operating gas engines.

Natural Oas.

Statiatics of natural-gas production in the Province of Ontario, Canada,

Year.

Producing wells.

MUesofgas pipe.

Workmen employed.

Value of gas product.

Wages for labor.

NATITRAIi GAS IN ENGIiANTD.

Recently several ga8 wells have been drilled in the eastern portion of Sussex County, 50 miles southeast of London. A well drilled at Netherfield in 1875 developed several violent flows or pockets ofi natural gas which, after a time, ceased.

The railroad company in drilling for water at Hearthfield station, in August, 1896, developed a flow of natural gas, but no water, at a depth of 300 feet. They therefore pulled out all of the casing except the first few feet that had been inserted.

The persistent escape of natural gas from this well continued. In 1899 the railway company, owing to the continued flow, capped the casing and piped the gas into the station house near by, and from this date they have lights the railway station with it, a portion of it being also used to operate a small gas engine for pumping water.

Recently a number of shallow wells have developed sufficient natural gas to supply from 70 to 80 houses for lighting, cooking, and heating, also for street lighting, incandescent mantles being used.

Recently Mr. R. Pearson has associated with himself a number of American gentlemen and has located and drilled six test wells in the Hearthfield district, which range from 300 to 400 feet in depth, all of which found more or less natural gas. This locality is on a wellmarked uplift known as the Mid-Sussex Anticlinal.

The geological formation producing the gas is the Hastings Sands at the bottom of the Cretaceous, which overlie the Purbeck Beds and which in other localities have produced pockets of natural gas.

The pressure so far developed ranges from 135 to 200 pounds to the square inch. The composition of this gas taken from a number of bore holes does not vary to any extent. The presence of a large percentage of ethane gives it a higher illuminating power than the average natural gas. The proportion methane or marsh gas is also large; otherwise it is quite similar to a large proportion the natural gas used in America.

There is no free hydrogen or sulphuretted hydrogen reported as present. The following is given as its composition : Methane 93.4 per cent, ethane 3 per cent, nitrogen 2.7 per cent, carbonic oxide 0.9per cent.

Asphaltum And Bituminous Rock.

By Joseph Struthebs.

Introduction.

The general term aspbaltum may be applied to the numerous varieties of hydrocarbons of an asphaltic base which exist in all conditions from the liquid to the solid state. In this report, however, it is specifically used to include all the purer forms of hard and soft bitumen, i. e., elaterate, gilsonite, albertite, wurtzilite, uintaite, nigrite, brea, etc. The statistics of crude petroleum, which may also be included in the general term asphaltum," are given m the chapter devoted to petroleum. A large quantity of asphaltic oil is produced in California, which is refined for illuminating and lubricating oils, and as there is no strict line of demarcation between oils which should be considered as petroleum and those which should be considered as asphaltum, the general rule has been observed to include under asphaltum only material used as such, for instance, the residuum from petroleum-refining processes which is sold and used as asphalt. For the year 1902 asphalt of this character is reported separately under the heading ''By-product asphalt." A slight duplication may arise in a few instances from this arbitrary classification, but it is impracticable to separate the two products absolutely. The term " bituminous rock " includes sandstones and limestones impregnated with asphaltum or bitumen which are sold and shipped without previous refining. The rock is used principally for street pavement and is mixed with other ingredients at the place of use. An inconsiderable portion of bituminous rock is treated to obtain asphaltum or bitumen, the product being sold as refined or gum asphalt. The asphalt and bituminous rock deposits of the United States have been described in great detail by Mr. George H. Eldridge in the Twenty-second Annual Report of the United States Geological Survey (for 1900-1901), Part I, pages 219-262.

H R 1902 42 65

Mineral Resources.

Pkoduction.

The following table shows the annual production of asphaltum and bituminous rock in the United States from 1882 to 1902, inclusive:

Production of cuphaUum and bituminous rocky 188S-1902.

Year.

Quantity.

Value.

Year.

Quantity.

Value.

S,000

Short Uma.

"765,048

aThe production of the crude material in 1902 was reported as 66,238 short tons valued at $236,728.

As will be seen from the preceding table, the production of asphaltum and bituminous rock in 1902 showed a large increase over that of 1901, amounting in quantity to 42,324 short tons, and in value to $209,713. The relatively smaller increase in value as compared to quantity was due to the very large proportion of bituminous sandstone, which is of less value per ton. The production in 1900, both in quantity and in value, and the production in 1901 in quantity, have been the smallest reported during the last seven years.

The table on the following page classifies the production of asphaltum during the last six years. Summarizing the varieties, it is seen that the production of bituminous sandstone increased from 34,248 short tons (1138,601) in 1901 to 57,837 short tons (1157,093) in 1902. The production of bituminous limestone decreased from 6,970 short tons ($33,375) in 1901 to 2,869 short tons ($19,817) in 1902.

The production of hard and refined asphaltum, which includes gilsonite and similar pure varieties, increased from 19,316 short tons ($333,509) in 1901 to 22,321 short tons ($264,817) in 1902.

The production of liquid asphaltum, or maltha, all of which was derived from California, decreased from 2,600 short tons ($49,850) in 1901 to 1,605 short tons ($20,172) in 1902. No sales of mastic were reported during 1899, 1900, 1901, and 1902, the crude material from which it was previously made being now included in the output of bituminous sandstone and bituminous limestone. The quantity of asphaltum produced in the refining of crude oil during 1902 amounted to 20,826 short tons ($303,249). In former years the quantity of asphaltum so produced has been included under the class hard and refined asphaltum." ic

A8Phaltum And Bituminous Book.

The following table shows the production and value of the several kinds of asphaltum and asphaltum products in 1897, 1898, 1899, 1900, 1901, and 1902. Both quantity and value are for the product in the condition in which it was first sold.

Varieties of asphaUum etc, produced annually 1897-190S.

Variety.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.*

Bitnminow llmflstonea . - -

Mastic

Hard and nfixifid. or RiTn 6 , , . . - .

IJqoW, OT maltha

Total

Variety.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

BitiiTninouH nandfitone

Hard and refined, or gnm h

Liauid. or maltha

By-product from oil

Total

a Not including mastic or refined asphaltum made from bituminous limestone, b Including gilsonite from Colorado and Utah, gum asphaltum from Texas, and ' asphaltum, from California. eNot including 100 barrels of asphaltum ($450) from Texas.

Ventura" hard

Imports And Exports,

The importation of asphaltum into the United States is chiefly from the island" of Trinidad, off the coast of Venezuela. In addition, imports of asphalt are made from Beiinudez, Venezuela; bituminous limestones are imported from Neuchatel and Val de Travers, in Switzerland; from Seyssel, in France; and, in small quantities, from Germany, Cuba, Mexico, and other countries. Comparing the table of imports with the table of domestic production, it is seen that the value of the domestic product in 1902 was about $123,000 greater than that of the imported asphalt. In this connection, however, it should be stated that the value of the imported asphaltum is at the point of shipment, and does not include freight charges or import duties.

The following table shows the imports of crude asphaltum since 1867: Crude asphaltum imported for immediate consumption into the United States, 1867-1902,

Year ending-

June 30—

Quantity.

Long tons.

Value.

S6,268 5,632 10,559 13,072 14,760 35,583 38,298 17,710 26,006 23,818 36,550 39,635 87,889 96,410 102,698 149,999 145,571 88,087

Year ending-

Dec. 31— 1895a

1898 b 1900d 1902/

Quantity.

Value.

299,860 836,868 196,814 813,680 210,666 304,596 392,770 203,386 425,268 4M,732 553,478 492,658

a In addition to the crude asphaltum imported in 1895 there was some manufactured or refined gum asphaltum, valued at 936,664. In 1896 the value of the manufactured asphaltum imported was $77,449, and in 1897, $26,095. The quantity was not reported.

t Includes 3,069 long tons, " dried or advanced," valued at 817,006.

Includes 4,264 long tons, " dried or advanced," valued at $36,895.

Includes 5,141 long tons, "dried or advanced." valued at $49,242.

Includes 6,754 long tons, " dried or advanced," valued at $36,968.

/Includes 7,239 long tons, " dried or advanced," valued at $62,661.

During 1902 there were exported 2,930 long tons of crude asphaltum, valued at $23,664.

The following statement shows the quantity and value of the asphaltum imported during the fiscal years ending June 30, 1898, 1899, 1900, 1901, and 1902, with the countries from which it was exported.

The imports from Trinidad decreased from 112,834 long tons in 1901 to 99,592 long tons in 1902, and the imports from Venezuela decreased from 18,605 long tons in 1901 to 12,406 tons in 1902. The total impoi-ts from Trinidad and Venezuela in 1901 amounted to 131,439 long tons, as against 111,998 long tons in 1902. The imports from Cuba increased from 4,888 long tons in 1901 to 7,252 tons in 1902.

A8Phaltum And Bituminous Rock.

Imports ofctaphaUum during the fiscal years ending June SO 1900 , 1901, and 190g, the countries from which ejcported.

Comitry.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

West Indies:

Long tons.

2K

t329,819

Dutch

Cuba

Italy

Qennany

France

Mexico

Turkey In Asia

Pritftin

United States of

Canada

Total

Pkoduction In Otiter Coihtries. Barbados And Trinidad.

Barbados.

At the island of Barbados, nine manjak mines were operated during 1902, three of which were controlled by the Barbados Manjak Mines, Limited, employing from 70 to 100 laborers. No statistics of production are made to the Government, but the custom returns showed that during 1901 1,043 tons of manjak, valued at were exported from Barbados. The chief uses for manjak ore, or glance pitch, as it is sometimes called, is to make Brunswick varnish, used to insulate electric cables, etc. The exports from Barbados in long tons during recent years are reported as follows: 1897, 1,880; 1898, 1,160; 1899, 1,026; 1900, 1,120; 1901, 1,043.

Trinidad.

The exports of asphalt from the island of Trinidad are given in the following table, which has been furnished through the courtesy of the New Trinidad Lake Asphalt Company, Limited. Seven-eighths of the asphalt exported is dug from Pitch Lake, which is leased to the company till 1930. The removal of 1,885,000 long tons of asphalt during the last thirty-five years has apparently made but little impression on the deposit. The New Trinidad Lake Asphalt Company contributes the greater bulk of the exports, although about 30,000 tons are handled

iC

Mineral Besoubobs.

annually by smaller shippers JFrom other properties. The lake contains no liquid asphalt, but in other parts of the island this variety, from which illuminating and lubricating oils can be distilled, is found widely distributed.* Glance pitch also is found in the island, and is used for electric insulations and for black varnishes. Manjak, another variety, has recently been discovered in quantity about 10 miles north of the Pitch Lake.

Exports of Pilch Lake cufpTudtum from Trinidad, 1881-190, [In tons of 2,240 pounds.]

To United States.

To Europe.

To other countries.

Grand total

of exports

in crude

equivalent.

Year.

Grade.

Dried.

Total equlvar lent in crude.

Crude.

and

dried.

Total equivalent in crude.

Crude.

&pur6 and dried.

Total equivalent in crude.

Tons. 5,600 12,710 22,885 17,886 15,506 22,226 21,916 24,321 46,410 39,907 52,510 70,806 65,436 71,860 61,702 60,637 71,969 46,089 70,111 67,758 80,449 101,876

Tons. 6,600 12,710 22,885 17,886 16,606 22,226 21,915 24,321 46,410 39,907 62,510 70,806 65,436 71,860 64,976 60,637 74,407 48,423 70,777 70,938 80,449 104,956

Tons.

Tons. 19,917 42,722 18,746 25,751 23,589 13,221 18,861 20,817 23,750 26,681 24,937 25,783 20,615 23,086 16,104 20,391 34,856 35,537 41,956 47,362 64,761 33,474

Tons.

Tons.

Tons.

Tms. 25,617 , 56,432 41,631 43,636 89,094 86,446

b693 1,422

o 1,918

a A description of the pitch lake deposits is given in Mineral Resources U. S. for 1901, pp. 637-638.

6 Australia.

Argrentina and Mexico.

dThe dried and " 6pur6 " in 1899 and 1900 are not reduced to crude equivalents

A8Phaltum And Bituminous Rock.

Exports of land asphaUumfrom Trinidad, 1886-1 90g. lln toni of 2,240 pounds.]

To United States.

To Europe.

To other countries.

Grand total

of exports

in crude

equivalent

Year.

Crude.

Total equivalent In crude.

Crude.

fcpur6.

Total equivalent in crude.

Crude.

Total equivar lent in crude.

.

.

.

Tbfu.

Tma.

Tons.

Tom.

Tms.

Tons. 2,297 4,666 8,289 14,401 17,417 20,696 18,106

a833

Iso

b40

a Australia.

6 Canada, Venezuela, and West Indies.

c The dried and " £pur6 " in 1899 and 1900 are not reduced to crude equivalents.

Included in shipments of crude.

Tolal exports of aU asphaUum from Trinidad, 1886-1902. [In tons of 2,240 pounds.]

Year.

1899 a 1900a

To United States.

Lake. Land. Total.

Tons.

To Europe.

To other countries.

Lake Land. Total. Lake. Land. Total,

Tons. 24,522 26,260 31,941 68,978 57,324 73,027 88,212 68,886 75,713 69,720 72,686 98,650 66,588 96,941 105,734 112,216 130,109

Tons. 13,221 18,861 20,817 23,750 26,681 24,937 25,783 20,615 23,086 16,104 20,391 84,856 36,537 41,956 47,362 54,761

Ibns.

Tons. 13,221 19,081 21,436 23,750 26,681 25,076 26,482 25,840 21,426 24,215 36,199 36,624 42,480 47,603 56,465 33,674

Tons.

Tons.

J, 362

Grand total.

Tons.

aThe dried and **6pnr6" in 1899 and 1900 are not reduced to crude equivalents. j

Mineral Be80Urces.

PROBITCTION IN PRINCIPAIi PRODUCING COUNTRIES.

In the table below is given a statement of the production of asphalturn in the principal producing countries from 1890 to 1901, inclusive: Production of asphaUum in principal producing countries, 1890-1901,

Year.

United States.

Trinidad.

Germany.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Short.Um. 59,861 54,163 58,718 52,056 61,691 65,638 67,830 67,983 75,550 82,897 96,838 99,420

t89,961

Year.

France.

Italy.

Spain.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

t232,351 131,028 162,308 109,200 270,854 197,584 171,507 183,017 256,347 292,287 261,761

Year.

Austria-Hungary.

Russia.

Venezuela.

Quantity.

Value.

Quantity.

Value.

Quantity.

fSho/n tOM.

Short tons.

1,771 8,078 6,197 U,528 Nil

u Statistics not yet available.

Stone.

Introbuction,

The statistics presented in the following report are of especial value on account of the completeness of the canvass in collecting them. A large part of them were obtained by direct visits to the quarrymen, made necessary by the fact that statistics of labor, wages, and expenses required by the Census Office for the mining census, were collected at the same time. This extra work has delayed the publication of the report, but this office wishes to thank the various quarrymen for their cooperation and for the information given to the various agents of this office and of the Census Office.

In 1889-90, at the time of the last mining census, the value of the stone produced in tha United States was $53,035,620. In the census of 1902 the value of the stone produced was $64,559,099, an increase of $11,523,479. In the interval the yearly value of the output fluctuated, until in 1896 it decreased to $31,348,171. Since then the output has steadily increased to its present status.

The stone industry for 1902, though showing a large increase in value of production, has not exhibited an unusual state of activity, not nearly so much so as in the year 1901. This is shown by the fact that though there was a large increase in value of the production for 1902, this increase was not so large as the increase of 1901 over 1900, or of 1900 over 1899.

The check given to the building trade by various builders' strikes all over the country is in part accountable for this, the contractors being unable to use the material contracted for, which material was therefore not taken out. In some places, also, there were strikes among the quarrymen, although this was not general, as the quarrymen themselves are not as a rale union men. The cutters, polishers, and skilled laborers, however, employed to work the stone after it leaves the quarry are usually union men.

The coal strike during 1902 influenced the stone production to some extent, in that some of the large producers were unable to get coal for their engines, and especially were the lime burners affected who depended upon coal as a fuel for their kilns.

The crushed-stone industry, influenced by the demand for good roads and by the use of crushed stone for concrete in masonry, has in

|jiC

the last six or seven years given a strong impetus to the stone industry as a whole.

In the last year the export trade in stone has been more active than before.

A tendency toward combination has also been more or less felt during the last two or three years, and in several States large interests have combined to control tiie output of various quarries. This is the case in New York, Pennsylvania, Massachusetts, Minnesota, Wisconsin, Ohio, Indiana, Connecticut, Vermont, and other States.

In this report stone is classified, as usual in the trade, under the general headings of granite, sandstone, limestone, slate, and marble.

Under the head of granite are included granite, gneiss, mica-schist, andesite, syenite, and quartz-porphyry, which are used for all purposes for which granite is used, such as building stone, foundation work, monumental stone, paving blocks, curbstone and flagstone, rubble, and crushed stone for riprap, macadam roads, concrete, and railroad ballast. Besides these the following are also included: The diabase, trap rocks, basalts, diorites, and gabbros, quarried extensively in the New England and the Eastern States and in the far West, and used almost entirely for paving or as crushed stone for road metal.

Under sandstone are included all consolidated sands. The value of the stone depends upon the cementing material, quartz grains cemented by silica forming the hardest and most durable stone. The varieties of sandstone are often called by the quarrymen bluestone, freestone, and (when the grains composing the stone are of considerable size) conglomerates. As such they are classed as sandstone in this report Some bituminous sandstone, quartzites used as refractory material in furnaces, the jasper stone of Minnesota and South Dakota, and the lava stone of Colorado are also included.

Limestone, when in its pure state, consists essentially of amorphous calcium carbonate, often cemented together by crystalline material and containing many impurities. In this report there is included with true limestone not only the calcium carbonate with the usual small amounts of impurities, such as the oxides of iron, aluminum, silica, etc., but stone containing calcium carbonate and magnesium carbonate in varying proportions. When the stone contains a considerable amount of magnesium carbonate it is called magnesium limestone, and when the stone is about equally composed of the carbonate of lime and of magnesia it is called dolomite. The limestones also include travertine, or the limestone deposited by running streams and springs in large compact masses, and fossiliferous, shell, and coral limestones. In composition there is no essential difference between limestone and

&#x27; Vic

Stone. 667

what is generally known as marble. Marble is, however, limestone that by action of heat has been transformed into a crystalline form. There is also included with the marble some onyx marble, which in composition is the same as marble, but which is deposited from solution in crystalline form at different intervals, thus giving it a banded appearance and variegated colors. There is also included a small amount of serpentine.

Production.

The figures as given in the table which follows do not include values of stone quarried for the following purposes: Sandstone converted into grindstones, whetstones, and other abrasive materials; sandstone quarried and crushed into sand for the manufacture of glass; bituminous lunestone and sandstone used in making asphalt pavements and asphalt blocks; limestone used in blast furnaces, although the statistics of the furnace flux are shown under the part of the report treating of limestone; and limestone used in the manufacture of Portland cement.

The statistics of stone used for abrasives is shown in the report on abrasives as published by this office.

In making the statements as to the value of the stone the values given represent as nearly as it was possible to obtain them the value of the stone as it left the hands of the producer exclusive of any shipment values. When the stone was sold by the producer to the manufacturers in the rough state, the value is so given; and when the producer dressed his own stone, the value given is the dressed value. This applies particularly to the rough and the dressed granite, sandstone, and marble used for building and for monumental work.

The total value of the stone reported to this office in 1902, exclusive of the products mentioned above, was $64,659,099. The value in 1901 was $55,616,926. This shows a gain in 1902 of $8,943,173. The corresponding gain in 1901 over 1900, when the figures were $44,321,345, was $11,294,681, a larger increase in 1901 than in 1902.

Limestone, not including furnace flux, increased more in value of production than any other kind of stone, the figures for 1902 being $24,969,761 and for 1901 $21,747,061, a gain of $3,212,690 for 1902. The value of limestone used for blast-furnace flux, and not included in the above, increased from $4,659,836 in 1901 to $5,271,252 in 1902, a gain of $611,416.

Granite, including trap rock, increased from $15,976,961 in 1901 to $18,257,944 in 1902, or $2,280,983. The trap-rock production increased from $1,710,867 in 1901 to $2,181,167 in 1902, a gain of $470,300.

Sandstone, including bluestone, but not including grindstones and whetstones, increased from $8,138,680 in 1901 to $10,601,171 in 1902, a gain of $2,462,491. The value of bluestone, included in the above

iC

Mineral Resources.

figures, was practically the same for 1901 and 1902, being 1,164,481 in 1901 and Jl, 163,526 in 1902.

The value of marble production increased slightly in 1902, the figures, however, being practically the same for both years — $4,965,699 in 1901 and $5,044,182 in 1902, an increase of $78,483.

The slate production in 1902 increased in value from $4,787,525 in 1901 to $5,696,051 in 1902, a gain of $908,526.

Value of the different kinds of stone produced in the United States, 1890-190S,

Year.

Granite.

Trap rock.

Marble. Slate.

Sandstone.

filuestone.

Limestone.

Total.

b 4, 924, 670

al, 600, 000

al, 600,000

a 1,000, 000

a900,000

a 750, 000

a 750, 000

a900,000

a 1,000, 000

a Estimated.

not include value of nlndstones and whetstones.

cDoes not include value of limestone forflux.

The following tables show the value of stone produced in 1901 and 1902, by States:

Value of various kinds of stone produced in 1901 and 1902, by States. IQOl.

State.

Granite.

Sandstone.

Slate.

Marble.

Limestone.

Total value.

Alabama

Alaska . .

Arizona

Arkansas

a 1,134, 675

a 616, 664

California

Colorado .

Connecticut

Delaware

Florida

Georgia

Idaho

Illinois

Ipdiaria ,

Indian Territorv

Iowa.

a Includes trap rock.

6 Included with Kansas.

0 Includes Indian Territory.

Ic

Stone.

Value of various hinds of stone produced in 1901 and 1903, by States — Continued.

10O1— Continued.

State.

Gianite.

Sandstone.

Slate.

Marble.

Limestone.

Total value.

Kentucky

Maine

Maryland

Michigan

Minnesota

Montana

Nebraska

Nevada ,

New Hampshire

New Jersey

New Mexico

New York..'

North Carolina

Ohio

Oklahoma Territory

Oregon

Pennsylvania

Rhode Inland

South Carolina

South Dakota

Tennessee ,

Texas

Utah

Vermont

Virginia

Washington

West Virginia

Wisconsin ,

Wyoming

Total.

a 894, 167

& 1,831, 327

b 2, 068, 062

17,647 10,842 Ul,668 88,919

a 16, 976, 961

b 8, 138, 680

10Os.

Alabama

Arizona

Arkansas

California . . .

Colorado

Connecticut .

Delaware

Florida

Georgia

Hawaii

Idaho

Illinois ,

Indiana

Indian Territory.

a 1,137, 679

a 812, 141

W

a Includes trap rock.

Mncludes bluestone.

includes blast-furnace flux

d Includes Alabama, Arkansas, Connecticut, Iowa, Maryland, Montana, New Mexico, and Utah.

Included in other States.

Kinebal Besouboes.

Valiie of various kinds of stone prodticed in 1901 and 190, by Stales — Continued.

l©OS— Continued.

State.

Iowa

Kentucky

Maine

Maryland

Maoachusetts...

Michigan

Minnesota

Montana

Nebraska

Nevada

New Jersey

New Mexico

New York

North Carolina . .

Ohio

Oklahoma

Oregon

Pennsylvania ...

Rhode Island

South Carolina . .

South Dakota

Tennessee

Texas

Utah

Vermont

Virginia

Washington

West Virginia...

Wisconsin

Wyoming

Other States

Total.

Granite.

a 8, 461, 897

a 661, 014 888,760

a 661,062

a 18, 267, 944

Sandstone.

Slate.

dl, 408, 699

d2, 800, 108

d 10, 601, 171

e71,500

Marble.

Limestone.

Total value.

a Includes trap rock.

Mncludes Alabama, Arkansas. Connecticut, Iowa, Maryland, Montana, New Mexico, and Utah.

e Included in other States.

Includes bluestone.

Includes Arkansas. California, Georgia, and New Jersey.

/Includes blast-furnace flux.

From the table for 1902 it will be seen that Pennsylvania, producing every kind of stone, ranks first in the total valuation of the stone produced. Vermont is second in rank; and Ohio, producing, however, only limestone and sandstone, is third. New York is fourth, followed by Massachusetts, Maine, Illinois, Indiana, and California, in the order named. Each of these States has a product of over $2,000,000. The drop from the value of the Pennsylvania product to the value of the Vennont product, the second State, is noticeable. Pennsylvania's

Stone.

entire stone product is valued at $12,689,202, and Vermont's product at $5,889,208.

In 1901 the rank of the States was Pennsylvania, Vermont, Ohio, New York, Maine, Indiana, Massachusetts, Illinois, and California.

The following table is given to show the total values of the stone used for various purposes in 1901 and 1902. Only those values are given which are for uses conunon to two or more varieties of stone.

Value of graniUj aandOone, limesUmey and marble used for various purposes in 1901 and

Kind.

Building

FlMfstone ancf curbstone.

Paving.

Crushed stone.

Granite

Sandstone . Limestone. Marble

Total

Granite Sandstone . Limestone. Marble

Total

This table is of interest as showing the total value of stone that went for different purposes. The stone used for building showed an increase of *3,963,960 in 1902, the figures for 1901 being $16,836,381, and for 1902, $20,790,341. In 1901 the increase in value was from $10,672,698 m 1900 to $16,112,600 in 1901, or $4,440,002, a larger increase for 1901 than for 1902.

The stone for monumental use was valued at $6,941,686 in 1902, and at $4,734,699 in 1901, an increase of $1,206,886. In 1901 this value decreased slightly as compared with 1900. This does not include any limestone or sandstone, a small amount of which was used for this purpose.

Flagstone and curbstone increased from $2,797,849 in 1901 to $3,266,736 in 1902, or $467,886, and the value of paving stone decreased from $2,180,341 in 1901 to $2,061,393 in 1902, or $128,948.

Crushed stone increased in value from $8,660,432 in 1901 to $11,480,969 in 1902, a gain of $2,920,627.

As the crushed-stone industry has become such a decided factor in the quarry trade, the following table is given, showing the production

Mineral Bksoubges.

of crushed stone in 1901 and 1902 according to the variety of stone, and showing also the purpose for which this stone was used:

Value of crushed stone in the United States in 1901 and 1902,

Kind.

Railroad ballast.

Road making.

Concrete.

Total value.

Unmtono r .-- - - ,-.

Granite

Total

10O8.

Sandstone

Granite , .

Total

In the following tables is shown the total value of the crushed stone produced in the United States in 1901 and 1902, by States.

Value of crushed stone produced in the United States in 1901 and 1902, by States,

Slate.

Alabcuna

Arkansas

California

Colorado

Connecticut

Delaware

Florida :

Georgia

Idaho

Illinois

Indiana

Indian Territory .

Iowa

Kansas

Kentucky

Maine

Maryland

Massachusetts —

Michigan

Minnesota

Missouri

Montana

Nebraska

New Hampshire .

New Jersey

New York

North Carolina...

Ohio

Oklahoma

Granite.

Limestone.

Sandstone.

Jig tized Dy'

Total value.

Btone.

Value of crushed done produced in the United Stales in 1901 ami 190:8, by States — Cont'd.

lOOl— Ctoiitlnued.

State.

Granite.

Limestone.

Sandstone.

Total value.

Oregon

Pennsylvania.. Rhode Island . . South Carolina. South Dakota . .

t'tennessee

Texas

Utah

Vermont

Virginia

Washington

West Virginia..

Wisconsin

Wyoming

112, loo 746,895

Total.

10Os.

Alabama

Arkansas

California

Colorado

Connecticut

Delaware

Florida

Georgia

Hawaii

Illinois

Indiana

Indian Territory

Iowa

Kansas

Kentucky

Maine

Maryland

Massachusetts

Michigan

Minnesota

Missouri

Montana

Nebraska

New Hampshire

New Jersey

New York

North Carolina

Ohio

Oklahoma

Oregon

Pennsylvania

Rhod e Island

South Carolina

South Dakota

Tennessee

Texas

M R 1902 43

Minebal Be80Ub0E8.

Value of crushed done produced in the United States in 1901 and 1902, by States— ConVd.

State.

Granite.

Limestone.

Sandstone.

Total value.

Utah

Vermont .

Vlinia

West Virginia

Wlfloonsin

Total

The division of this product, according to the uses to which the stone was put, is shown in the table giving the values of the different varieties of stone by States and uses.

Imports Aid Exports.

The figures following, giving statistics of the imports and exports of stone for the United States, are taken from data collected by the Bureau of Statistics of the Department of Commerce and Labor. These statistics are collected by fiscal years, and when the figures for a special year are given in this report, the year ending June 30 of the year mentioned is meant.

The value of the stone imported into this country for the fiscal yesr ending June 30, 1902, was $1,641,388. The corresponding figures for previous years were $1,276,602 for 1901, $1,028,650 for 1900, $883,852 for 1899. This shows an increase of $144,698 in 1900; $248,052 in 1901, and $364,786 in 1902.

These values include rough and manufactured marble to the amount of $680,533 in 1899, $812,606 in 1900, $1,024,687 in 1901, and in 1902 $1,408,885. This shows an increase of $132,073 in 1900, $212,081 in 1901, and $384,168 in 1902. The largest feature of the marble importation was rough and manufactured marble from Italy, which was valued at $573,871 in 1899, $665,223 in 1900, $823,488 in 1901, and $1,127,688 in 1902. This shows an increase of $91,350 in 1900, $158,267 in 1901, and $304,200 in 1902, a notable increase in the last year. The other countries exporting to this country any considerable amount of marble are in order of importance, France, Mexico, Greece, United Kingdom, Belgium, Germany, and Denmark.

The rest of the stone, rough and manufactured, including slate imported to this country was valued at $203,319 in 1899, $215,944 in

1900, $251,915 in 1901, and $232,533 in 1902.

Besides the above, there was imported, chiefly from the Dominion of Canada, lime valued at $58,066 in 1899, $63,900 in 1900, $66,399 in

Stone. 675

The total value of the stone exported from the United States in 1902 was $1,716,696. In comparison with exports in previous years, valued at $1,886,766 in 1899, $1,677,169 in 1900, and $1,638,314 in 1901, there was a decrease of $209,687 in 1900, a decrease of $38,865 in 1901, and an increase of $78,382 in 1902, as compared with the previous years.

Roofing slate is the largest Factor of the exported stone, and amounted in value to $1,363,617 in 1899, $950,543 in 1900, $898,262 in 1901, and $945,352 in 1902. This shows a decrease of $413,074 in 1902, a decrease of $52,281 in 1901, and an increase of $47,090 in 1900. The value of other manufactured stone exported in 1902 was $644,071. In comparison with exports, valued at $454,236 in 1899, $606,229 in 1900, and $646,332 in 1901, there was an increase of $151,993 in 1900, an increase of $40,103 in 1901, and a decrease of $2,261 in 1902.

The unmanufactured stone exported was valued at $172,273 in 1902, as compared with $68,903 in 1899, $120,397 in 1900, and $93,720 in 1901. Most of the unmanufactured product is sent to the Dominion of Canada and the United Kingdom, the same being true of the manufactured product; but considerable quantities of immanufactured were also shipped to Germany, Cuba, British Australasia, France, Mexico, Belgium, and the British West Indies, named in order of importance.

In addition to the stone, lime valued at $39,447 was exported in 1902 chiefly to the Dominion of Canada. The value of the lime exported in previous years is given as $73,385 in 1899, $81,647 in 1900, and $30,216 in 1901.

Granite.

The value of granite, including gneiss, mica-schist, lava, andesite, syenite, quartz-porphyry, trap rock, basalt, and allied igneous rocks, quarried in the United States in 1902 was $18,257,944. This, in comparison with the value of this stone produced in 1901, $15,976,961, shows an increase of $2,280,983. The increase in value of the stone quarried inl901, $15,976,961, over that quarried in 1900, $12,675,617, was $3,301,344, which shows that the increase for the year 1902, although considerable, did not equal the increase for 1901; and the increase in the value for 1900 as compared with 1899 was $1,057,278.

In 1902 Massachusetts still held first place in the production of granite in the United States. Maine, Vermont, New Hampshire, and California followed in the order named.

In 1902 Maine showed the largest value for building stone, with Massachusetts second and New Hampshire third. Vermont showed the largest value for monumental stone, with Massachusetts second and Rhode Island third. The largest value for paving blocks was from Massa-. chusetts followed closely by Maine, and third, by Georgia. The value of crushed stone was largest in New Jersey, lisachusetts, and Cali-

Mineral Be80Ubce8.

The greatest increase was in the value of stone used for building purposes. In 1901 the value of this product, including dressed and rough stone sold by the quarrymen was $5,660,129. In 1902 the value of this product was $7,034,832, a gain of $1,374,703. The rough building stone increased from a value of $1,878,835 in 1901, to $2,176,082 in 1902, a gain of $296,247. The stone quarried and dressed by the producer for building purposes increased from $3,781,294 in 1901 to $4,859,750 in 1902, a gain of $1,078,456.

The stone sold for monumental work in 1902, including the rough stock sold by the quarrymen for this purpose and the stone quarried and dressed for this purpose by the quarrymen was $3,998,911. In 1901 this value was $2,715,225, a gain of $1,283,686.' The rough monumental stock was valued at $1,714,156 in 1902, and $1,257,668 in 1901, an increase for 1902 of $456,488. The dressed stone was valued at $2,284,755 in 1902 and $1,457,557 in 1901, an increase for 1902 of $827,198.

The value of the paving blocks decreased from a value of $1,821,431 in 1901, to a value of $1,523,776 in 1902, a decrease of $297,655.

The crushed stone increased from a value of $3,003,443 in 1901 to a value of $3,211,780 in 1902, an increase of $208,337.

The following tables give the value of the granite produced in the United States in 1901 and 1902, by States and uses:

Value of granite produced in the United States in 1901 and 190!, by States and uses.

10O1.

State.

Sold in the rough.

Building.

Monumental.

other.

Dressed for building.

Dressed lor monumental work.

Made into paving blocks.

Arkansas

California

Colorado

Connecticut'

Delaware

Georgia

Idaho

Indian Territory .

Kansas

Maine

Maryland

Massachusetts

Michigan

Minnesota

Missouri

Montana

Nevada

New Hampshire..

Jew Jersey

New York

North Carolina...

Oregon

Pennsylvania

S358,832

byvi'gVpgl,-

8Tonb.

Value of granite produced in the United States in 1901 and 190S,

10O1— Continued.

States and uaea —

state.

Sold in the rough.

Building.

Monumental.

Other.

Dressed for building.

Dreisedfor monumental work.

Rhode Island... South Carolina . South Dakota . .

Texas

Utah

Vermont

Virginia

Washington —

Wisconsin

Wyoming

State.

Total 1,878,835

Curbing and flagging.

Crushed stone.

Railroad ballast

Road making.

Concrete.

Riprap, rubble, etc.

Total.

Ark

California

Colorado

Connecticut

Delaware

Georgia

Idaho

Indian Territory .

Kansas

Maine

Maryland

Massachusetts

Michigan

Minnesota

Missouri

Montana

Nevada

New Hampshire..

New Jersey

New York

North Carolina . . .

Oregon

Pennsylvania

Rhode Island

South Carolina . . .

South Dakota

Texas

Utah

Vermont

Virginia

Washington

Wisconsin

Wyoming

Total.

a87,268 25,700

o Includes roadmaking.

Mineral Besources.

VaJue of granite produced in the United States in 1901 and 190g, by States and uses —

Continued.

State.

Arkansas

Arizona

California

Colorado

Connecticut

Delaware

Georgia

Idaho

Indian Territory.

Maine

Maryland

Massachnsettfl ...

Minnesota

Missouri

Montana

Nevada

New Hampshire .

New Jersey

North Carolina . .

Oregon

Pennsylvania

Rhode Island

South Carolina...

Texas

Utah

Vermont

Virglnte

Washington

Wisconsin

Other States

Total.

Building. MX. Other.

Sold in the rough.

Sso

Dressed

for building.

for monumental work.

Made into paving blocks.

Curbing.

Flagging.

State.

Arkansas

Arizona

California

Colorado

Connecticut

Delaware

Georgia

Idaho

Indian Territory .

Maine

Maryland

Mussachttsetts

Minnesota

Missouri

Crushed stone.

Road making.

Railroad ballast.

Concrete.

Rubble.

Riprap.

Other.

by

Total.

Stone.

Value of granite produced in the United States in 1901 and 190Sy by States and uses —

Continued.

Crushed stone.

Rubble.

Riprap.

Other.

State.

Road making.

Railroad ballast.

Concrete.

Total.

Montana .

Nevada

New Hampshire

New Jersey

New York.. .

North Carolina

Pennsylvania , ,.,.

Mo

J3onth Carolina

Texas

TTt*h

Vermont

Virginia

Other States

Total

The following table shows the value of the production of granite in the United States from 1898 to 1902, inclusive:

Valu of granite produced in the United States, ISOS-ldOS,

state.

Arkansas

Arizona

California

Colorado ,

Connecticut

Delaware

Georgia

Idaho

Indian Territory.

Maine

Maryland

Massachusetts ...

Michigan

Minnesota

Missouri

Montana

Nevada

New Hampshire.

New Jersey

New York

North Carolina . . Oregon

Value of granite produced in the Ihited Stales, 1898-1902 — Continued.

State.

Pennsylvania. . . Rhode Island... South Carolina . South Dakota...

Texas

Utah

Vermont

Virginia

Washington

Wisconsin

Wyoming

Total .

a Value of quartzite included in sandstone for 1902.

The following tables show the value of the trap rock produced in the United States in 1901 and 1902, by States and uses:

Value of trap rock produced in the United States in 1901 and 1902, by States and uses.

State. .

Sold in rough.

Made into paving blocks.

Crushed for roads or ballast.

Other purposes.

Total.

California

Connecticut

Massachusetts '

New Jersey

New York

Pennsylvania '

Total

Building.

Paving.

Crushed stone.

Other.

State.

Road making.

R.R. ballast

Concrete.

Total.

California

Connecticut

Massachusetts

New Jersey '.

New York

Pennsylvania

Total

Ic

Stone. 681

Sandstone.

The value of the sandstone quarried in 1902 in the United States was 110,601,171. This shows an increase of 12,462,491 over the value for 1901, which was $8,138,680.

The bluestone production of New York and Pennsylvania, although practically it forms an industry by itself, is included in the above sandstone total.

The entire value of the bluestone produced in these two States was valued at 11,163,525 in 1902, as compared with 11,164,481 in 1901, the values for the two years being almost identical. Deducting the value of the bluestone, we have the sandstone production for 1902 valued at 19,437,646, as compared with ,974, 199 in 1901; an increase of 12,463,447. In the figures for 1901 and 1902 no attempt is made to show the value of stone used for abrasives, such as grindstones, whetstones, buhrstones, etc., as these are included in the report on abrasive materials published by this office.

The States showing an increased production were Alabama, Arkansas, California, Colorado, Georgia, Illinois, Indiana, Iowa, Kansas, Kentucky, Maryland, Massachusetts, Michigan, Minnesota, Missouri, Montana, New Jersey, New Mexico, New York, Ohio, Oregon, Pennsylvania, Texas, Utah, West Virginia, Wisconsin, and Wyoming. Arizona, Connecticut, Idaho, Nebraska, North Carolina, South Dakota, Tennessee, Virginia, and Washington showed a decrease in value of production. Georgia, Hawaii, Nevada, and Oklahoma, were added to the list of States producing, and made the States and Territories producing sandstone in the United States number forty-one.

Pennsylvania, Ohio, and New York are the largest producers and show values of production of $2,800,108, $2,078,754, and $1,408,699, respectively. The next State approaching these States in production is Massachusetts, with a value of $487,366. The production of the three principal States in 1901 was: Pennsylvania, $2,063,082; Ohio, $1,999,180; and New York, $1,331,327.

Pennsylvania, Ohio, and New York, in the order named, produced the largest quantities of building sandstone in 1902, the values for these States being $1,916,959 for Pennsylvania, $1,279,910 for Ohio, and $550,439 for New York. In Ohio most of the stone is sold by the quarry men as rough stone, in Pennsylvania sls dressed stone, while in New York it is about evenly divided between the two. New York gives the greatest value for stone for curbing and also for paving, and Ohio for flagstones.

In 1901 the total value of the sandstone sold by the quarrymen for building purposes was $4,875,973; in 1902 the dressed and rough building stone sold bj' the quarrymen amounted to $6,007,484, an increase

Mineral Re80Ub0E8.

of 11,131,511, which accounted for $1,000,000 of the entire increase in the value of the sandstone production. The value of the crushedstone product increased from $286,347 in 1901 to $1,116,449 in 1902, an increase of $831,102.

The value of stone used for paving increased from $358,910 in 1901 to $527,617 in 1902, or $167,707; flagstones increased in value from $1,026,499 in 1901 to $1,142,699 in 1902, or $116,200; curbing increased from $636,722 to $672,654, or $36,932.

The following tables show the values of the sandstone production of the United States in 1901 and 1902, by States and uses:

Value of sandstone produced m the United States in 1901 and 1909, by States and uses.

IQOl.

Building purposes.

Crushed stone.

State.

Railroad ballast.

Road making.

Concrete.

Paving.

Al&bania

tl,880

Arizona- -

Arkanflas

California

Colorado .

Connecticut

Idaho

niinols

Iowa

Kanflafp ,

Kentucky

Maryland

Masflachxiflettii

Michigan . ,

Montana

Nebraska

New Jersey

New York

North Carolina

Ohio

7,T75

South Dakota

Tennessee

Texas

Viinla

Washington r -, -

West Virginia

Wisconsin

Wyoming.

Total

Stone.

Value of mndstone produced in the United Slates in 1901 and 1909 by States and uses —

Continued.

10O 1— Continued.

State.

Alabama

Arizona

Arkanms

California

Colorado

Connecticut

Idaho

Illinoia

Indiana

Iowa

Kansas

Kentucky

Maryland

Massachusetts . .

Michigan

Minnesota

Missouri

Montana

Nebraska

New Jersey

New York

North Carolina.

Ohio

Oregon

Pennsylvania .. South Dakota ..

Tennessee

Texas

Utah

Virginia

Washington

West Virginia-.

Wisconsin

Wyoming

Total.

Riprap, rub- Die, etc.

Curbing.

tl0,256

Flagstones.

r232

Other purposes.

Total value.

Mineral Besources.

Value of Bandstmxe produced in the United States in 1901 and 190S, by States and uses- Continued,

Rough building.

Dressed building.

Crushed stone.

Roadmaking.

Railroad ballast.

Concrete.

Qanistcr.

Riprap.

Aliibftina

Arizona

Arkansas

California

Connecticut

Georgia

Hawaii .

Idaho

Illinois

Indiana

Iowa

Kansas

Kentucky . .

Maryland

Massachusetts

Michigan

Minnesota

Missouri

Montana

Nebraska

Nevada

New Jersey

New Mexico

New York

North Carolina

Ohio

Oklahoma

Oregon

Pennsylvania

South Dakota

Tennessee . .

Texas

Utah

Virginia

Washington

West Virginia

Wisconsin

Wyoming

Total

State.

Rubble.

Paving.

Flagstone.

Curbing.

Other.

Total value.

Arizona

Arkansas

r2,979

California

Colorado

Connecticut

Qeoigia

Hawaii

JLTli

8Tonk.

Value of sandstone produced in the United Stales in 1901 and 1903 by States and uses —

Continued.

State.

Rubble.

Paving.

Flagstone.

Curbing.

Other.

Total value.

Idaho

Illinois

Indiana ...

Iowa

Kanjois

Kentucky

Maryland

a, 000

Massachiisettii

Michigan

Minnesota . .

Missouri

Montana

Nebraska '

Nevada

New Jersey

New Mexico . .

New York

North Carolina

Ohio

Oklahoma

Oregon

Pennsylvania

South Dakota

Tennessee

Texas

Utah

Virginia

Washington

West Virginia

Wisconsin

Wyoming

Tot*iI

The following table shows the value of the sandstone production in the United States from 1898 to 1902, inclusive, by States:

Value of sandstone irroduction in the United States, 1898-1902 by States,

state.

Alabama

Arizona

California

Colorado

Connecticut

Georgia

Hawaii

Idaho

Illinois

Indiana

Value of sandstone production in the United StateSy 1898-190 by States — Continued.

State.

Iowa .

Kentucky

Loaisiana

Maryland

Mich1;an

Minnesota

jif isBonri

Montana

Nebraska

Nevada

New Jersey

New Mexico

New York

North Carolina .

Ohio

Oklahoma

Oregon

Pennsylvania . . South Dakota. . .

Tennessee

Texas

Utah

Virginia

Washington — West Virginia. -

Wisconsin

Wyoming

Total .

a226,503

c 1,218, 063

c717,053

fc 118, 192

5,450 <-l,050,248 12,676 11,300 87,088 66,783

cl, 331, 327

<?2,063,082

c 1,408, 699

c2, 800, 108 110,789 7,670 166,665 105,011 80,72ft 423,632 207,086

a Includes small amounts for Idaho and Nevada, b Includes Mississippi. Includes bluestone.

The following table shows the value. and uses of the bluestone produced in New York and Pennsylvania in 1901 and 1902:

Value and uses of bluestone produced in New York and Pennsylvania in 1901 and 1902*

State.

Building purposes.

Flagging.

Curbing.

Gutter

and

crossings.

steps, suis, and lintels.

other purposes.

Total value.

New York .'

Pennsylvania

Total

1Q02.

State.

Building purposes.

Flagging.

Curbing.

Crushed stone.

Other purposes.

Total value.

New York

Pennsylvania

Total

Stone. 687

The production of slate in 1902 increased in value from $4,787,525 in 1901 to $5,696,051, a gain of $908,526. This increase was principally in Pennsylvania and Vermont. California, Georgia, Maine, Maryland, and New York also increased, while New Jersey and Virginia decreased in value of production. Minnesota reported no production in 1902, and Arkansas was added to the list of producers.

The increase in production was from 1,304,379 squares, valued at $4,114,410, in 1901, to 1,435,168 squares, valued at $4,950,428, in 1902, an increase in quantity of 130,789 squares, and in value of $836,018. The increase in value of mill stock was from $673,115 in 1901 to $746,623 in 1902, or a gain of $72,508.

The increase in the average value per square of roofing slate produced in 1902 over that produced in 1901 h quite noticeable, the average value per square in 1902 being $3.45, while in 1901 the average value per square was $3.15. The highest average value in 1902 for a State production was $8 per square in Arkansas, and the lowest was $3.30 per square in Pennsylvania.

Mineral Besoubces.

The following tables show the value of rooflng and milled slate produced in the United States in 1901 and 1902, by States:

Value of roofing and mill slate produced in the United States in 1901 and 190£, by Stales.

State.

California

Georgia

Maine

Maryland

Minnesota

New Jersey . . .

New York

Pennsylvania .

Vermont

Virginia

Total.

Roofing slate.

Number of squares.

Value.

80,000 91,805 2,591,625 9&i,S17 178,979

Value of milled stock.

Total Talue.

Arkansas

California

Georgia

Maine

Maryland

New Jersey . . .

New York

Pennsylvania .

Vermont

Virginia

other States b.

Total.

a Included In the statement for Other States.

b Includes Arkansas, California, Georgia, and New Jersey.

The following table shows the average value of roofing slate per square since 1890:

Average anniud price per square of roofing slate for the entire country.

Stone. 689

Vaiue of 8kUe produced in the United States, 1898-1909.

State.

$206, te8 118,064

Georgia

Maine

Maryland

Massachufletts

New Jersey

New York

Tennewiee , , . , , . ,

Vennont

Virginia

Other States

Total

a Included in Other States.

6 Includes Arkansas, California, Georgria, and New Jersey.

Exports.

The export trade in roofing slate, which rose so precipitately in value from $780,112 in 1897 to $1,370,075 in 1898, and which had decreased up to 1901, showed a slight increase in 1902. In 1902 the value of roofing slate exported, as shown in the figures of the Bureau of Statistics of the Department of Commerce and Labor, was $945,352, an increase of $47,090 over the value, $898,262, given for 1901. The chief exportation is to Great Britain, to which slate to the value of $731,556 was sent in 1902. In 1898 the value of roofing slate exported to Great Britain was $1,213,377. Exports of slate to British Australasia, which have been increasing for the last four years, are next in value, amounting to $79,319 in 1901 and to $121,921 in 1902. The exportation to Denmark is next. Beginning in 1898 with $8,150, the value of roofing slate exported to this country has since risen to $47,957 in 1902.

Most of this slate is shipped from New York, Philadelphia, Baltimore, and Boston. M R 1902 44

Minebal Besoubcs8.

The following table shows the ports and customs districts from which and to which slate has been exported since 1893:

Exports of slate from the United States slunmng ports and customs districts from which and to which serUf from 189S to 1901,

Port and customs district.

Baltimore Md

Banffor Me

Belfast. Me

Boston and Gharlestown, Maas

fioa

Newport News, Va

New York. N.Y

PiuauiTnniiiinililir Mp

Philadelphia, Pa

Portland and Falmouth, Me

Brazos de Santiago, Tex . Comus Christi Tex

Naiv OrlpAnfl. Ta

Paso del Norte, Tex

Puget Sound, Wash

San Dieiro. Cal

Arizona ...

Buffalo Creek, N.Y

Champlain, N. Y

Detroit, Mich

Huron, Mich

aoD

Memnhremafoir Vt

North and South Dakota

Oswciratchie. N.Y ...

Vermont

Total..

Belgium . . .

France

Germany

Netherlands

United Kingdom

Denmark

Norway and Sweden. . . .

Bermuda

Dominion of Canada:

Nova Scotia, New Brunswick, etc

Quebec, Ontario, etc. British Columbia ...

Newfoundland and Labrador

Central American States: Costa Rica

Guatemala ...

Honduras

Mexico

Miquclon, Langley, etc .

w

West Indies:

British

Hftit*

Stone.

ft91

Exports qf date from the United Stales, showing ports and customs districts from which and to which sent, from 189S to 1901 — Continued.

Port and customs district.

Santo Domliuro

Cuba

16

Colombia

Guianas:

Britfiib

Urofnay

Kast IndlM— British

British Australasia

TTtt.iva.if An TRlA.ndH

British Africa

Portugaese Africa

Total

Mikebal Resouboes.

Mabbl.E.

The marble production of 1902 was valued at $5,044,182. This is $78,483 more than the value of the production of 1901, which was $4,965,699. The production in Arkansas, California, Maryland, Massachusetts, Montana, New York, Oregon, Pennsylvania, Tennessee, Utah, and Washington increased in value, while the production of Georgia, New Mexico, and Vermont decreased slightly. Alabama and Connecticut, reporting no production in 1901, showed an output in 1902; and Alaska and Arizona reported no production in 1902. The production of Missouri and Oregon was small, and is included with the limestone figures for those States.

The following tables show the purposes for which the marble of the various producing States was sold by the quarrymen in 1901 and 1902:

Value of the marble product by tues and Statea, 1901 and 190g. 1©01.

State.

Rough.

Building.

Ornamental.

Monumental.

Interior.

Other.

Total.

Alabama

Alaska

Arizona

Arkangftis r -

Califomla

Sl,550

Connecticut

Geoifda

Iowa

Maryland

Massachusetts

Montana

New Mexico

New York

Oregon

Tennenee

Utah

Vermont

SVashinjn

Total

Stoke.

Value of the marble product by uses and States, 1901 and 190S — Gontinaed.

Rough.

Dressed.

Other purposes

State.

Building.

Monumental.

Other.

Building.

Monumental.

OmamentaL

Interior decoration.

Other purposes.

Total.

Alabama

Alaska

Aiisona

Ariranmifl .

Califomla

Connecticut

Qeoiia

Maryland

Mamachusetts

Mlasourib

Montana

New Mexico . .

New York

Oregon

Pennsylvania

Tennessee

Utah

Vermont

Washington

Other Statesc

Total

a Includes Alabama, Arkansas, Connecticut, Maryland, Montana, New Mexico, and Utah. b Production of Missouri and Oregon Included under report on limestone, o Included in Other States.

The following table shows the value of the marble produced in the United States from 1898 to 1902, inclusive, by States:

Value of marble, by States, from 1898 to 190, inclusive.

State.

Alabama

Alaska

Ariisona

Arkansas ,

California

Colorado

Connecticut

Georgia

Idaho

Maryland

Massachusetts

Missouri

Montana

New Mexico

New York

Oregon

a Included in Other States.

Ic

Value ofmarbUf by States, from 1898 to 1902, mchmve — ContinnedL

state.

Tennessee

Utah

Vermont

Waahinton

Other States

Total

o Contains gmall amount from North Carolina.

b Included in Other States.

o Includes Alabama, Arkansas, Connecticut, Maryland, Montana, New Mexico, and Utah.

The following table shows the various uses to which the marble quarried in 1898, 1899, 1900, 1901, and 1902 was put:

DietributUm and value of output of marble in 1898, 1899, 1900, 1901, and 1901S among

various usee.

Use.

Dreaaed for building

Ornaxnental purposes ...

other uses

Total

Stone. 695

The limestone production in the United States in 1902, including limestone for blast-furnace flux, was valued at $30,231,003. In 1901 the value was $26,406,897, a gain in 1902 of $3,824,106. In 1901 the increase over the value for 1900, which was $20,354,019, was $6,052,878. This shows that, although there was a considerable gain in the production for 1902, the increase was very much less than the increase for the previous year.

Of the 42 States reporting a production in 1902, 29 showed an increase in value of output, and 13 a decrease. In 1901, 41 States reported, 35 with increased production, and 6 with decreased production. In order of importance Pennsylvania, Illinois, Ohio, Indiana, New York, Missouri, and Wisconsin give the largest value of pror duction. The output of these States for 1902 was as follows: Pennsylvania, $5,420,287; Illinois, $3,222,608; Ohio, $3,201,718; Indiana, $2,865,691; New York, $2,419,121; Missouri, $1,697,139; and Wisconsin, $1,351,058.

In 1901 the rank and production was: Pennsylvania, $5,081,387; Indiana, $2,993,186; Illinois, $2,793,837; Ohio, $2,606,502; New York, $1,738,716; Missouri, $1,362,272, and Wisconsin, $1,225,448. From this it will be seen that while Pennsylvania kept first rank for both years, Indiana went from second place in 1901 to fourth place in 1902, Illinois from third to second, Ohio from fourth to third, and that the other States remained the sam , New York fifth, Missouri sixth, and Wisconsin seventh.

The State next to these .r lUik in 1902 was Minnesota, with a production of $830,857, and ii i }0i Iowa with a production of $777,484.

According to the uses to Lich the stone was put in 1902, the ranking States and the values o. production were: Building stone, Indiana, $1,813,577, and Ilhnois, 640,443; flagstone, Indiana, $75,659, and Illinois, $70,491; curbstone, Indiana, $117,077, and Wisconsin, $50,251; lime, Pennsylvania, $1,329,095, and Ohio, $1,082,277; crushed stone, Illinois, $1,220,772; Pennsylvania, $1,136,832, and New York, $1,085,- 458; limestone for flux, Pennsylvania, $2,461,426; Ohio, $630,325, and West Virginia, $268,059.

Under stone used for ''other purposes" is included stone for chemical purposes, marble dust, paving stone, monumental stone, limestone used by glass factories and by sugar factories, and for various purposes not enumerated.

The total value of the limestone used for building stone increased from $5,219,310 in 1901 to $5,563,084 in 1902, or $343,774; the value of lime increased from $8,204,054 in 1901 to $9,335,618, or $1,131,564; the value of crushed stone increased from $5,271,642 in 1901 to $7,152,730 in 1902, or $1,881,088; the value of blast-fMrnaceijro

Mineral Besouboes.

9,319,672 long tons (estimated), valued at $4,669,836 in 1901 to 12,139,248 long tons, valued at $5,271,252 in 1902, a gain in value of 1611,416.

The following tables show the value of the production of limestone in the United States in 1901 and 1902, by States and uses:

Value of the production of limestone in the United States in 1901 and 190£f by States

and uses,

10O1.

State or Territory.

BuUdiDg purposes.

Flagging

and curbing.

Riprap rubble, etc.

Cruflhed stone.

Roadmak- Railroad ing. ballast

Concrete.

Ark

California

Colorado

Florida

Geoigia

Idaho

niinois

Indiana

Iowa

Kansas

Kentucky

Maryland

Massachusetts . .

Michigan

Minnesota

Missouri

Montana

Nebraska

New Jersey —

New York

North Carolina .

Ohio

Oklahoma

Oregon

Pennsylvania. . . South Carolina . South Dakota...

Tennessee

Texas

Utah

Vermont

Virginia

Washington

West Virginia . .

Wisconsin

Wyoming

Total .

Sl,020

Si, 000

Ic

Stone.

Vcdue of the production of limetUme in the United Stales in 1901 and 190y by States and

uses — Continued.

10O1— Con tinned.

State or Territory.

Lime.

Sold to lime burners.

Flux.

Other pni poses.

Total.

Alabama

Arizona

Arkansas

California

Colorado

Connecticut —

Florida

Geoigia

Idaho

Illinois

Indiana

Iowa

Kansas

Kentucky

Maine

Maryland

Massachusetts . .

Michigan

Minnesota

Montana

Nebraska

New Jersey

New York

North Carolina

Ohio

Oklahoma

Oregon

Pennsylvania... Rhode Island... South Catolina . South Dakota . .

Tennessee

Texas

Utah

Vermont

Virginia

Washington — West Virginia..

Wisconsin

Wyoming

Total

1,M8

tl8,000

20b, IbS

Mineral Besouboes.

Value of the production of limeaUme in the United Stales in 190i and 1909 , by States and

uses — Continaed.

Iqos.

Building purposes.

Flagging.

Curbing.

Lime made.

Stone sold to

lime bamexB.

Crushed stone.

State or Tenrltor>'.

Road making.

Railroad ballast.

Concrete.

Alabama

M9,357

Arkansas

California

Colorado

Connecticut

Florida

Georgia

Idaho

Illinois

Indiana

Iowa

Kansas

Kentucky

Maine

Maryland

Massachusetts

Michigan

Minnesota

Missouri

Montana

Nebraska

Nevada

New Jersey

New York

North Carolina

Ohio

Oklahoma

Pennsylvania

Rhode Island

f.75,244

South Carolina

South Dakota

Tennessee

Texas

Utah

Vermont

Virginia

Waslxington

West Virginia

Wisconsin

Wyoming

Total

Stone.

Value of the production of limestone in the United States in 1901 and 1909y by States and

uses — Continued.

10OS— Continued.

State or Territory.

Rubble.

Riprap.

Flux.

Other purposes.

Total.

Alabama

Arkanuas

California

Colorado

Connecticut

Florida

Oeoigla

Idaho

Dlinola

Indiana

Iowa

Kansas

Kentucky

Maine

Maryland

Massachusetts . .

Michigan

Minnesota

Missouri

Montana

Nebraska

Nevada

New Jersey

New York

North Carolina .

Ohio

Oklahoma

Oregon

Pennsylvania. . . Rhode Island . . . South Carolina . South Dakota. . .

Tennessee

Texas

Utah

Vermont

Washington

West Virginia . .

Wisconsin

Wyoming

Total

MIKERAL RESOUBOEd.

The following table shows the production of limestone in the United States from 1898 to 1902, by States:

Value oflimesUme, 1898-1902, by Stales.

State.

Alabama

Arizona

Arkanaafl

California

Colorado

Connecticut

Florida

Georgia

Idaho

Illinois

Indiana

Iowa

Kansas

Kentucky

Maine

Maryland

Massachusetts .

Michigan

Minnesota

Missouri

Montana

Nebraska

Nevada

New Jersey

New York

North Carolina .

Ohio

Oklahoma

Oregon

Pennsylvania . . Rhode Island... South Carolina . South Dakota. . .

Tennessee

Texas

Utah

Vermont

Virginia

Washington

West Virginia . .

Wyoming

Total.

Stone.

The following table shows the quantity and value of the blast-furnace flux produced in 1902, by States:

Production of blast-furnace Jlux in IQOfSy by Slates.

State.

Alabama

California

Colorado

Connecticut...

Idaho

Illinois

Indiana

Kentucky

Maine

Maryland

Massachusetts .

Michigan

Missouri

Montana

Nebraska

New Jersey

Quantity.

Value.

?,M2

state.

New York

Ohio

Pennsylvania Rhode Island. South Dakota.

Tennessee

Texas

Utah

Vermont

Virginia

Washington . . West Virginia Wisconsin Wyoming

Total...

Quantity.

Long tons.

Value.

This is the first attempt that has been made to collect the statistics of the quantity of stone used by blast f uniaces; the estimates formerly used were based on an average value of 50 cents per ton. This value has, however, been found to be rather high for some localities. The figures here given were obtained directly from the quarry, whether the quarries were owned by the blast-furnace operator or whether the stone was sold to the furnace. The value given is the value of the stone at the quarry.

Clay-Working Industries.

By Jeffebson Middleton.

Introduciion.

With the exception of the section on clay production, this report deals with the products of the clay-working industries and hence the tables are made up to show the products of clay and not the production of clay.

During the year under review, 1902, the unprecedented prosperity of 1901, chronicled in this report for that year, was in general continued as shown by the tables appended, though in some localities labor troubles may have interferredto some extent with the building trades, and in some regions, also, local conditions, such as the increased cost of fuel, seem to have curtailed the output of clay products. At the beginning of the year the prospects for continued prosperity were excellent, and they were probably fully realized. The number of firms reporting decreased from 6,421 in 1901 to 6,045 in 1902, a decrease of 376, or 5.86 per cent, but the product reported by these operators increased from $110,211,587 in 1901 to $122,169,531 in 1902, a gain of $11,957,944, or 10.85 per cent. This decrease in number of firms reporting can only be accounted for by the fact that many individual firms have combined and reported as one plant, as no plants of impoiiance which reported in 1901, except one in Texas, are delinquent in 1902. This is further shown by the fact that the average value of the output per plant increased from $17,164 in 1901 to $20,210 in 1902. In 1900 the average value per plant reporting was $14,859. However, the remarkable advance in the cost of labor and building materials generally, which began in 1900, had not reached the stage realized in 1903 and does not seem to have had a very serious eflfect on the clay-working industries during 1902, though the gain of 1902 over 1901 was $2,041,298 less than the gain of 1901 over 1900. In other words, it is probable that the rise in the cost of labor and materials prevented the product from rising to something over $126,000,000.

The great coal strike of 1902 had in all probability but little direct effect on the brick and tile industry, though the pottery industry in the eastern States, where considerable anthracite coal is used, may have

Lc

suffered to some extent from the strike. The increased cost of fuel which followed the strike will undoubtedly make itself felt in the brick and tile industry in the increased cost to the consumer.

One of the most significant features of the year was the successful installation of several plants for the manufacture of sand-lime brick. At the close of the year there were three or four plants of this character in operation in diflFerent sections of the country, with the prospect of a large increase in their number in the near future. There seems to be no doubt that the manufacture of this class of brick will be successfully carried on in many localities. It is equally certain that sand-lime brick will not wholly displace clay brick.

Acknowledgments.

The publication of these figures would have been impossible without the cooperation of the clay workers of the country, to whom cordial thanks are hereby tendered. Mr. D. V. Purington has again been of material assistance in securing returns for Cook County, 111., and the thanks of the writer are extended to him for this aid. Thanks are also extended to the officials in many of the cities who have supplied the information concerning the building operations of the principal cities of the country.

As in previous years, the State geological surveys of Iowa, Maryland, and North Carolina have cooperated in the collection of the figures for their States. The complete returns for these States are due to the eflForts of the officers of the respective State geological surveys.

BiriljlilNG OPERATIONS.

The following table shows the number of building permits and the value of the buildings erected under these permits in the leading cities of the United States in 1901 and 1902. These figures are from official sources, having been furnished in every case by the city officers in charge of the building departments. It will be noted that the figures for 1901 have been changed somewhat by the addition of four more cities, and also that there are changes in the figures for some of those published in the 1901 report, notably in those for New York City, whre it was discovered that the figures published last year for this city covered also the city of Brooklyn and the Bronx. An effort was made to obtain figures for new buildings only, but it has been found that in so few of the cities are the records kept iu such a manner as to segregate the permits for new buildings from permits for repairs that these figures cover both new buildings and repairs. Nor is it possible to separate the brick and stone buildings from those built of wood, but it is safe to assume that practically all permits in the larger cities are for brick or stone buildings and that in the smaller cities many of

Clay -Working Industries. 705

Building operations in the leading cities of the United States in 1901 and 1909.

City.

Number of permits.

Cost of buildings.

Number of permltB.

Cost of buildings.

Allegheny, Pa

Atlanta, 6a

Baltimore, Md

Boston, Mass

Brooklyn, N.Y. a

Buflalo,N.Y

Cambridge, Mass . . .

Chicago, 111

Cincinnati, Ohio

Cleveland, Oliio

Columbus, Ohio —

Dayton, Ohio

Denver, Colo

Detroit, Mich

Fall River, Mass Grand Rapids, Mich

Hartford, Conn

Indianapolis, Ind. . . Jersey City, N.J Kansas City, Mo

Los Angeles, Cal

Louisville, Ky

Memphis,

Milwaukee, Wis Minneapolis, Minn .

Nashville, Tenn

Newark,N.J

New Haven, Conn . .

New Orleans, La

New York, N.Y.b...

Omaha, Nebr

Philadelphia, Pa...

Pittsburg, Pa

Providence, R. I —

Reading, Pa

Richmond, Ya

Rochester.N.Y

St Joseph, Mo

St.Louis,Mo

St. Paul, Minn.

San Francisco, Cal. .

Scran ton. Pa

Seattle, Wash

N. Y

Washington, D.C... Worcester, Mass

Total

a Figures for Brooklyn cover borough of Brooklyn only.

h Figures for New York cover the boroughs of Manhattan and the Bronx.

o Includes 1948,989 in 1901 expended on public buildings, both State and Federal.

M R 1902 16

From this table it will be seen that the 46 cities reporting show that the number of permits issued in 1902 was 84,555 as compared with 79,029 in 1901, a gain of 5,526, or 6.99 per cent. The value of the buildings erected under these permits was $362,618,266 in 1902 as compared with $365,420,904 in 1901, a loss of $2,802,638, or 0.77 per cent. The average value of the buildings, assuming that one permit was issued for each building, was $4,624 in 1901, and $,289 in 1902. The most notable feature of this table is the falling oflF both in the number of permits and in the value of the buildings in New York City. The former fell from 5,594 in 1901 to 2,877 in 1902, a decrease of nearly 50 per cent, and the value of the buildings declined from $123,121,406 to $89,882,778, a loss of $33,238,628, or 27 per cent. It will be noted that many of the large Atlantic seaboard cities show a considerable decrease, namely, Baltimore, from $4,599,318 in 1901, to $3,752,411 in 1902; Boston, from $12,923,059 in 1901 to $10,147,055 in 1902; Hailford, from $2,612,100 in 1901 to $1,105,000 in 1902; Providence, from $4,028,575 in 1901 to $2,554,050 in 1902. On the other hand other cities in the same resion, such a Brooklyn, Cambridge, Jersey City, Newark, and Philadelphia show increases. Hence the conclusion must be drawn that building activity is governed largely by local conditions. It should be noted, however, that nearly all cities in the West show large increases in building. The average value per building in New York in 1901 was $22,010 and in 1902, $31,242, while in Philadelphia the average in 1901 was $15,046, and in 1902 $15,756. The average in Chicago was $5,776 in 1901 and $7,910 in 1902.

Production.

In the following tables will be found statements of the values of the clay products in the United States in 1901 and 1902, by States and Territories.

Clay-Wokking Industries.

Valtie of the products of day in the UnUed States in 190$ by States.

State.

Brick and tUe.

Pottery.

Total.

Alabama

Arizona

Arkansas

California

Colorado

Connecticut

Delaware

District of Columbia.

Florida

Georgia

Hawaii

Idaho

Illinois

Indiana

Indian Territory

Iowa

Kansas

Kentucky

liouisiana

Maine

Maryland

Massachusetts

Michiian

Minnesota

Mississippi

Missouri

Montana

Nebraska

Nevada

New Hampshire

New Jersey

New Mexico

New York

North Carolina

North Dakota

Ohio

Oklahoma

Oregon

Pennsylvania

Rhode Island

South Carolina

South Dakota

Tennessee

Texas

Utah

Vermont

Virginia

Washington

West Virginia

Wisconsin

Wyoming

Other States

i,

Total

Per cent of total .

Mo. 728

al,KJii,V81

Hi, &#x27;.134

/r*.s, -130

J37,426

r. 12, 424

i,r;60,942

I. 13,006

J 78, 727

:,ig4,682

t26,499

M16,897

a 1,217, 678

i,744,a:o

e 318, 604

a Includes Rhode Island.

b Produced by Connecticut alone.

o Include in Other States.

d Included in Oregon.

e Includes Hawaii.

/Included in Connecticut.

0 Comprising pottery totals for the following States: Florida, Kansas, Louisiana, Maine, Montana, New Hampshire, and Oregon. This total could not be distributed among the States to which it belongs without disclosing the operations of individual establishments.

Motkbal Bbsoub0E8.

Vcdue ofjfroduols of day in the United States in 1901, by States.

Btatc.

Brick and Ule.

Pottery'.

Total.

Alabama

Arizona

Arkansas

California

Gonnectisut

Delaware

District of .

Florida

Georgia

hawaii

Idaho .

Illinois

Indiana

Indian Territory .

Iowa

Kansas

Kentucky

Louisiana

Maine.

Maryland

Massachusetts

Michigan

Minnesota

Missouri ,

Montana

Nebraska

Nevada

New Hampshire.

New Jersey

New Mexico

New York

North Carolina . . North Dakota ... Ohio.

Oklahoma

Oregon

PennsyWania .. Rhode Island... South Carolina . South Dakota ..

Tennessee

Texas

Utah

Vermont

Virginia

Washington — West Virginia..

Wisconsin

Wyoming

Other States

Total

Per cent of total .

S95,8o8

a 1,039, 709

7S4.678

l,4a%300

& 91, 200

a 1,130. 909

Jb.218

a Includes Rhode Island.

b Produced by Connecticut alone.

o Included in Other States.

Included in Oregon.

Includes Hawaii.

/Included in Connecticut.

9 Comprising pottery totals for the following States: Florida, Kansas, Maine, Montana. New Hampshire, Oregon, and Utah. This total could not be distributed among the States to which it belongs without disclosing the operations of indlTldual establishments.

These tables show that the clay products increased in value from $110,211,587 in 1901 to $122,169,631 in 1902, an increase of $11,957,944, or 10.85 per cent, as compared with a gain in 1901 of $13,999,242, or 14.55 cent, over 1900. Although the gain in 1902 over 1901 was not so large as that of some previous years, notably that of 1899 over 1898, still it is very satisfactory and represents a corresponding increase in production, and consequently a healthy growth of the industry, and not merely a gain in value caused by rising prices. by

Olay-Working Ikdu8Trie8.

Of this total the coarser products — those used in the stimctural and engineering arts — composed $98,042,078, or 80.25 per cent of the whole, while the finer products contributed $24,127,453, or 19.75 per cent of the total. These proportions are practically what the}*" have been for several years.

The following table shows the value of the clay products in the United States from 1897 to 1902, by States and Territories:

Value of the products of clay in the United States 1897-190.

State.

Alabama

Arkansas

California

Colorado

Connecticut and Rhode

Island

Delaware ,

District of Columbia ,

Florida

Georgia

Idaho

Illinois

Indiana

Indian Territory ,

Iowa

Kansas

Kentucky

Loulsittiui

Maine ,

Maryland ,

Massachusetts

Michigan

Minnesota

Mississippi

Missouri

Montana

Nebra'ka

Nevada

New Hampshire

New Jersey

New Mexico

New York

North Carolina

North Dakota ,

Ohio

Oklahoma

Oregon ,

Pennsylvaniti

South Carolina ,

South Dakota

Tennessee

Texas

Utah

Vermont

Virginia

Washington

West Virginia

Wisconsin

Wyoming

other States

$443,378 M,143 184,099 703,410 406,863

1,M2,853

1,Q7I,J02

38J.145

i:-;h, -Hoe

1,J<;:l.'.l95

I7,r524

i.r'J i5

3,a"5;-;i50

fi07,tS9l

l,lI,ti9&

l,a9tUj97

r*?

8&/,489

b 263, 891

d83,152

Total

Operating firms reporting.

a In 1897 and 1898 the flares for California include the pottery products of Oregon and Washington; Colorado, those of Idaho, Montana, Nebraska, and Utah; Maryland, those of theDistrict of Columbia; Georgia, those of Florida; Miasissippi. those of Louisiana; New Hampshire, those of Maine; Minnesota, those of Wisconsin; and North Carolina, those of South Carolina. This is done in order that the operation individual establlahments may not be disclosed.

h Includes Hawaii.

c Comprising pottery totals for the following States: Florida. Kansas. Maine, Montana, New Hampshire, Oregon, and Utah. This total could not be distributed among the States to which it belongs without disclosing the operations of individual establishments.

d Comprising pottery totals for the following States: Florida, Kansas, Louisiana, Maine, Montana. New Hampshire, and Oregon. This total could not be distributed among the States to which it belongs without disclosing the operations of individual establishments.

Ic

Mineral Besoubge8.

The foregoing table shows the vahie of the products of clay by States and Territories for six years, together with the number of films reporting, and is a condensed statement of the industry for the period covered.

It will be observed in this table that, notwithstanding the gain in the total value of clay products, there were eleven States which showed a decrease in the values of their products as compared with 1901. The States showing a decrease are: District of Columbia, J56,381, or 17.40 per cent; Florida, $16,232, or 7.99 per cent; Georgia, $36,414, or 2.36 per cent; Maine, $78,030, or 10.62 per cent; Montana, $260,494, or 48.31 per cent; Nebraska, $48,806, or 6.06 per cent; New Mexico, $12,466, or 15.32 per cent; Texas, $29,661, or 1.72 per cent; Washington, $39,667, or 4.19 per cent; Wisconsin, $220,886, or 17.71 per cent; and Wyoming, $6,800, or 23.49 per cent. None of these States showed a decrease in 1901 from 1900, and, as with the exception of one State — Texas — there was no important firm not reporting, the inference must be drawn that in these States there was a slight — very slight — falling off in the industry, governed, most probably, by local conditions. It will be observed that these States are not confined to any one section of the country, but are distributed north, south, east, and west. In 1901 the States showing a decrease were located mostly in the Southern States.

In the following table will be found a comparison of the several varieties of clay products made in 1901 and 1902, showing the actual gain or loss, together with the percentage of gain or loss:

Value of the produds of clay in the United States in 1901 and with increase or

decrease.

Product.

Increaae in

Percentp age of Increase in

a9.90

Common brick

Front brick

Vitrified paving brick

Fancy or ornamental brick.

Enameled brick

Firebrick

Stove lining

Drain tile

Sewer pipe

Ornamental terra cotta

Fireprooflng, etc

Miscellaneous

Total brick and . Total potter>'

Total.

a Decrease.

b Stove lining for Vermont included in Vermont miscellaneous.

Clay -Working Indu8Tbieb. 711

This table shows most strikingly the results of the canvass of this office and the lines along which there is the most activity. Again there was one branch in which a decrease was recorded — that of fancy or ornamental brick, which showed a loss of $36,841, or 9.90 per cent.

This table shows a continuation of the ighly satisfactory condition mentioned in the report for 1901, namely, an increase in every variety of product except one. In 1901 the product which showed a decrease was stove lining, a minor product, and in 1902 the decrease was in fancy or ornamental brick, another minor product. In 1901 the decrease in stove lining was 8.47 per cent; in 1902 the decrease in fancy or ornamental brick v/as 9.90 per cent.

Although there was more or less disturbance in the building trades in 1902, caused by strikes, still even the great value of the building brick in 1901— $61,048,653— was increased in 1902 to $55,010,330, a gain of $3,961,677, or 7.76 per cent, and as compared with the value in 1900, $43,099,512, the gain in this class of material in 1902 wa* $11,910,818, or 27.64 per cent, thus indicating the steady growth of the building industries. The common brick product increased from $45,503,076 in 1901 to $48,885,869 in 1902, a gain of $3,382,793, or 7.43 per cent.

The front-brick product increased in value from $4,709,737 in 1901 to $5,318,008 in 1902, a gain of $608,271, or 12.92 per cent. Although this increase is not so large as that of 1901 over 1900, it indicates that the use of high-grade brick in fronts is growing satisfactorily. That the paving-brick industry is in a good condition is shown by the increase over 1901 of $260,396 in the value of the product. The total value of this product was exceeded by only three other varieties of clay products— pottery being excluded — namely, common brick, fire brick, and sewer pipe. While the use of front brick is evidently increasing, the demand for fancy-shaped brick is falling off, as evidenced in the decrease in the value of this product from $372,131 in 1901 to $335,290 in 1902, a decrease of 9.90 per cent.

The enameled-brick industry seems to be advancing but slowly, as is shown by the increase of only $7,454 in the value of the product of 1902 over that of 1901. It is surprising that this product does not increase more rapidly.

The fire-brick industry is progressing with great rapidity, its product increasing in value from $9,870,421 in 1901 to $11,970,511 in 1902, an increase of $2,100,090, or 21.28 per cent. This increase is not surprising when the prosperity of the iron and steel industry from which it draws its chief support is taken into consideration.

The drain-tile industry was in a flourishing condition, as shown by the increase of $363,786 over the value of the product as reported for

1901. The total value of this product in 1901 was $3,143,001, and in

1902, 13,506,787. The gain in 1903 will undoubtedly be much larger, owing to the wet season in the Middle West.

The increasing use of vitrified sewer pipe is shown by the steady rise in value of this product since 1898, when it was $3,791,057, to 1902, when it was $7,174,892, a gain of $8,383,835, or 89.26 per cent The gain in 1902 over 1901 was $437,923, or 6.50 per cent.

The ornamental and architectural terra-cotta industry also showed satisfactory gains in 1902 over 1901, though from the manifest popularity of this material one would look for more considerable gains than are shown by the figures here given. The gain in 1902 over 1901 was $158,924, or 4.72 per cent

The most important increase in value of output, after common and fire brick, was in the fireproofing industry, where the gain was $1,315,324, or 70.71 per cent. This is explained in part, no doubt, by the fact that there is included in this column hollow building block and tile, which is becoming very popular in the Middle West; also by the large numbers of fireproof buildings now being constructed in the large cities.

The gain in popularity of the use of floor, wall, and mantel tile is indicated by the handsome increase in the value of these products, as shown by the returns — $755,204, or 26.34 per cent.

Not only did the brick and tile products increase in 1902, but the pottery products also continued to gain in a highly satisfactory manmer, increasing from $22,463,860 in 1901 to $24,127,453 in 1902, a gain of $1,663,593, or 7.41 per cent

The following table shows the output of clay products in the United States from 1894 to 1902 by varieties of products, together with the total for each year and the number of operating firms reporting:

Clay-Wokking Indu8Tbie8.

Products of day in the Uniled States, 1894-1 90, by varieUes,

Number of operating firms reporting.

Common brick.

Front brick.

YeM.

Quantity.

Value.

Average price per

Quantity.

Value.

Average price per thousand.

Thouacmdt.

1A96

Vitrified paving brick.

Enameled brick

Btove lining

Year.

Quantity.

Value.

Average price per thousand.

Drain tile

Thouaandt. 457,021 381,501 520,407 485,851 474,419 580,751 546,679 )6,077 617,192

(ft) $279,998 829,969 323,630 463,709

Year.

Ornamental

terra cotta

Tile,

not drain

MiscellaneouB.<i

Total value.

and pressed brick not separately classified in 1804. b Enameled brick not separately classified prior to 1806. e Stove lining not separately classified prior to 1899. Including pottery products in 1894 and 1895. e Pottery not separately classified in 1894 and 1896.

This table is interesting, inasmuch as it shows the history of the industries from the beginning of the statistical canvass by the Geological Survey. The total value of the brick and tile products has increased from $55,664,781 in 1896 to $98,042,078 in 1902, a gain of $42,387,297, or over 76 per cent, and the pottery products have increased in value from $7,455,627 in 1896 to $24,127,453, a gain of over 200 per cent. The number of common brick rose from 5,292,632,000 in 1897 to 8,475,067,000 in 1902, the average price rising with the output from $4.99 per thousand in 1897 to $5.77 in 1902. The average price of front brick ranged from $12.97 in 1895 to $10.86 in 1899, then rising steadily from the lowest figure in 1899 to $11.60 in 1902. The vitrified brick product rose from 320,407,000 in 1896 to 617,192,000 in 1902, while the average price increased from $8.18 per thousand in 1899 to $9.31 in 1902.

Along almost every line of the clay industry the output has increased, the most notable increases being in the fireproofing and fire brick industries.

Rank Of States.

In the following table will be found a statement of the rank of States, the total value of the products of clay, the percentage of the total products made by each State, and the number of operating firms reporting in each State in 1901 and 1902:

Olay-Wobkino Industries.

Rank ofStcUet and output of the products of day in 1901 and 1002,

Rank.

State.

Number of operating firms reporting.

Value.

Per cent of total product.

Ig

Ohio

Pennsylvania. . New Jemey —

niinoifl

New York

Indiana

Iowa

Went Virginia . MaflRachunettfl .

California

Colorado

Maryland

Minnesota

Kentucky

Michigan

Texas

Virginia

Georgia

Connecticut and Rhode Island.

Wisconsin

Alabama

Tennessee

Washington

New Hampshire

North Carolina

Nebraska

Maine

Louisiana

South Carolina

Arkansas

Utah

Oregon and Hawaii

Montana

District of Columbia

Oklahoma

Florida

Indian Territory

Delaware

North Dakota

Arizona

Idaho

Vermont

New Mexico

South Dakota

Nevada

Wyoming

Other States

Total

l&l

9a5,231

&12,424

r.16,209

a'>9,005

6,ai5

l.r.6

Comprising pottery totals for the following States: Florida, KHnMis. Louisiana, Maine, Montana, New Hampshire, anrf Oregon. This total could not bo dlNtributed among the States to which it belongs without disclosing the operations of individual establishmeutB. iqjtized by Vn tJ VJ V IC

Mineral Besoubce9.

Rank of States and output of the products of clay in 1901 and 190S. lOOl.

Rank.

State.

Number of operating firms reporting.

Value.

Per cent of total product.

Ohio

PenniiylyanU . New Jerse . . . .

Illinois

New York

Indiana

Iowa

West Virginia . MasaachusettH .

California

Texas

Maryland

Colorado

Minnesota

Georgia

Michigan

Kentucky

Virginia

Wisconsin

Connecticut and Rhode Island.

Alabama

Washington

Tennessee

Nebraska

North Carolina

New Hampshire

Maine

Louisiana

South Carolina

Montana

Arkansas

District of Columbia.

Utah

Oregon and Hawaii .

Oklahoma

Florida

Delaware

Indian Territory

Arifona

New Mexico

Vermont

North Dakota

Idaho

South Dakota

Wyoming

Nevada

Other States

t21,574,985

a76,488

Total.

aComprifiing pottery totals for the following States: Florida, Kansas, Maine, Montana, New Hampshire, Orcon, and Utah. This total could not be distributed among the States to which it belongs without disclosing the operations of individual establishments. VJV li

Clay-Working Industries.

The following table shows the rank of the several States and Territories in the value of products of clay from 1894 to 1902: Rank of day-producing States, in value ofprodudt of day, 1894-190S,

state.

Alabama

Arizona

Arkansas

California

Colorado

Connecticut

Delaware

District of Columbia .

Florida

Idaho

Illinois

Indiana

Indian Territory

Iowa

Kansas

Kentucky

Louisiana

Maine

Maryland

Massachusetts

Michigan

Minnesota

Mississippi

Missouri

Montana

Nebraska

Nevada

New Hampshire

New Jersey

New Mexico

New York

North Carolina

North Dakota

Ohio

Oklahoma

Oregond

Pennsylvania

Rhode Island

South Carolina

South Dakota

Tennessee

Texas

Utah

Vermont

Virginia

Washington

West Virginia

Wisconsin

Wyoming

18d5.

bAZ

So

U

U

bin 1894, 1895. and 1896 Indian Territory and New Mexico were included with Oklahoma Territory. Included with Connecticut in 1897, 1898, 1899, 1900, 1901, and 1902. d Including Hawaii in 1901 and 1902.

Every State and Territory produces more or less of the products of clay, though, as shown by this table, the first ten States are found in a belt stretching from the Atlantic Ocean to the Missouri River in the northern portion of our countr3\

Ohio, as heretofore, is the leading State in the production of clay products, producing $24,249,748 worth of product, or 19.85 per cent of the total. In 1901 this State produced clay products valued at $21,574,986, or 19.58 per cent of the total. Pennsylvania was second, with a product valued at $17,833,425, or 14.60 per cent of the total; in 1901 this State was second, with $15,321,742 worth of product. Until the twelfth place is reached there has been no change in the relative rank of the States except Indiana and Missouri, which exchanged places. Colorado has risen from fourteenth to twelfth and Texas has fallen from twelfth in 1901 to seventeenth in 1902. Maryland maintained its position as thirteenth in rank, and Minnesota rose from fifteenth to fourteenth, Kentucky from eighteenth to fifteenth and Michigan from seventeenth to sixteenth. Virginia rose from nineteenth to eighteenth place; Georgia fell from sixteenth to nineteenth, and Kansas rose from twent3-second to twentieth. Connecticut and Rhode Island maintained the same position in both years, namely, twenty-first, and Wisconsin fell from twentieth in 1901 to twenty-second in 1902. The remaining States are rather unimportant so far as changes in relative rank are concerned, the greatest changes being in the cases of Montana and New Mexico, which dropped four and three numbers, respectively.

BRICK ANJy TIIiE.

Production.

The following tables show the production and value of building brick and other structural products of clay, together with fire brick, paving brick, and other clay products used in engineering work, in 1901 and 1902, the former year being presented for comparative purposes:

Olay-Wobking Industbik8.

Brick and tile products of the United States in 190£,

Common brick.

liflcy per tboii-

Front brick.

Qu&iatfty.

Valtif?

price per tlMiiu&iid.

Arizona

Arkansas

California

Colorado

Connecticut and Rhode Isluii' i .

Delaware

District of Columbia

Florida

Georgia

Idaho

Indiana

Indian Territory

Iowa

Kansas

Kentucky

Louisiana

Maine

Maryland

Michigan

Minnesota

Mi.stdasippi

Missouri

Montana

Nebraska .'..

Nevada

New Hampshire

New Jersey

New Mexico

New York

North Carolina

North Dakota

Ohio

Oklahoma

Oregon fe

Pennsylyania

South Carolina

South Dakota

Tennessee

Texas

Utah

Vermont

Virginia

Washington

West Virginia

Wisconsin

12Bj06 15,606

Ih.Mo I 17,318

i:m;,386 K-i.972 ;;L7U

Wyoming

ler States.

n-,728

111,235 Vi I, 376 ::;;7,254 190,085

I: . 142

L&#x27;7. 169

-m, 718

1 in;. 106

iu-;i37 73,325 81,166

Total

Per cent of brick and tile products

Per cent of total of clay products.

S,4?&amp;,067

1.832, U8 130,339 638,901 40,600 861,975

6,074,a52 560,409 60,100 606,883

S5.T1

fi.77

s.

%

a Included in Other States. Includes Hawaii.

c Value of front brick for Wyoming included in Wyoming miscellaneous.

d Includes all products made by less than three producers in one State in order that the operations of individual establishments may not be disclosed.

Mineral Resources.

Brick and tiie products in the United States in 1901S — Continued.

Vitrified paving brick.

Fancy or

omamen~

tal brick

Fire

brick

state.

Quantity.

Value.

Average price per thousand.

California

M4M

Connecticut and Rhode Island. ..

Delaware

District of Columbia

d

Florida

1W,048 66,726

a

Georgia

Idaho

Illinois

Indian Territory

Iowa

Kanms

Kentucky

Maine

Maryland

Massachusetts

Michigan

Minnesota

Missinippi

Miffiouril

Montana

Nebraska

New HanipflWi

New Jersey

32r,260

New Mexico

New York

North Carolina

North Dakota

Ohio

i86,786

Oklahoma

Oregon

2o!972

*ii6,'663'

Pennsylvania

South Carolina

South Dakota

Tennessee

Texas

Utah

Vermont

Virginia

Washington . .

West Vfiginla

Wisconsin

Other Stateed

Total

Pel cent of brick and tile products

Per cent of total of clay products

a Included in Other States.

Mncludes Hawaii.

0 Stove lining for Vermont included in Vermont miscellaneous.

d Includes all products made by less than three producers in one State in order that the operations of individual establishments may not be dLnclosed.

Including enameled brick, valued at 9471,163, made in the following States: California, Illinois. Maryland, Missouri. New Jersey, Oliio, and Pennsylvania. [New Jersey and Pennsylvania, with products respectively of 9202,740, and 967,188, were the only States in which there were three or more producers of enameled brick.]

Ic

Clay-Working Indu8Tbie8.

Brick and tUe products of the United States in 1902 — Continued.

State.

Omsr

mental

terra cotta

Pi reproofing

Tile

Total value.

Arizona

Arkansas

California

Colorado

Connecticut and Rhode Island

Delaware

nf , ,

Florida

Georgia

Idaho

Illinois

Indian Territory

Iowa

Kansas

Kentucky

Maine

Maryland .

Massachusetts

Michigan

Minnesota

Mississippi

Miasouri

Montana

Nebraska

Nevada

New Hampshire

New Jereev

New Mexico

New York

North Carolina

North Dakota

Ohio

Oklahoma

Oregon o

6b0,481

'"'*243,*866"

Pennsylvania

South Carolina

South Dakota

Tennessee .

a a

Texas

d 18, 000

Utah

Vermont

Virginia

Washington

West Virelnia

Wisconsin

Wyoming

Otner States/

Total

Per cent of brick and tile products

Per cent of total of clay products.

a Included in Other States.

b Including adobes, aquarium ornaments, boiler and locomotive brick and tile, burnt-clay ballast, carboy stoppers, chemical brick and tile; chimney blocks, pipes, and tops; clay furnaces, retorts and settings: conduits for underground wires, crucibles, curbing blocks, fire-clay insulators, Are mortar, flue lining, furnace brick and tile, gas logs, glasshouse supplies, grave markers, ground fire brick, mnffiesj oven tile, paving bloclcs, porous cups, saggers, stone pumps, wall coping, web tile, sewer and well .

Includes Hawaii.

Stove lining for Vermont included in Vermont miscellaneous.

Value of front brick for Wyoming included in Wyoming miscellaneous.

/Includes all products made by less than three producers in one State in order that the operations of individual establishments may not be disclosed.

fir The total of Other States is distributed among the States to which it belongs, in order that they may be fully represented in the totals.

M B 1902 46

MINERAL BESOUBGE8. Brick a7id tile products of the UfiUed States in 1901.

state.

Alabama

Arizona

Arkansas

California

Colorado

Connecticut and Rhode Island. . Delaware

District of CoYumbia*

Florida

Georgia

Idaho

Indiana

Indian Terri tory

Iowa

Kansas

Kentucky

Louisiana

Maine

Maryland

Massachusetts

Michigan

M innesota

Misdssijppi

Miasouri

Montana

Nebraska

Nevada

New Hampshire

New Jersey

New Mexico

New York

North Carolina

North Dakota

Ohio

Oklahoma

Pennsylvania

South Carolina

South Dakota

Tennessee

Texas

Utah

Vermont

Virginia

Washington

West Virginia

Wisconsin

W yoming

Other States**

Common brick.

Front brick.

Quantity.

Total

Per cent of brick and tUe products

Per cent of total of clay products.

Thoutands.

Value.

r742,691 92,966 868,359 943,250 760,867 822,079 126,092 179,184 185,759

Average price per thousand.

Quantity.

Thotuands.

Value.

Average

E rice per ousand.

I

a Included in Other States. Includes Hawaii.

c Value of front brick for Wyoming included in Wyoming miscellaneous.

d Includes all products made by less than three producers in one State, in order that the operations of individual establishments may not be diaclosea.

Clat-Woeking Industries.

Brick and tile products of the United States in 1901 — Continued.

Vitrified brick.

Fancy or ornamental

Firebrick

state.

Quantity.

Value.

Average

price per

thou-

W13d,

Alabama

Thousands,

Sll.OO

Arizona

Arkanitafl .' , . - - -

t950 4,540 8,453

California

Colorado

Connecticut and Rhode Island

Delaware

District of Columbia

Florida

Georgia

Idaho

Illinoifl

Indiana

Indian Territory

Iowa

Kansas

Kentucky

Louisiana

Maine

ff

Maryland

S40,287

Michigan

Minnesota

Miflsissippi

Ml£BOUri

Montana

Nebraska

Nevada

New Hampshire

New Jersev

New Mexico

New York

North Carolina

North Dakota

Ohio

Oklahoma

Oregon

Pennsylvania ... . ...

South Carolina

South Dakota

Tennessee

rs

Texas

Utah

Vermont

Virginia

Washington

West Virginia

Wisconsin

Wyoming

Other States

Total

Per cent of brick and tile products

Percent of total products of clay

a Included in Other States.

b Includes Hawaii.

c Stove lining for Vermont included in Vermont miscellaneous.

rf Includes all products made by less than three producers in one State, in order that the operations of individual establishments may not be disclosed.

e Including enameled brick valued at $468,709, made in the following States: California, Illinois. Maryland, Missouri, New Jersey, Ohio, Pennsylvania, Tennessee, and Wisconsin. New Jersey and Ohio, with products, respectively, of S177.128 and $11,887, were the only States in which there were three or more producers of enameled brick.

Ic &quot;&quot;

Brick and tile products of the United States in 1901 — Continued.

state.

Ornamental terra

Flreproof-

Tile, not

Total value.

Oftllfomift

Colorado

Connecticut and Rhode Island

Delaware

District of Columbia

Florida

Geoixia

Idaho

Illinolfl

Indiana

Indian Territory

Iowa

'106,346 40,000

Kansas

Kentucky

Maine

I'l

Maryland

r4

Massachusetts

Michigan

Minnesota

Mississippi

Montana

Nebraska

Nevada

New Hampshire

New Jersey . . . .

New Mexico

New York

North Carolina

North Dakota

Ohio

Oklahoma

Oregon c

st

South Carolina

South Dakota

S

Texas

d 16, 000

Utah

Vermont

Virginia

West Virginia

i;400

Wisconidn

Wyoming

Total

Per cent of brick and tile products

Per cent of total products of clay

a Including adobes, assayers' supplies, boiler and locomotive tile and tank blocks, burnt clay ballast, chemical brick, patient chimney brick, chimney pipe and tops, clay furnaces and retorts, conduit for underground wires, crucibles, cupola brick, fence posts and stubs, Are clay mortar, flue lining, frost-proof cellar brick, furnace mantels, gas logs and settings, glass-melting pots and glasshouse furnace blocks, grave markers, hollow bricks, muffles, supports, and slides, porous cups, runner brick, sidewalk tile, stone pumps, terrarcotta cases, vitrifled sewer brick, wall coping, water pipe, and well brick and tile.

Mncluded in Other States.

includes Hawaii.

d Includes stove lining for Vermont.

Includes value of front brick for Wyoming.

/ Includes all products made by less than three producers in one State, in order that the operations of Individual esutblisbments may not be disclosed.

0The total of Other States is distributed among the States to which it belongs, in order that they may be fully represented tn the totals.

Olay-Working Industries. 725

These tables show in detail the clay products of the country in two years of great prosperity, when the products shown were valued at $98,042,078 and 187,747,727, respectively. The percentage of these products to the total was 80.26 in 1902 as compared with 79.62 in 1901. The conuuon brick composed 49.86 per cent of the value of the brick and tile products and 40.01 per cent of the total clay products, whereas in 1901 these figures were 61.86 and 41.29, respectively, and in 1900 they were 60.64 and 40.14, respectively. The next most important product in point of value was the fire brick, which was vallied at $11,970,511, or 12.21 per cent of the brick and tile products and and 9.80 per cent of the total clay products. In 1901 this product was valued at $9,870,421, or 11.26 per cent of the brick and tile products and 8.96 per cent of the whole. The average price per thousand for common brick increased only 11 cents, or from $6. 66 to $5. 77. Next to fire brick, the most important brick product in point of value is vitrified paving brick, which was valued at $6,744,530, or $9.81 per thousand, constituting 6.86 per cent of the brick and tile products and 4.70 per cent of the total clay products. In 1901 this product was valued at $6,484,134, or $9.06 per thousand, and constituted 6.26 per cent of the brick and tile products, or 4.98 per cent of the total clay products.

The front brick product was next in importance, being valued at $6,318,008 in 1902 as compared with $4,709,737 in 1901. The relative proportions of this product in the two years were 6.87 per cent of the brick and tile products and 4.27 per cent of the total products in 1901 and 6.42 per cent and 4.36 per cent, respectively, in 1902.

The fireproofing industry, while it has made great gains proportionately, is still relatively an unimportant branch of the industry, the product being valued at $3, 176,693 in 1902, or only 3.24 per cent of brick and tile products and 2.60 per cent of the total clay products; in 1901 this product was valued at $1,860,269, or 2.12 per cent of the brick and tile products and 1.69 per cent of the total clay products.

Rank Of States.

The following tables show the rank of the States in the output of brick and tile products as distinguished from pottery products, and the percentage of the total made by each State and Territory in 1901 and 1902, and may be of interest to those engaged exclusively in this line of industry:

Mineral Re80Ub0E8.

Rank of Stales and output of brick and tile products in 1901 and 1909,

Bank.

State.

Ohio ,

New York

New Jersey

Miflsouri

Indiana

Iowa

California

Colorado

Maasachusetts .

Kentucky

Michigan

Texas

Virginia

Minnesota

Georgia

Maryland

West Virginia .

Connecticut and Rhode Island.

Wisconsin

Alabama

Washington

New Hampshire

Tennessee

North Carolina

Nebraska

Maine

Louisiana

South Carolina

Arkansas

M ississippi

Utah

Oregon a

Montana

District of Columbia

Oklahoma

Florida

Indian Territory

Delaware

North Dakota

Arizona

Idaho

Vermont

New Mexico

South Dakota

Nevada

Wyoming

o Includes Hawaii.

Value.

Percent of total product.

Rank.

Olay-Working Industries.

Rank of Stales and (nUpiU of brick and tile products in 1901 and 190,

state.

Ohio

Illinois

New York

New Jersey

Missouri

Indiana

Iowa

California

Texas

Massachsetts

Colorado

Georgia

Michigan

Virginia

Kentucky

Maryland

Minnesota

Wisconsin

Connecticut and Rhode Island

Kansas

Alabama

Washington

Tennessee

Nebraska

New Hampshire

North Carolina

Maine

Louisiana

South Carolina

Montana

Mississippi

Arkansas

District of Columbia

Utah

Oregona

O klahoma

Florida

Delaware

Indian Territory

Arizona

New Mexico

Vermont

North Dakota

Idaho

South Dakota

Wyoming

Nevada ,

Total

Value.

666,730 960,041 214,368 781,805 409,906 936,088 711,30r> 735,721 632,189 689,469 668,167 527,868 497,169 486,300 374,846 272,175 256,552 234,144 087,838 089,709 981,020 928,429 927,298 829,874 806,473 765,964 751,301 734,678 612,595 568,346 639,221 461,694 895,868 311, 129 291,189 263,891 206,060 190,674 181,164 117,224 92,986 81,345 77,564 76,708 68,328 69,365 28,950 17,625

Per cent of total product.

a Includes Hawaii.

Ohio, although the leading State in point of total value of clay products, must bow to Pennsylvania when the coarser products only are considered, the value of these products in these two States in 1902 being, respectively, J13, 730,610, or 14 per cent of the total brick and tile products, and 115,957,160, or 16.28 per cent of the total. In 1901 these States produced brick and tile products, valued as follows: Pennsylvania, $13,656,730, or 15.56 per cent, and Ohio $11,526,424, or 13.14 per cent. Inspection of other tables will show, that the .reason for this is the enormous brick and fire brick production of Pennsylvania, while Ohio's chief brick and tile products are vitrified brick, drain tile, sewer pipe, fireproofing, and floor, wall, and art tile.

Hudson River Region.

The following table shows the production of common brick along the Hudson River, from Troy, N. Y., to New York City, including Bergen County, N. J. This region is probably the most active brickmaking region in the world. Of New York's 1,061,712,000 common brick, the largest output of this variety of brick of any State of the Union, 782,932,000, or 73.74 per cent of the total output of the State, were produced in this portion of the State. This output of common brick is exceeded by only two States in the entire country — Illinois and Pennsylvania, the great clay-working State of Ohio producing only a little more than two-thirds as much as this portion of New York; and the State of Indiana, itself a large producer of common brick, made less than 40 per cent of the output of this comparatively small region. It is interesting to note that there were in 1902 only 11 States besides New York that marketed more conunon brick (209,905,000) than one county along the Hudson — Rockland County, namely: Georgia, 223,705,000; Illinois, 1,023,681,000; Indiana, 305,- 233,000; Iowa, 228,142,000; Massachusetts, 241,376,000; Michigan, 237,254,000; Missouri, 292,134,000; New Jei-sey, 300,583,000; Ohio, 538,552,000; Pennsylvania, 949,718,000, and Texas, 217,461,000.

Of New Jersey's product of common brick, 300,583,000, one county on the Hudson, Bergen, included in this table, produced 50,133,000, or 16.68 per cent of the total. The explanation of this large product is in the fact that it supplies the market of Greater New York and vicinity, the largest consuming market for brick in the country.

The average price per thousand varied from .01 in Ulster County to $5.29 in Columbia County, the average for the New York portion of this product being $4.42, as compared with $4.70 in 1901. The average for both States wa.s $4.42, as compared with $4.67 in 1901. The average for Bergen County brick in 1902 was $4.38, as compared with $4.27 in 1901.

Clay-Wobking Indu8Tbie8.

As in 1901, the figures embraced in this table include principally the product made along the river, which is shipped by water to New York City, but in the northern counties brick are included which are used locally:

Common brick of the Hudson River district, from Cohoes to New York City.

County.

Number of firms reporting.

Quantity.

Value.

Average price per thousand.

Albany

Columbia —

Dutchess

Greene

Orange

Rensselaer... Rockland —

Ulster

Westchester .

Thousand*.

1221,818 219,000 630,190 176, 7t3 888,607 45,664 994,848 697,010 810,425

Total for New York . Bergen County, N. J

Total.

Albany

Columbia

Dutchess

Greene

Orange

Rensselaer...

Rockland

Ulster

Westchester .

Total for New York . Bergen county, N. J

Total

Mineral Besoubges.

Prices.

The following tables show the average prices per thousand of the various kinds of brick in 1901 and 1902 by States and Territories:

Average value per thousand of varioua kinda of brick in 1902, by SUUea,

Common Brick.

Hawaii $14. 40

Nevada .'. . 8. 70

Wyoming 8. 56

Delaware 8.28

Washington 7. 87

South Dakota 7. 83

Oron 7. 44

Idaho 7.42

District of Columbia 7. 40

Arizona 7. 30

Oklahoma* 7.20

California 7. 14

Montana 7. 13

Iowa 6.91

North Dakota 6. 90

Rhode Island 6. 88

New Hampshire '. 6.87

Colorado 6.70

Indian Territory 6. 57

Arkansas 1 6. 52

West Viria 6.50

New Mexico 6. 40

Pennsylvania 6. 40

Maine 6.38

Massachusetts 6. 34

Nebraska 6.34

Missouri . . Maryland .

Texas

Virginia . . Wisconsin Louisiana .

Utah.

Kentucky

Mississippi

Ohio

Tennessee

Alabama

Minnesota

Vermont

Michigan

Indiana

Connecticut

Florida

North Carolina.

Kansas

Illinois

New Jersey

Georgia

South Carolina . New York

Front Brick.

Oregon $28.70

Connecticut 23.00

Washington 21. 57

Nevada 20.00

California 19. 56

Massachusetts 19. 07

South Dakota 17. 67

Montana 17. 43

Viinia 16.84

West Virginia 14. 33

District of Columbia 14. 17

Delaware 1 4. 03

Wyoming 1 4. 00

North Dakota 1 3. 40

New York 13.16

Nebraska 13.15

Maryland 13.13

New Jersey 12. 86

Pennsylvania 12. 43

Minnesota 12. 08

Oklahoma 12. 00

Missouri - 11.65

Alabama 1 1 . 63

Illinois 11.48

Indian Territory $11. 24

New Hampshire 10. 87

Iowa 10.76

Texas 10.76

Ohio 10.57

Colorado 10. 53

Tennessee 10.31

Mississippi 10. 21

Idaho 10.00

Louisiana 10. 00

Maine 10. 00

New Mexico 10. 00

Arkansas 9. 13

Wisconsin 9. 10

Geoivia 9.04

Rhode Island 9. 00

Utah 9.00

Kansas 8.91

Indiana 8. 65

North Carolina 8. 42

Kentucky 7. 62

Michigan 7. 53

South Carolina 6. 96

Clay-Woeking Indu8Tbus8.

Vitripied Bbick.

Maine $19.99

Wafihington 15.81

Maryland 15. 51

Montana 16. 00

Kentucky 13.80

Michigan 12. 26

New York 11.93

Colorado 11.67

Alabama 11.00

Tennessee 10. 49

New Jersey 10.29

Louisiana 10.00

North Carolina 10.00

Iowa 9.71

Indiana $9.61

West Virginia 9.56

Pennsylvania 9. 43

Texas 9.23

Illinois 9.22

Rhodelsland 9.10

Arkansas 9.00

Oklahoma 9.00

Ohio 8.80

Missouri 8.72

New Mexico 7. 75

Nebraska 7. 74

Kansas , 7.52

Average value per thousand of various kinds of brick in 1901, by States,

Common Bbick.

Hawaii 115.50

Nevada 8.13

Wyoming 8.12

Idaho 7.93

Delaware 7.90

Washington 7. 76

IMstrict of Columbia 7. 73

South Dakota 7.51

New Hampshire 7.35

New Mexico 7.29

Oklahoma 6.99

Montana 6.90

Arizona 6. 87

Oregon 6.67

Virginia 6.64

Tennessee 6.60

Colorado 6.55

Arkansas 6. 52

Iowa 6.46

California 6. 44

North Dakota 6. 35

Indian Territory 6.29

Texas 6.28

Massachusetts 6. 22

Wisconsin 6. 15

Nebraska 6.13

Pennsylvania |6. 12

Rhode Island 6.00

Maryland 5.96

Maine 5.83

West Virginia 5.81

Mississippi 5. 79

Utah 6.77

Alabama 5.76

Florida 5.76

Missouri 5.76

Illinois 5.58

Ohio 5.57

Minnesota 5. 40

Kentucky 6.36

Geoia 5.32

Louisiana 5.27

Vermont 5. 18

Indiana 5. 14

North Carolina 6. 14

Kansas 5.13

Michigan 5. 07

Connecticut 4. 99

New York 4.87

New Jersey 4. 76

South Carolina 3.78

Mikebal Be8Oub0Es.

Front Brick.

Oregon $23,92

Connecticut 23.00

California 22.82

Washington 21. 14

South Dakota 20.00

New Jersey 16.18

Delaware 16.00

District of Columbia 15. 16

Virginia 15.13

Rhodelsland 15.00

Montana 14. 77

Wyoming 14. 00

New York 13.60

Maryland 13.30

Nebraska 12.53

Pennsylvania 12. 02

Nevada 12.00

Colorado 11.84

Missouri 11. 34

Illinois 10.65

Tennessee 10.53

Georgia 10.46

Iowa 10.04

Indian Territory $10.00

Loaidana 10.00

Minnesota 9.99

Mississippi 9.93

Arkansas 9.60

New Mexico 9.50

Texas 9.42

Idaho 9.26

Kansas 9.16

Oklahoma 8.97

Maine 8.83

Ohio 8.83

Alabama 8.79

Indiana 8.60

Wifloonsin 8.33

New Hampshire 8. 25

North Carolina 8.15

Florida 8.00

Utah 7.98

West Virginia 7.12

South Carolina 7. 07

Michigan 6.76

Kentucky 6.66

Vitrified Brick.

Maine $20.02

Washington 17.90

Maryland 15.00

Colorado 13.00

Kentucky 12.71

Michigan 12.30

California 12.00

New York 11.46

Alabama 11.00

Indiana 10.18

Tennessee 10.13

Arkansas 10.00

North Carolina 10.00

Iowa $9.93

New Jersey 9. 78

Pennsylvania 9.12

Illinois 9.03

West Virginia 8.84

Missouri 8. 71

Texas 8.70

Ohio 8.21

Geoiigia 7.69

Kansas 7.53

Wisconsin 7. 50

Nebraska 7.31

New Mexico 7.00

Hawaii again leada in the avei-age price per thousand' received for common brick, the price being $14.40, as compared with $15.50 in 1901; Nevada is again second, with an average of $8.70 per thousand, as compared with $8.13 in 1901. The far Western States monopolize the prices which range above $7 per thousand, except Delaware and the District of Columbia, where the average price per thousand was $8.28 and $7.40, respectively. New York, South Oarolina, and New Jersey vie with each other as to which can produce the cheapest brick. In 1902 New York took the lead, where the average price was $4.73 per thousand, while in South Carolina the average price was $4.76 per thousand. In 1901 the lowest priced brick were made in South Carolina, and were valued at $3.78 per thousand, while in New Jersey in that year they were valued at $4.76 and in New York at $4.87 per thousand. The State in which the product was nearest in 1902 the general average ($5.77) was Mississippi, where it was $5.79 per thousand.

CLAY-WOBiaNO INDUSTRIES. 733

The front brick ranged in value from $28.70 per thousand in Oregon to $6.96 per thousand in South Carolina, Alabama coming nearest to the general average of $11.60, the average in that State being $11.63 per thousand. In 1901 the range was from $23.92 in Oregon to $6.66 in Kentucky.

The vitrified brick ranged in value from $19.99 per thousand in Maine to $7.52 per thousand in Kansas. In 1901 the prices varied from $20.02 in Maine to $7 per thousand in New Mexico.

Pottery. Introduction.

That the year 1902 was another exceedingly prosperous year among the potters of the United States is shown most conclusively by the following tables, which record the largest sales ever made by the American pottery trade, the total value of the output being $24,127,453, an increase of $1,663,593, or 7.41 per cent. This gain, however, was not as large as that of 1901 over 1900, which was $2,665,290, or 13.46 per cent. If this rate of increase had been maintained in 1902 the total value of the pottery products would have been $25,487,496. This proportional decrease may have been caused by the high cost and scarcity of fuel during the latter part of the year because of the great strike in the anthracite region of Pennsylvania.

During the year 1902 there were many new pottery plants projected, but they were not in most cases completed in time to be factors in the market during that year. In 1903, however, they are expected to make quite an increase in the product reported.

It should be gratifying to the potters of this country to know that the proportion of domestic pottery to the total consumption is steadily growing, reaching the highest point in 1902, when of the entire consumption 72.91 per cent was of domestic manufacture.

Mineral Re80Ttbce8.

Production.

The following tables show the value of the pottery products of the United States, by varieties of products by States, in 1901 and 1902:

Value of pottery products of the United States in 190 by States.

Plain.

State.

Red earthenware.

Stoneware.

Yellownd ware.

C. C. ware.

White granite

semiporce-

Iain ware and

semiyitreous

porcelain

ware.

Alftbaniiv

California

Colorado

Connecticut

District of Columbia

Florida

Georgia

Illinois

Indiana

Iowa

'

Kansas

Kentucky . .

Maine .. ..

Maryland

2T3

Manachusetts

Michiean

Minnesota

Mlflsouil

Montana

New Hampshire

New Jersey

New York

North. Carolina

Ohio

Pennsylvani'i

South Carolin i

Tennessee

Utah

Virginia

Wisconsin

Other States

Total plain

Decorated.

Maryland

New Jersey

New York

Ohio

Pennsylvania . West Virginia. Other States'..

Total decorated

Grand total

Per cent of total clay products

Per cent of pottery products

sas,422

a Yellow and rockingham ware for Alabama included in Alabama miscellaneous.

b Included in Other States.

e Yellow and rockingham ware for Maryland, Mississippi, Missouri, and New Jersey is included in the miscellaneous column of each of these States.

dC. C. ware for Massachusetts and Texas is included in the miscellaneous column of each of these States.

Includes all products made by less than three producers in one State, in order that the operations of individual establishments may not be disclosed. The total of other States (plain pottery) Is distributed among the States to which it belongs, in order that they may be fully xepreeentod in the totals.

/ C. C. ware for West Virginia included in West Virginia miscellaneous.

Clay-Working Industbies.

Valus of pottery products of the United Stales in 1902 y

Plain.

r Continued.

state.

China.

Sanitary ware.

Porcelain electrical supplies.

Miscellaneous, a

Total.

Alabama

Arkansas

California

Colorado . . .

Connecticut

District of Columbia

Florida

Geoivia . . - -

Illinoia

Indiana

Iowa

Kansas

Kentucky

Maine

Maryland

Massachusetts

Michiiran

Minnesota

Miffiissippi

Missouri

Montana

New Hampshire

New Jersey

New York

North Carolina

Ohio

d93,097

Pennsylvania

South Carolina . .

Tennessee

Texas

Utah

Virginia

Washington

West Virginia

Wisconsin

Other States

Total plain

Decorated.

Illinois

Maryland

New Jersey

New York

Ohio

Other Statese

Total decorated

i 630, 681 1,219, 293

Grand total

Per cent of total clay products

Per cent of pottery products

a Including art and chemical pottery, faience, flemish ware, grueby pottery; porcelain casters, filter tubes, door and shutter knobs, shuttle eyes and thread guides; porcelain hardware trimmings, lettuce-leaf ware, pins, stilts and spurs for potters' use, terra vitrea, tobacco pipes, toy marbles, wash boards, white earthenware, and wiiite-lined earthenware.

6 Sanitary ware for California included in California miscellaneous.

o Included in Other States.

Includes all products made by leas than three producers in one State, in order that the operations of individual establishments may not be disclosed. The total of other States (plain pottery) is distributed among the States to which it belongs, in order that they may be fully represented in the totals.

/Made up of State totals of Florida, Kansas, Louisiana. Maine, Montana, New Hampshire, and Oregon.

0 Including bone china, delft, and belleek ware, valued at $61,801, made In New Jersey alone.

A Decorated china for Ohio included in Ohio miscellaneous.

i Made up of State totals of Colorado, Connecticut, District of Columbia, Florida, Indiana, Louisiana, Massachusetts, Minnesota, Missouri, New Hampshire, and Wisconsin in order to prevent disclosing the operations of individual establishments.

i Including decorated bone china, del ft, and belleek ware, valued at $89,589. made in New Jersey alone.

A Includes the total ($90,840) oi bone china, delft, and belleek ware, which was made in New Jersey alone.

Mineral Be80Ubces.

VcUue of pottery products of the United States in 1901, by Staiea,

Plain.

state.

Red earthenware.

Stoneware.

rockingham

ware.

C.Care.

White

granite

andsemiporoelain

ware.

SemlTitreoos porcelain ware.

Alabama

California

Colorado

Connecticut

District of Columbia

Florida

Georgia

W

'

Indiana

Iowa

Kaniw?

Kentucky

Louisiana

Maine

Maryland

Massachusetts

Michigan

Minnesota

Mimimripni

Missouri!

Montana

New Hampshire

New Jersey

1&,233 2,995

New York

North Carolina

Ohio

Oregon

Pennsylvania

tiouth Carolina

Tennessee

Texas %

Utah

Virginia

West Virginia

Wisconsin

Other States d

Total plain

Decorated.

California

Maryland

Massachusetts

New Jersey

New York

Ohio

Pennsylvania

West Virginia

Other States

Total decorated

Grand total

Per cent of total clay products

Per cent of pottery products

a Included in Other States.

6 Red earthenware for Arkansas included in Arkansas miscellaneous.

c Stoneware for Iowa included in Iowa mlscellaneouB.

d Includes all products made by less than three producers in one State, in order that the operations of individual establishments may not be disclosed. The total of other States (plain pottery) is distributed among the States to which it belongs, in order that thev may be fully representCNl in the total

e Yellow and rocklngham ware for New Jersey included in New Jersey miscellaneous.

/Red earthenware for Washington Included in Washington miscellaneous.

(7 Decorated earthenware for Massachusetts included in Massachusetts miscellaneous.

ft Decorated yeUow and rockingham ware for Ohio included in Ohio miacellaneous.

Olay-Wobkin0 1Ndu8Tbieb.

Value of pottery products of the United States in 1901 y by States — Continued.

Plain.

State.

Bone chi na, delft,

and belleek ware.

Sanitaryware.

Porcelain electrical supplies.

Miscellaneous, a

Total.

Alabama

Arkansafl

California

CSolorado

Connecticut

District of Columbia

Florida

Qeorvia

Illinois

Indiana r

Iowa

Kanmii . ... -r - -

Tjouifllana ,--,,-,,- ,, ,

Maine

Maryland

Massachnsette . .

Michigan

Minnesota . .

Mississippi

Missonn

Montana

New Hampibire

New Jersey

*""325,'664'

New York

North Carolina

Ohio

Pennsrlvania

South Carolina

Tennessee

Texas . . .

Utah

Virginia

Washington

Wisconsin

Other States

Total plain

Decorated.

California

Maryland

Massachusetts

New Jersey

New York

Ohio

Pennsylvania

West Virginia

Other States*

Total decorated

Grand total

Per cent of total clay products

Per cent of pottery products

a Indludlng art and chemical pottery, casters, cuspidors, enameled earthenware and terra cotta, faience ware, flemish ware, Jarainiers and pedestals, lead pots, pins, stilts and spurs for potters' use; porcelain door, picture, and shutter knobs; porcelain filter tubes, shuttle eves and thread guides; porcelain hardware trimmings, tobacco pipes, toy marbles, umbrella stands, washboards, white earthenware, and white-lined earthenware.

b Included in Other States.

d Sanitary ware for Texas included in Texas miscellaneous.

e Includes all products made by less than three producers in one State, in order that the operations of individual establishments may not be disclosed. The total of other States (plain pottery) Is distributed among the States to which it belongs, in order that they mav be fully represented in the total.

/Made up of State totals of Florida, Kansas, Maine, Montana, New Hampshire, Oregon, and Utah.

0 Decorated bonechina, delft, and belleek ware for New Jersey included in New Jersey miscellaneous.

A Decorated china for New York included in New York miscellaneous.

'Made up of State totals of Alabama, Connecticut, Florida, Illinois, Indiana. Iowa, Kentucky, Louisiana, Minnesota, Missouri, New Hampshire, North Carolina, Oregon, South Carolina, Texas, and Wisconsin, in order to prevent the disclosure of the operations of individual establlshmentd.

M R 1902 47

Mineral Besoubces.

These tables show that while the pottery industry was in a hifihly prosperous condition in 1902, the gain in that year was not so great as in the preceding year, the gains being $2,666,290 in 1901, or 13.46 per cent, and $1,663,593 in 1902, or 7.41 per cent.

As in previous years the white ware, principally for domestic use, composes by far the larger part of the pottery produced in this country, though the commoner grades, such as earthenware and stoneware, have a more general geographical distribution. The following table gives the value of the pottery products, by States, and of the plain and decorated ware made in each State, for 1901 and 1902:

Value of the poUery products of the United States in 1902, hy Slates.

Slate.

Plain. Decorated. Total.

Alabama

Arkansas

California ,

Colorado

Connecticut

District of Colnmbiii .

Florida

Georgia

niinolfl

Indiana

Iowa

Kansas

Kentucky

Louisiana

Maine

Maryland

Michigan

Minnesota

Missiffiippi

Missouri

Montana

New Hampshire

New Jersey

New York

North Carolina

Ohio

Oregon

Pennsylvania

South Carolina

Tennessee

Texas

Utah

Virginia

Washington

West Virginia

Wisconsin

Other States

Total ,

Per cent of total

9,450 6l,e07 21,286 66,647 8,697

S 799, 648

l,n6,266 16,606 60,696 5,760 8,991 13,864 1,166,464 12,286 88,162

a Inchidod in Other States.

h Inchides all products made by less than three producers in one State, in order that the operations of individual establishments may not be diacloeea.

OLAY-WOBKING INDU8TBIES. Value of the pottery products of the United States in 1901, by States,

state.

Plain.

Decorated.

Total.

Alabama

Arkansas

California

Colorado

Connecticut

District of Columbia. .

Florida

Georgia

Illinois

Indiana

Iowa

Kansas

Kentucky

Louisiana

Maine

Maryland

Massachusetts

Michigan ,

Minnesota

Mississippi

Missoun

Montana

New Jersey

New York

North Carolina

Ohio

Oregon

Pennsylvania

South Carolina

Tennessee

Texas

Utah

Virginia

Washington — —

West Virginia

Wisconsin

t50 '5,"966"

1M,697 1,880

m,480 210,610

<18,862 11,405 83,484 26,700 91,200 12,879

Total 14,126jl82

Per cent of total

a Included in Other States.

b Includes all products made by less than three producers in one State, in order that the operations of individual establishments may not be discloeeo.

It will be seen that while decorated ware is reported from nineteen States, in only eleven was the product valued at more than $10,000. In 1901 twenty-four States reported decorated ware, out of which only nine reported a product valued at over $10,000. The total value of this variety of ware in 1902 was $8,699,439, or 36.06 per cent of the total, while in 1901 it was valued at $8,338,678, or 37.12 per cent of the total. New Jersey, Ohio, Pennsylvania, and West Virginia were, as heretofore, the leading producing States. These States produced decorated were valued at $7,857,043, or 90.32 per cent of the total. In 1901 these States produced 92.16 per cent of the total decorated ware, or to the value of $7,685,033.

Minebal Besouboes.

It will be seen that the plain ware aggregated $15,428,014, or 63.94 per cent of the total, and the decorated J58,699,439, or 36.06 per cent of the total. In 1901 these percentages were 62.88 and 37.12, respectively. This was a gain in the value of plain ware of $1,302,832, or 9.22 per cent. The value of the decorated ware increased from $8,338,678 in 1901 to $8,699,439 in 1902, a gain of $360,761, or 4.33 per cent. In 1900 these values were, plain, $13,392,770, or 67.65 per cent of the total, and, decorated, $6,405,800, or 32.35 per cent.

The separation of the products into plain and decorated ware is not as satisfactory as it might be, owing to the fact that there are fewer than three producers of the several varieties in many of the States, thus making it necessary to combine the products in order to prevent the disclosing of individual returns.

The following table shows the value of the pottery products in the United States, by varieties, decorated and plain, in 1902 and 1901:

Value of pottery jyroducU in the United States in by varieties.

Plain.

Total.

Number of producers.

Percental of pottery product.

Red earthenware

S120,8S5

Stoneware

Yellow or rockingham ware

C. C. ware

&26

White granite, semiporcelain, and nemlvitreonfl iMircelafn ware

China

Bone china, delft, and belleek ware ... Sanitary ware

Porcelain electrical supplies

Miscellaneous a

Total

Per cent of total

a Including art and chemical pottery, faience, flemish ware; grueby pottery; porcelain casters; filter tubes; door and shutter knobs; shuttle eyes and thread guides; porcelain hardware trimmings, lettuce leaf ware, pins, stilts, and spurs for potters' use, terra vltrea, tobacco pipes, toy marbles; washboards, white earthenware, and white-lined earthenware.

It will be noticed that the figures given here do not quite agree with those given on preceding pages. This is accounted for by the fact that in the former table it was necessary to combine some of the products in order to prevent disclosing individual returns. The figures given in this table, however, are accurate and represent the actual value of these varieties of pottery in the United States, as reported to this office, though the figures given in the former table are as accurate as can be given for the State totals. It appears from this table that 63.94 per cent of the pottery products was plain ware and 36.06 per cent decorated. In 1901 62.88 per cent of the product was plain and 37.12 per cent decorated.

Olat-Wobking Industries. 741

The product of greatest value was the white granite and seraivitreouH porcelain ware, which was valued at $10,555,214 as compared with $10,171,435 in 1901, a gain of $383,779, or 3.77 per cent. In 1902 this product was 43. 75 per cent of the total pottery products, and in 1901 it was 45.28 per cent of the total. The product of next greatest value is that of sanitary ware, which was valued at $3,560,662, or 14.76 per cent of the total, and which was closely followed by stoneware, valued at $3,172,236, or 13.15 per cent of the total. The china-ware product shows a slight falling off of from $1,353,828 in 1901 to $1,222,435 in 1902. The number of producers reporting sanitary ware increased from 19 in 1901 to 31 in 1902.

The white ware, including that made for sanitary purposes (which is of a white body), and porcelain electrical supplies, aggregated $18,773,705, or 77.81 per cent of the total. In 1901 it was valued at $17,252,464, or 76.80 per cent of the total. The yellow or rockingham ware, which for seveml years prior to 1901 showed a decrease, but in 1901 showed an increase, fell off again from $308,600 in 1901 to $250,270 in 1902, a loss of $58,330, or 18.90 per cent. The stoneware product, although reported from the largest number of States (red earthenware excepted), and by more operators — 245 — is, nevertheless, relatively one of minor importance. The product in 1902 was valued at $3,172,235, or 13.15 per cent of the total, as compared with $2,648,426, or 11.79 per cent, in 1901, a gain of $523,809, or 19.78 per cent. The number of firms reporting these various wares is interesting, ranging from 4 reporting bone china, delft, and belleek ware, a gain of one over 1901, to 245 reporting stoneware, a decrease of 21 since 1901. The number of firms reporting china and white granite was 10 and 60 for each of the years 1901 and 1902. There is no footing to the column for the reason that its addition would not be the number of operating firms, since many operators report several varieties of ware.

Mineral Besouboes.

Rank Of States.

The following tables show the rank of States in the production of pottery, together with the value of the product of each State, the percentage of the total product made by each State in 1901 and 1902, and the number of firms reporting in each State:

Rank of Stales and output of pottery products in 190.

Rank.

State.

Number of firms reporting.

Ohio

New Jersey

Pennsylvania

West Virginia

New York

Illinois

Indiana

Maryland

Minnesota

Massachusetts ,

Kentncky

Connecticut ,

Texas ,

Michigan.

Missouri

California

Tennessee

Iowa

Colorado

Alabama

Georgia

South Carolina

North Carolina :

Mississippi

Washington

Wisconsin

Arkansas

District of Columbia

Utah

Virginia

Florida, Kansas, Louisiana, Maine, Montana, New Hampshire, and Oregon

Total

Value.

Per cent of total product.

Olat-Wobking Industbies.

Rank of States and output of pottery products in 1901.

Rank.

State.

Ohio

New Jersey

Pennaylvania

New York

Weat Virginia

Illinola

Indiana

Maryland

Minnesota

Kentucky

Texas :

Missouri

Tennessee

Michigan

California

Iowa

North CaroHna

A labama ,

Washington

Geoigia

Wisconsin

District of Columbia

South Carolina

Arkansas

Mississippi

Virginia

Louisiana

Florida. Kansas, Maine, Montana, New Hampshire, Oregon, and Utah

otal

Number of firms reporting.

Value.

1,

Pep cent of total product.

.p5

Ohio continues to lead in the pottery industry, both as to number of producers and value of product, producing ware valued at $10,619,138, or 43.60 per cent of the total. In 1901 her product was valued at $10,048,561, or 44.73 per cent of the total. This was a gain of $470,577, or 4.68 per cent. New Jersey, Pennsylvania, and West Virginia hold second, third, and fourth places, respectively. West Virginia displacing New York, which has fallen to fifth place. New Jersey's output increased in value from $5,900,073, or 26.26 per cent of the whole, in 1901 to $6,192,969, or 26.67 per cent of the total, in 1902, an increase of $292,886, or 4.96 per cent. Pennsylvania also showed an increase from $1,666,012, or 7.41 per cent of the total, in 1901 to $1,876,265, or 7.78 per cent of the total, in 1902, a gain of $211,263, or 12.69 per cent. West Virginia's product increased in value from $858,642, or 3.82 per cent of the total, in 1901 to $1,166,464,

inBBAL BESOUBOBS.

or 4.83 per cent of the total, in 1902, a gain of $307,822, or 35.85 per cent. The first five States produced ware worth $20,684,257, or 85.73 per cent of the total, and the output of the first 10 States was valued at $23,230,435, or 96.29 per cent of the total.

The following table gives the number of potteries reporting during the years from 1899 to 1902, inclusive, showing those idle and those operating:

Number of operating and idle potteries in the United States reporting in 1899, 1900, 1901,

and 1902.

State.

X&quot;&quot;

Idle.

Total.

Operating.

Idle.

Total.

Idle.

Total.

Alabama

H

fe

%

California

Colorado

Connecticut

District of Columbia Florida

Georgia

Idaho

Iowa

KanM8 r

Kentucky

Louisiana

Maine

Maryland

Michigan

Minnesota

Miaaiflaippi

Montana

Nebraska

New Hampshire

New Jersey

New York

North Carolina

Ohio

Oregon

Pennsylvania

South Carolina

Tennessee

ntah

Virginia

Washington

West Virginia

Wisconsin . . . . ,

Other States

The total number of potteries reporting decreased from 682 in 1901 to 567 in 1902. It will be noted that this decrease occurred mostly in the unimportant States, generally in the South, and while the important States show slight increases, the total decrease would have been less but for the fact that the combination of potteries in some of the leading States resulted in a smaller number of reports, though in the higher grades of ware the number of plants represented in these figures is undoubtedly larger than ever before.

Clay-Working Indubtbies.

Trenton, N. J., And East Mverpool, Ohio.

In the following tables will be found statements of the pottery products of Trenton, N. J., and East Liverpool, Ohio, in 1901 and 1902, the great pottery centers of the country.

Value of pottery products of Trenton, N. J., and East Liverpool, Ohio, in 1902.

Product.

Trenton.

East Liverpool.

Total.

Yellow and rockingham ware

C. C. ware

White granite, semiporcelain, and semlyltreous porcelain ware. China '

Bone china delft, and belleek ware.

Sanitary ware

Porcelain electrical supplies

Miscellaneous ft

Totol

Per cent of total pottery product.

a In order to prevent disclosing the operations of individual establishments the value of china for East Liveroool is included in East Liverpool miscellaneous.

b Including stilts, pins, and .spurs for potters' use, porcelain casters, and porcelain door and shutter knobs.

Value of pottery products of Trenton, N. J., and East Liverpool, Ohio, in 1901.

Product.

Yellow and rockl ngham ware

C. C. ware

White granite, semiporcelain, and semi vitreous porcelain ware. China

Bone china, delft, and belleek ware .

Sanitary ware

Porcelain electrical supplies , . . .

Miscellaneous ft

Total

Per cent of total pottery product. .

Trenton.

S448,455 1,711,226 660,948 270,696 1,788,030 339,279 106,060

East Liverpool.

e6S3,663

Total.

included in miscellaneous in order to prevent disclosing the operations of individual establishments. b Including stilts, pins, and spurs for potters' use. porcelain casters and door knobs, and toy marbles, e Also includes yellow and rockingham ware, cmna, and porcelain electrical supplies.

The great equality in the value of the product of these two centers noted in previous years continued in 1902, although the lead of Trenton in that year was greater than in 1901, when they were practically equal, there being only $13,036 difference in value of the product of the two places. The value of the products reported from Trenton in 1902 was $5,697,411, and those reported from East Liverpool were valued at $5,696,213, a difference of $101,198, or 1.81 per cent in favor of Trenton as against East Liverpool. The percentage of the total pottery products made by these cities was, for Trenton, 23.61; for East

Ic

Liverpool, 23.20, or 46.81 per cent of the total pottery products being made in these two cities alone. The value of the products made in these two cities, $11,293,624, which is practically all white ware, is 60.16 per cent of the total of the white-ware products of the entire United States. Of the total pottery of New Jersey, which was valued at $6,192,959, or 25.67 per cent of the total for the United States, Trenton produced $5,697,411, or 92 per cent, and East Liverpool produced 53.20 per cent of Ohio's pottery products. Trenton makes no yellow nor rockingham ware; East Liverpool makes no sanitary ware. While sanitary and white granite are Trenton's chief products, C. C. and white granite are East Liverpool's leading products, the latter being about 75 per cent of Blast Liverpool's entire output,

Consumption.

The gradual increase in the percentage of domestic ware consumed, noted in previous reports, continued in 1902, when the home product was 72.91 per cent of the consumption as compared with 71.39 per cent in 1901, 70.75 per cent in 1900, 69.99 per cent in 1899, and 68.49 per cent in 1898. The imports of pottery in 1902 were valued at $9,570,534 and the exports of domestic ware for the same period were valued at $604,646, of which the earthenware and stoneware were valued at $555,340, or 91.85 per cent, and the china exported was valued at $49,306, or 8.15 per cent. To arrive at the consumption, however, these exports should be deducted, which would leave the net imports at $8,965,888, and this, added to the domestic product of $24,127,453. makes a total consumption of $33,093,341.

Production.

In the following tables will be found statistics of the production of clay in 1901 and 1902. In compiling these figures only the clay sold by the miner has been considered, that which is manufactured by the producer not being taken into account.

As in other branches of the mining industry, the field work was done in cooperation with the Census Office. For census purposes only those operators whose principal business is the mining, preparation, and sale of clay were considered clay miners. Hence the considerable quantity of clay sold by those whose principal business is the manufacture of clay products is not included in the tables for 1902 which follow:

Clat-Wobkin0 Ikdustkies.

Production and mlue of day in the United States in 190e, by States. [Quantity in tons of 2,000 pounds.]

Kaolin.

Ball clay.

State.

Raw.

Prepared.

Raw.

Prepared.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Quantity. Value.

Alabama

California

Colorado

Connecticut

Delaware

Georgia

Kentucky

Maryland . . . . t

New Jersey

New York

Ohioo

South Carolina

Tennessee

Texas

West Virginia

Wisconsin

Other Statead

Total

Fire clay.

Stoneware clay.

State.

Raw.

Prepared.

Ra

w.

Prepared.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Alabama.

California

Colorado

Connecticut b

Delaware

Georgia

Illinois

Kentucky.

Maryland

Missouri

New Jersev

New York

Pennsylvania

South Carolina

Tennessee.

Texas

West Virginia

'£.

Other

Total

a Included in Other States.

b Including Florida, Indiana, Massachusetts, Michigan, North Carolina, Utah, Vermont, and Washington.

cin miscellaneons raw clay for Ohio is included 7,120 tons of sand, valued at $9,320.

d Includes all products made by less than three producers in one State, in order that the operations of indivldnal establishments may not be disclosed.

Mikebal Resotjboes.

Production and value of day in (he United States in 190£, by States— Continued.

Miscellaneous, a

Total.

State.

Raw.

Prepared.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value,

Alabama

California

Colorado

Delaware

Georgia

Illinois

Kentucky

Maryland

Mlaeourl

New Jersey

d82,0Q7

d26,636

New York

Ohio 0

Pennsylvania

South Carolina

Tennessee

Texas

West Virginia

Wi*MyTifdn

Other States*

Total

a Including brick clay, pipe clay, slip clay, terra-cotta clay, and wad clay.

b Including Florida, Indiana, Massachusetts, Michigan, North Oaxollna, Utah. Vermont, and Washington.

o In miscellaneous raw clay for Ohio is Included 7,120 tons of sand, valued at $9,820.

Includes all products made by less than three producers in one State, in order that the operations of individual establishments may not be disclosed.

/The total of Other States is distributed among the States to which it belongs, in order that they may be fully represented in the totals.

Olat-Wobking Industbie8.

Production and value of day in the United States in 1901, by States, [Quantity in tons of 2,000 pounda]

Kaolin.

Ball clay.

State.

Raw.

Prepared.

Raw.

Prepared.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Colorado

Delaware

Georgia

niinoii

Tndiana

Maryland

Maamchuaetts

Mlasourl

Montana

New Jersey

New York

North Carolina

Ohio

Pennsylvania

South Carolina

Tennessee

Texas

West Virginia

Wisconsin

Other States*

Total

a Included in Other States.

Including Connecticut. Florida, Michigan, New Hampshire, North Dakota, Oregon, Utah, Vermont, Virginia, and Washington.

o Prepared ball clay for New Jersey included in New Jersey miscellaneous.

(iRaw kaolin for New York included in New York miscellaneous.

Including all products made by less than three operators in one State, in order that the operations of individual establishments may not be disclosed.

Ic

Mineral Resources.

Production and value of day in the United Stales in 1901, by JState$ — Continaed. [Quantity in tons of 2,000 pounds.]

Fire clay.

Stoneware clay.

State.

Raw.

Prepared.

Raw.

Prepared.

Quantity. Value.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Alahama. T- X-, - - --

S13,286

Arizona 6

California

Ielaware

Georgia

Illinois

TndianA r r - -

Kentucky.

Maryland

Missouri

Montana

New Jersey

New York

North Carolina

Ohio

Pennsylvania

South Carolina

Tennemf -r

Texas . . .

West Virginia

Wisconsin

Other States'

Total

a Included in Other States.

Mncluding Connecticut. Florida, Michigan, New Hampshire, North Dakota, Oregon, Utah, Vermont, Virginia, and Washington.

c Prepared fire clay for Delaware Included in Delaware miscellaneous.

dRaw fire clay for West Virginia included in West Virginia miscellaneous.

Including all products made hy less than three operators in one State, in order that the operar tions of individual estabUshmento may not be disclosed.

Ic

Clay-Wobking Industries. 751

Production and value of day in the United States in 1901, by States — Continuetl. [Quantity in tons of 2,000 pounds.]

Miscellaneous, a

Total.

State.

Raw.

Prepared.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

A ifthftma . r --

Arizona h

Calilomia

Colorado

Delaware

Georgia

Illinois

Indiana

Kentucky

Maryland

Massachusetts

Missouri

Montana

rf7,360

rf88.908

New Jersey

New York

North Carolina

Ohio -

Pennsylvania

South Carolina

Tennessee

Texas. rr-r- ,T-,-T-

West Virginia

/lOO

Wisconsin

Other Statesff

Total

a Including brick clay, clay for boiler covering and wall paper, pipeclay, paper clay, silica clay, slip clay, and terra-cotta clay.

Including Connecticut, Florida, Michigan, New Hampshire, North Dakota, Oregon, Utah, Vermont, Virginia, and Washington.

o Includes prepared fire clay for Delaware.

Includes prepared ball clay for New Jersey.

e Includes 1,600 tons of Albany slip clay valued at $6,000; also includes raw kaolin for New York.

/Includes raw fire clay for West Virginia.

g Including all products made by less than three operators in one State, in order that the operations of individual establishments may not be disclosed.

A The total of Other States is distributed among the States to which it belongs, in order that they may be fully represented in the totals.

From these tables it will be seen that the total production of clay increased from 1,367,170 short tons in 1901 to 1,455,357 short tons in 1902, a gain of 88,187 tons, or 6.45 per cent, and that the value of the product decreased from $2,576,932 in 1901 to $2,061,072 in 1902, a loss of $515,860, or 20.02 per cent.

In addition to the foregoing figures for 1902, there were sold by clayworkers in a raw or prepared condition (but unbumed) 265,884 short tons of clay, valued at $510,394. As cliy of this kind has been included in the statistics of the production of clay, as published by this office in previous years, these figures should be added for comparative purposes to those given in the foregoing table for 1902, so that the total should be 1,721,241 short tons, valued at $2,571,466. In 1901 the

Ic

Minebal Bes0Ubge8.

product was 1,367,170 tons valued at $2,576,932. There was, therefore, an increase in 1902 of 364,071 tons, or 25.90 per cent, in output, but a decrease of $5,466, or a little over one-fifth of 1 per cent, in value. As in 1901, New Jersey is the leading clay-mining State, producing 494,800 tons, or 34 per cent of the total, valued at $612,721, or 29.73 per cent of the total; in 1901 its product was valued at $594,894, or 23.09 per cent of the total. Pennsylvania is again second, with a product of 161,546 tons, valued at $288,811, or 14.01 per cent of the total value. In 1901 Pennsylvania's product was valued at $333,431, or 12.94 per cent of the totieil.

Production and value of day in the United Stales in 190Sy by varieties.

Raw.

Prepared. Total.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Kaolin

ShoH ions. 65,470 20,627 152,364 4,432 9,195

Short VoM. 123,813 60,527

Ball

pire

Mificellaneoiw

Total

a In miscellaneous raw clay are included 89,157 tons of sand, valued at $35,956. Production and value of day in the United States in 1901 by varieties.

Raw.

Prepared.

Total.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Kaolin

Short tons. 37,456 21,008

ShoH tons. 59,797

ShoH tons. 97,253 21,008

Ball

Fire

Stoneware

Miscellaneous

Total

a Included in miscellaneous.

It will be seen from these tables that of the total production of 1,455,357 short tons of clay mined in 1902, 1,203,369 tons, or 82,69 per cent, were sold without any preparation whatever after mining, and 251,988 short tons, or 17.31 per cent, were washed, ground, or prepared in some other manner at the mine.

Olay-Woekikg Indu8Tbies.

Imports.

In the following tables will be found a statement of the clay and the products of clay imported into the United States in recent years:

Clamfied imports of day, 1886-190S.

Calendar year.

Kaolin or china clay.

All other clays.

Unwrooght.

Quantity.

Value.

Wrought

Common blue.

Q°- value.

Total.

Long

iOM.

10,026 16,590 28,486 18,150 19,843 29,923 89,901 49,468 49,718 62,716 75,447 76,718 71,988 85,586 92,521 Ul,960 117,756 138,062

Long

tons.

Long Umt.

Long tons.

t29,839 20,730 22,287 53,245 64,971 29,148 66,482 64,818 67,280 60,786 60,775 56,701 68,282 24,959 31,948 45,431 75,721 47,093

tons,

M B 1902 48

Mineral B£Soubcks.

Value of earthenware china, brick, and tile imported and entered for conewnpHon in the

United Slates, 1867-1902,

Year ending-

Jane 80—

December 81—

Brown earthen

and

common

stone

ware.

China and porcelain, not decorated.

China and porcelain, decorated.

Other earthen, Rtone, or crockery ware, glazed, etc.

Brick, fire

brick, and

tile.

Total.

5,204,704 5,907,642 6,204,824 6,565,562 6,157,776 8,668,460 9,021,609 8,875,896 7,180,848 10,445,795 9,580,524 8.642,176 7,079,964 8,041,681 8,912,078 9,681,4U 9.806,271

a Not separately claasUled after 1888.

6 Including rocklngham ware.

Olay-Working Ikdu8Tbie8.

Exports.

In the following table will be found a statement of the exports of clay products from the United States from 1895 to 1902, inclusive:

Exports of clay wares of domestic manufacture from the United States j 1896-190X.

Year.

Brick.

Quantity. Value.

Total

Pottery.

Earthen and Btone ware

Grand

total

18Ot.

It will be noted that the exports of brick and tile continue to decline, though the exports of earthenware and stoneware showed an increase in 1902.

Mineral Be80Ub0E8.

CliAY PRODtTCTS IN THE VARIOUS STATES,

The following tables give the statistics of the products of clay, by States, from 1898 to 1902, inclusive, for the more important clayworking States, and will be of interest to those who desire to compare the growth of the industries in these States for several years:

California.

day products of Ocdifomia, 1898-190.

Product.

1B99.

Brick:

Common—

60,166 i85,609 141,880

lSl,Ott,0QD

Value

Aveiaper M

Praased—

Quantity

Value

Average per M

Vitrified—

Value !

Average per M

Fancy or ornamental, value

Ptre value..

Stove lining do

Dralntile do

Sewer pipe do

Ornamental terra ootta..do

Fireproofing do

Tile, not drain do

Pottery:

Earthenware and stoneware value..

yrdiXQ value..

Sanitary ware do. . . .

MiBcellaneouflb do

Total value

Number of operating firms re- *nif

Ranir of flute

u

a Included in miscellaneous.

Mndudes all products not otherwise classified, and those made by less than three produces, in order that the operations of individual establishments may not be disclosed. 0 Including pottery products of Washington and Oregon. d Btove llnuig not separately olasBlfled prior to 1899.

CLAr-WORKING INDUSTRIES. CONNECTICUT AND RHODE ISLAND.

Clay products of CkmneeiAcut and Rhode Island 1898-1902.

Product.

Brick:

Common—

Quantity

Value

AY6ni per M

Prened—

Quantitjr

Value

AyexB per M

Vitrified- Onantitv

Value

A YPTaffA TtAr

Fftncy or ornamental, value

Fire value..

StOYe lining do

Draintile. . . ''o , , r

Sewer uiue do. ...

Fireprooflng do

Tile, not drain do

Pottery:

EarUiemware and b to n e - ware value..

Miscellaneous o do

Total value

Number of operating fimui re-

Bank of Connecticut and Bhode Island

(Included in miscellaneous, b Stove lining not separately classified prior to 1899.

0 Includes all products not otherwise classified, and those made by leas than three producers, in Older that the operations of individual establishments may not be disclosed.

Ic

Minebal Besoubces. Georgia.

Clay products of Georgia 1898-190S.

Product.

Brick:

Gonmion —

Quantity

Value

AvezBcre per M

Praned—

Value

Average per M

Vitrlfied-

Quautity

Value

Average per M

Fancy or ornamental, value

Fire value..

Stove linTig do. . . .

Dralntile do

Sewer pipe do

Ornamental terra ootta . .do

Flreprooflng do

Tile, not drain do

Pottery:

Earthenware and stoneware value..

Yellow and rockingham ware val ue . .

Mifloellaneoustf do

Total value

Number of operating firms reporting

a Included in miscellaneous, b Stove lining not separately classified prior to 1899.

o Includes all products not otherwise classified, and those made by less than three producers, in order that the operations of individual establishments may not be disclosed, d Including pottery for Florida.

OLAY-WORKIKa INDU8TBIE8. ILLINOIS.

products of Illinois, 1898-1909,

nr.

Product.

I8*.

Brick:

Common—

Qnantlty r

Value

AvftTHgf iMr M

Preaed-

Qnantlty

Value

Ayerare pr M . . . . , ,

Vltrifled-

Quantity

Value

Avera per M

Fancy or ornamental, value

Fire value..

DraintUe do

Sewer pipe do

Ornamental terra cotta . .do —

Fireproofing do —

Tile, not drain do —

Pottery:

Earthenware and stoneware value..

Yellow and rockingham are value. .

Semlvitreoufl porcelain ware value. .

Miacellaneoufl e do

Total value

r, 259. 825

Number of operating flmu re- Dortlnff

Rank of State

a Included in miscellaneous. b Included in C. C. and white granite ware.

0 Includes all products not otherwise classified, and those made by less than three producers, in order that the operations of individual esublishments may not be disclosed.

Mineral Be8Oub0E8. Indiana.

Clay produds of Indiana 1898-1909.

Product.

Brick:

Common- Quantity

Value

Preaeed—

Quantity

Value

Average per M

Vitrified—

Quantity

Value

Average per M

Fancy or ornamental, value

Fire value..

Stove lining do

Draintile do —

Sewer pipe do —

Ornamental terra cotta . .do

Fireprooflng do —

Tile, not drain do

Pottery:

Earthenware and stoneware value..

Yellow and rocklngham ware value . .

C. C. and white granite ware value..

Semivitreous porcelain ware value..

Sanitary ware do ... .

Miscellaneous c do

Total value

Number of operating firms reporting

Rank of State

a Included In miscellaneous. Stove lining not separately classified prior to 1899.

0 Includes all products not otherwise classifled, and those made by leas than three producers, in order that the operations of Individual establishments may not be disclosed. Porcelain electrical supplies for Indiana Included with New York. Included in C. C. and wnlte granite ware.

Olay-Wobking Odustbies. Iowa.

Chxy products of Iowa, lS98-190g.

Product

Brick:

Common—

Quantity

Value

Average per M

Preased—

Quantity

Value

Average per M

Quantity ,

Value

Average per M

Fancy or ornamental, value

Fire value..

DraintUe do

Sewer pipe*. do

Ornamental terra cotta. . .do

Tile, not drain do. ...

Pottery:

Earthenware and stoneware value. .

Sanitary ware do. . . .

Miscellaneous 0 do

Total value

Number of operating firms reporting - . . , T .

Rank of State

a Included in miscellaneous, b Stove lininff not separately classified prior to 1899.

o Includes all products not otherwise claaslfled. and those made by less than three producers, in order that the operations of individual establishments may not be disclosed.

Ic

Mineral Besoubces. Kentucky.

Clay products of Kentucky, 1898-190S,

Product.

Brick:

Coxnnion'—

Quantity

Value

Avexage per M

Pressed—

Quantity

Value

Averse per M

Vitrified—

Quantity

Value

Averafie per M

Fancy or ornamental, value

Fire value..' $202,077

Dralntlle do

Sewer pipe do —

Ornamental terra cotta . .do

Flrenroofinur do

Tile, not drain do

Pottery:

Earthenware and stoneware value..

Miscellaneous 0 do

Total value

Number of operating firms reporting

Bank of State

included in miscellaneous. Stove lining, not separately classified prior to 1899.

o Includes all products not otherwise classified, and those made by lean than three prodnoen, in order that the operations of individual establishments may not be disclosed.

Ic

Olay-Wobking Industries.

MARYLAND. Clay products of Maryland y 189S-1902,

Product.

Brick:

Common—

Quantity

Value

A veTAve M

Quantity

Value

A vftTftgft Tiflr M

Vitrified—

Quantity

Value

Average per M . . . . . t . , - -

Fancy or ornamental, value

Fire value..

Stove lining do

Draintlle do

Sewer nine do. . . .

Ornamental terra ootta . .do. . . .

nie, not drain do

Pottery:

Earthenware and stoneware value..

Yellow and rocklngham ware value..

C. C. and white granite ware value..

MiiicellaneouBd do

Total value. ,,,.--,r.

Number of operating firm* re- Dortinsr , - - , . . .

Rank of State

a Included in miscellaneous. h Stove lining not separately olassifled prior to 1899. e Including District of Columbia.

Includes all products not otherwise classified, and those made by less than three producers, in order that the operations of individual establifihments may not be diflclosed.

Ic

Mineral Bes0Ub0E8.

Massachusetts.

CUxy products of MasmchuaetlB, 1898-1909,

Product

Brick:

Common—

Qnantlty

Value

Preesed-

Quantf ty

Value

A vera per M

Vitrified—

Quantity

Value

Averaffe M

Fancy or ornamental, value

Plre value..

Stove lining do —

Dialntlle do

Sewer pipe do

Ornamental terra cotta . .do

Flxeproofing do

Tile, not drain do

Pottery:

Earthenware and Monoware value..

C. C. and white granite ware value..

MIscellaneouBo do

Total value

Number of operating firms re- Dortins:

Ranir of

a Included in mlBcellaneouB. b Stove lining not separately classified prior to 1899.

0 Includes all products not otherwise classified, and those made by leas than three producers, in order that the operations of individual establishments may not be disclosed, d Includes pottery products of Maine.

Olay-Wokking Indu8Teie8. Michigan.

Clay products of Michigan 1898-1903t.

Product.

Brick:

Common—

Quantity

Value

Quantity

Value

AyeRe per M . Vitrified—

Quantity

Value

Itocy or ornamental, value

Fixe value..

Stoye lining do

Draintile do

Sewer pipe do

Ornamental terra ootta . .do. . . .

Flreproofing do

Tile, not drain do

Pottery:

Earthenware and stoneware value..

Miwellaneoun do

Total value.

Number of operating firms reporting

Rank of State

r09,069

a Included in miscellaneous. h Stoye lining not separately classified prior to 1899.

o Includes all products not otherwise classified, and those made by less than three prodilcers, in order that the operations of indiyldual establishments may not be disclosed.

Mineral Resoubges. Minnesota.

Clay products of Minnesota, 1898~190S.

Product.

Brick:

Common—

.

bSS0S,215 158,919

Value

Average per M

Pleased- Quantity

Value

Average per M

Vitrified- Quantity

Value

A vpraire M .

Fancy or ornamental, value

Fir© value..

DralntUe do

Sewer pipe... do

Fireproofing do —

Tile not drain do. . . .

Pottery:

Earthenware and stone- . ware value..

Miacellaneouae do..

Total value

Number of operating firms re- Dortinc

Rank of State

a Included in miacellaneous. Mncluding pottery for Wisconsin.

o Includes all products not otherwise cla.<ified, and those made by less than three producers, in order that the operations of individual establishments may not be disclosed.

Ic

Clay -Working Industb1E8. Missouri.

Clay products of Misgfmrif 1898-190.

Product.

18U9.

Brick:

Common- Quantity

945,114 r88,613 9223,554

Value

Average jier M

Preased—

Quantity

Value

A vprage per Mr,

Vitrified-

Value

Average per M

Fancy or ornamental, value

Fire value...

Stove lining do

Draintile do

Sewer pipe do —

Ornamental terra cotta . .do. . . .

Fireprooflng do

Tile, not drain do

Pottery:

Earthenware and stoneware value...

MlacellaneouBo do

Total value

Number of operating firms reporting

Aank of State

a Stove lining not separately classified prior to 1899. Mncluded in miscellaneous.

Includes all products not otherwise classified, and those made by less than three producers, in Older that the operations of individual establishments may not be disclosed.

Mineral Bksoubgks.

NEW JERSEY. Oay products of New Jersey, 1898-1902,

Product.

Brick:

Common —

Quantity

Value

Pressed—

Quantity

Value

Vitrified—

Quantity

Value

Average perM ,

Fancy or ornamental, value ,

Fire '. value..

Stove lining .do

Drain tile do...,

Sewer pipe do

Ornamental terra cotta . .do. . . .

Fireproofing do...,

Tile, not drain do

Pottery:

Earthenware and stoneware value..

Yellow and rockingham ware value.,

C. C. ware do...

White granite ware . .do. . .

Semivltreous porcelain ware value.,

China do

Bone china, delft, and belleek ware value. ,

Sanitary ware do

Porcelain electrical supplies value..

Miscellaneous 0 do

Total value

Number of operating firms reporting

Rank of State

fl6,852 $519,688

H112 $1,072,585

$U,514 $780,827

a Included in miscellaneous, b Stove lining not separately classified prior to 1899.

0 Includes all products not otherwise classified, and those made by leas than three produce, in order that the operations of individual establishments may not be disclosed, d Includes pottery for New Hampshire. € Also includes enameled brick valued at $177,128. /Also includes enameled biick valued at $202,740.

Clay-Working Industries. New York.

Clay products of New Kor*, 1898-190.

Brick:

Common- Quantity

Value

Average perM

Pleased —

Quantity

Value

Average per M

Vitrified—

Quantity

Value ,

Average per M ,

Fancy or ornamental, value

Fire value..

Stove lining do

Drain tile do

Sewer pipe do —

Ornamental terra cotta . .do

FIreproofing do —

Tile, not drain do

Pottery:

Earthenware and stoneware value. . . .

Yellow and rockingham ware val ue . .

C. C. and white granite arc value..

China do

Sanitary ware do —

Porcelain electrical supplies value. -

Miscellaneous c do

Total value.

19 umber of operating firms reporting

Rank of State

a Included in miscellaneous. b Stove lining not separately classified prior to 1899.

c Includes all products not otherwise classified, and those made by less than three producers, in order that the operations of individual establishments may not be disclosed, d Includes porcelain electrical supplies for Indiana and undecorated china for Ohio.

M R 1902-

Mineral Bes0Ubge8.

Ohio.

Clay products of Ohio, 1898-190g

Product.

Brick:

Common—

Quantity

Value

Quantity

Value

Average perM

Vitrified—

Quantity

Value

Fancy or ornamental, value

Fire value..

Stove lining do —

Draintile do

Sewer pipe do —

Ornamental terra cotta..do.

Fireprooflng do.

Tile, not drain do

Pottery:

Earthenware and stoneware.. value.,

Yellow and rockingham ware value..

C.C. ware do

White granite ware.. do...

SemivitreouB porcelain ware value. .

China do

Sanitary ware do

Porcelain electrical supplies value..

Miscellaneous d do. . .

Total value

Number of operating firms re porting

Rank of State

f6.96

n, 304, 756

f7t884

a$47,155 $1,840,775

a$60,906 $1,287,069

fny7,409

a $47, 876 $1,827,982

a Including enameled brick. b Stove lining not separately classified prior to 1899. e Included in mi-scellaneous.

Includes all products not otherwise classified, and those made by less than three producers, io order that the operations of individual establishments may not be disclosed.

Clay-Wobking Industries.

Pennsylvania.

C2ay producU of Pe/mmflwmia, 1898-1909.

Product

Brick:

Common- Quantity

Value

Average per M

Pressed —

Quantity

Value

Average per M

Vitrified—

Quantity

Value

Average per M

Fancy or ornamental, value..

Fire value..

Stove lining do

Draintile do —

Sewer pipe do —

Ornamental terra cotta . . do —

Fireprooflng do.

Tile, not drain do —

Pottery:

Earthenware and stoneware value.,

Yellow and rockingham ware value..

C. C. ware .do

White granite ware. .do. . .

Sanitary ware do...

Miscellaneous & do

Total value

Number of operating firms reporting

Rank of State

t3, 466, 619

m.97

1 I

a Included in miscellaneous.

& Includes all products not otherwise classified, and those made by less than three producers, in order that the operations of individual establishments may not be disclosed. c Stove lining not separately classified prior to 1899. Also includes enameled brick valued at $57,188.

Mineral Besoubges.

Texas.

Clay products oj Texas, 1898-190S.

Product.

Brick:

Common- Quantity

Value

Average per M

Pressed—

Quantity

Value

Average per M

Vitrified-

Quantity

Value

Average per M

Fancy or ornamental, value

Fire value..

Draintlle do

Sewer pipe do

Flreprooflng do. . . .

Tile, not drain do

Pottery:

Earthenware and stoneware value..

Miscellaneous 6 do

Total value

Number of operating firms reporting

Rank of State

a Included in miscellaneous.

h Includes all products not otherwise classified, and those made by less than three producers, in order that the operations of Individual establishments may not be disclosed.

Ic

Clay- Working Industries.

Virginia.

Clay products of Virginia, 1898-1902.

Product.

Brick:

Common—

3,d92,000 $44,067 $11.94

m, 624, 000

Value

Average per M

Quantity , r ,

Value

Average per M

Vltrifled-

Quantity

Value

A venture M

Fancy or ornamental, value

Fire value..

Draintlle do

Sewer pipe do —

Pottery:

Earthenware and stoneware value..

Miicellaneouaft do. . . .

Total value

Number of operating flrmii reporting

a Included in miBcellaneous.

b Includes all productB not otherwise classifled, and those made by less than three producers, in order that the operations of Individual establishments may not be disclosed.

Ic

Mineral Besouboes.

West Virginia.

Clay products of West Virffinia, 1898-190X,

Product.

Brick:

Common—

Value

A vftrajfe ppr M

Pressed-

Quantity

Value

Average per M

Vitrified—

Quantity . . . .r r

Value

Average per M

Fancy or ornamental, value

Fire value..

Stove llninfiT . ..

Draintile value..

Sewer pipe do. . . .

Flreproofing do

Tile, not drain do —

Pottery:

Earthenware and stoneware value..

C. C. and white granite ware value..

Semivitreous porcelain ware value. .

Sanitary ware do

Miscellaneouflo do —

Total value

Number of operating firms reporting

Rank of State

a Included in miscellaneous. Stove lininff not separately classified prior to 1899.

o Includes all products not otherwise classified, and those made by leas than three producers, in order that the operations of individual establishments may not be disclosed, d Included in whit granite ware.

Ic

0LAY-WottKIit4 li?DtJ8TfilES.

Wisconsin.

ClayproducU of Wisconsin, 1898-1909*

Product

I'm.

Brick:

Quantity

Value

A.yerae per M

Pressed—

Quantity

Value

Average per M

Vitrlfled—

Quantity

Value ... . . .

Avera per M

Fancy or ornamental, value

jire value..

Dralntlle do

Tile, not drain do

Pottery:

Earthenware and stoneware". value..

Miscellaneous 0 do

Total value

Number of operating firms reporting

Rank of State

a Included in miscellaneous. Included with Minnesota.

Includes all products not otherwise classlfled, and those made by less than three producers, in order that the operations of Individual establishments may not be dlscloc ed.

EFFECT OF TANNIN ON CliAYS.

By Hrinrich Biss.

It is well known that the physical characters of a clay are important factors in determining its uses, and that many clays which might otherwise be of high value are often rendered useless because they are deficient in some one or two physical properties. This deficiency is sometimes overcome by mixing in a second clay which contains the desired physical quality developed in a large degree, and with this mixture it is then possible to obtain a material of the proper character, JMany clays are used on account of their plasticity and tensile strength, the high development of these two qualities making them especially ttraJuable as a bonding material for holding together nonplastic particleau An example of this is the use of a very plastic clay with the 'graphite in manufacturing graphite crucibles, the clay being used to bind together the particles of graphite.

During the year 1902 some interesting experiments were made, th object of which was to find some method by which the plastic and

bonding qualities of a refractory clay could be increased to adapt it to crucible naaking. The experiments originated in the laboratory of Mr. E. G. Acheson, who was desirous of finding some highly plastic material to serve as a bond for siloxycon in the manufacture of refractory crucibles. With this end in view, he tried mixing a number of organic substances with clay, among them tannin, which yielded excellent results. He found that a clay mixed with water in which there was dissolved a small quantity of gallo-tannic acid became more plastic, tougher, and stronger, and required much less water to bring it to a given degree of softness or plasticity. Encouraged by the results he obtained, he tested quite a number of substances, among them spruce, sumac, catechu, tea leaves, and oak, by making infusions and wetting the clay therewith. The behavior of all these substances was like that of. the gallo-tannic acid, though in different degrees. After Mr. Acheson had carried on these experiments for a series of months, the writer was asked to make independently a similar series of experiments, which he did, with the results given below.

The material used for treating the clay will be spoken of as a modifying agent, and of the tannins two kinds were employed, namely, gallo-tannic acid and catechu. It was also found, on Mr. Acheson's suggestion, that an emulsion of straw, although containing no tannic acid, produced similar effects.

The clays employed for the tests were the following:

1. Kaolin from the Harris mines, near Dillsboro, N. C. A whitish burning china clay of low plasticity, and one which bums to a rather porous body at moderate temperatures.

2. Kaolin from the Burgess Kaolin Company, at Hockessin, Del. Bums white with a slightly yellowish tinge, lacks in plasticity, and has moderately high air shrinkage.

3. Kaolin from southeastern Pennsylvania (probably South Mountain district). This is a whitish clay of poor plasticity, very low tensile strength, and cracks very badly in drying and burning, no matter what precautions are taken.

4. Ball clay from Florida. Plasticity fair, color white when bumed, but tends to crack if too much is used in a pottery mixture.

5. A No. 1 fire clay from New Jersey. A clay of low tensile strength, but quite sticky and refractory. Cracks badly in drying and burning.

6. A white-burning clay from Georgia. A material of low plasticity and tensile strength, but very refractory.

7. Washed ball clay from Edgar's pits at South Amboy, N. J. This, again, is a clay of low tensile strength, and one which when used alone cracks badly in drying and buming.

8. A retort clay from Berry's pits, at Woodbridge, N. J. Clay of dense buming quality but not high tensile strength.

In all cases a decided improvement was noti<*.eable.

Ic

Cemeistt.&#x27;

Introductiok.

The total production of hydraulic cement in the United States for 1902 was 25,753,604 barrels, an increase of 6,684,767 barrels over the quantity produced during the preceding year. The value of this production was $26,366,380.

Of the entire quantity, 17,230,644 barrels were Portland, valued at 120,864,078; 8,044,306 barrels were natural-rock, valued at $4,076,630, and 478,655 barrels werePozzuolana or slag cement, valued at $426,672.

The growth of the cement industry is indicated by the fact that, although the increase in production for 1901 over 1900 reached the large number of 2,837,687 barrels, the increase in production for 1902 over 1901 was 6,684,767 barrels. It is of interest here to note that in 1892, just ten years ago, the entire production of cement in the United States was but 8,768,621 barrels, of which 8,211,181 barrels were natural-rock and 547,440 barrels were Portland.

PORTIiAKD CEMENT. PRODUCTION.

There was an increase in the production of Portland cement in 1902 of 4,519,419 barrels. During the summer and autumn of the year there was a marked decline in the price of Portland cement in the Eastern States owng to a variety of reasons. This fact did not greatly affect the western production, however, nor was it a very lasting depression. The building of new factories, the enlargement and remodeling of old ones, and the steady and increasing deniand for domestic Portland cement indicate a bright outlook for the future of the industry in this country.

a The entire statistical canvas and compilation of thia report ban been conducted by L. L. Kimball, of the United States Geological Survey.— D. T. D.

Mineral resources.

Following is a table showing the quantity and value of Portland cement produced in each State in 1900, 1901, and 1902:

Production of Portland cement in the United States in 1900 1901, and 1902,

State.

Number of works.

Quantity.

Value, not including packages.

Number of works.

Quantity.

Value, not including packages.

Number of works.

Quantity.

Value, not including packages.

Alabama

.J

Barrels.

M

Callfornlii

Colorado

Geoigla

Illinois

Indiana

KaniwM* - , - - . - r -

Michigan

Missouri

New Jersey

New York

North Dakota ..

d7

' e2

Ohio

Pennsylvania .. South Dakota . .

Texas

Utah

Virginia

Total

a The States combined for 1902 are mentioned in the text. Mncludes product of the single plant in Utah, o Includes product of the only Portland-cement plant in Kansas, d Includes product of the only Portland-cement plant in Virginia, e Includes product of the single plant in South Dakota.

In this table the output in 1902 of the single Portland-cement plant in Alabama is combined with the production of Georgia and Virginia to avoid disclosing individual figures; for like reasons the output of the only Portland-cement plant in Missouri (which in 1902 made simply an experimental run) is included with Kansas and South Dakota, and the output of the single plant in Utah is combined with California. In each case the total figures are placed against the name of that State contributing the largest proportion of the entire amount. The three new States to enter this table for 1902 as producers of Portland cement are Alabama, Georgia, and Missouri. New Mexico is dropped, owing to the fact that the plant in this Territory is definitely abandoned, so far as the cement industry is concerned.

Cement.

Following is a table which shows the growth of the Portland-cement industry since 1890:

Development of the PortUmdemerU indtuiry in the United States since 1890,

Section.

Number of works.

Quantity.

Per cent.

Number of works.

Quantity.

Per cent.

Number of works.

Quantity.

Per cent

Lehigh and Northampton counties. Pa., and Warren County, N. J

Ohio

Michigan

All other sectionK ,

Barrelt, 472,886

Total -

Section.

Number of works.

Quantity.

Per cent.

Lehigh and Northampton counties. Pa., and Wajrren County, N.J

Ohio

Michigan

All other sections

Total

Barrels. 617,228

Pennsylvania continues to hold leading place as a producer of Portland cement, while New Jersey follows in second place. The counties of Lehigh and Northampton, Pa., formerly included all the factories producing Portland cement in the State; now, although they are still the center of that industry, there are 5 plants in other counties, none of them, however, ranking at present among the very large producers. Under all other sections is included the production of Alabama, California, Colorado, Georgia, Illinois, Indiana, Eansas, Missouri, South Dakota, Texas, Utah, and Virginia.

Mineral Resources.

REIiATION OF DOMESTIC PRODUCTION AND TION TO IMPORTS.

Consitmp-

The increase, both in the use and in the production of Portland cement in the United States within the last thirteen years, as compared with natural-rock cement and with imported cement, is shown in the following table:

Comparative production of Portland and of natural-rock cement in the United States and of imports of hydraulic cement 1890-1902,

Year.

Natural cement

Portland cement.

Total of natural and Portland cement.

Imports.

Barrels.

Bcarrda. 7,417,704 8,002.467 8,731,401 10,989,463 15,520,445 16.865,539 19,796,048 25,274,949

Barrets. 1,940,186

This table does not include the production of Pozzuolana or slag cement repoiiied by this Bureau for the last three yeai's, which is as follows: 1900, 366,611 barrels; 1901, 272,689 barrels; 1902, 478,555 barrels.

Following is a diagram showing the growth of the domestic production of Portland cement, the increase of total consumption of Portland cement, and the decline of the imports of foreign hydraulic cements during the last thirteen years:

Cement.

Barrels. 19,500,000

Fig. 1. — Diagram showing relation of domestic production of Portland cement to imports and to total coEuramption of Portland cement in the United States, by years and by barrels, from 1890 to 1902, inclusive.

/

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/

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/

/ y

#

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/

/

If

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f

w

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y

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Mineral Resources.

The following table shows a comparison of the production of Portland cement in the United States with the entire amount of hydraulic cement imported in 1891, 1899, 1900, 1901, and 1902. The increase in the percentage of total consumption of the home product continues, 1902 marking the highest point yet reached.

Comparison of domesHc producUon of Portland cement wUh consumption of aU hydraulic

cements, 1891-190S,

Production in the United States

Barrels.

Imports

Total

Total consumption

Percental of domestic production to total consumption in the United States.

The production and the annual percentage of increase in the last twelve years have been as follows:

Production of Portland cement, with increases each year, 1891-190SS.

Year.

Quantity.

Increase.

Percentage of increase.

Year.

Quantity.

Increase.

Percentage of increase.

2, 677, 775 8,692,284 5,662,266 8,482,020 12,ni,225 17,230,644

The total consumption of all kinds of cement in the United States in 1902 was 28,627,429 barrels, an increase of 8,053,891 barrels over the total consumption of 1901.

naturaIj-rock cement,

Production.

The production of natural-rock cement in the United States during the calendar year 1902 amounted to 8,044,305 barrels, an increase of 959,482 barrels over 1901. The demand for the leading brands of this product was steady, and the prices a trifle higher than usual during the greater part of the year.

Oemknt.

The following table shows the quantity and value of the naturalrock cement produced in the United States in 1900, 1901, and 1902:

PtoducHon of natural-rock

cement in 1900

State.

Number of works.

Quantity.

Value.

Number of works.

Quantity.

Value.

Number of works.

Quantity.

Value.

Georgia ...

Barrels.

a2

b2

dl

Illinolfl

Indiana and Kentucky

Kanaafl ,,.,,,,.,,„

Maryland

Minnesota

Nebraska

New York

North Dakota

Ohio

Pennsylvania

Tennessee

Texas '. . . .

'

Viisrinia

West ViiBTlnlA

Wisconsin

Total

A Includes product of Nebraska and lxas.

& Includes product of North Dakota.

o The number of companies producing natural cement only, is given, and the number given for 1899 and 1900 has been changed accordingly, as in those years the total number of companies in the State was given.

(includes product of Virginia and West Virginia.

0Thia total includes one plant in North Dakota, which for this year is reported as having a natural cement product.

/The States combined for 1902 are noted in the text.

The product of the single plant in North Dakota for 1902 has been combined with that of the only plants producing natural-rock cement in the States of Ohio, Texas, and West Virginia for the purpose of avoiding the publication of individual figures; otherwise the table shows the State totals and values in their exact relation. The product of the cement plant in North Dakota is still designated by its owners as a natural-rock cement. Although it tests beyond the usual standard and is stronger than the general run of natural-rock cement, it does not reach a condition which permits the company to class it as high-grade Portland cement.

As stated in another report, the number of plants given in the above tables includes only the active producers of cement. Such plants as throughout the year were idle, or were closed for remodeling or repairs, or were destroyed by fire and in process of rebuilding, are not taken into account here, but are noted in the report by States.

iC

It should also be said that where one company has several different plants in the same State the product of all of them is classed as one product and the works as one plant; that is to say, the companies rather than the plants are counted. Of course, plants owned by one company but located in different States are credited, with their products, to the States in which they are built.

New York still ranks all other States as a producer of natural-rock cement, and the combined output of Kentucky and Indiana — known as the Louisville cement — holds second place.

POZZUOIiANA OR SliAG CEMENT.

Production.

The States reporting production of Pozzuolana or slag cement in 1902 were Alabama, which has two plants, Illinois, Maryland, New Jersey, and Ohio, each of which has but one slag cement plant. The total production amounted to 478,555 barrels, valued at $425,672, an increase of 205,866 barrels in quantity and of $227,521 in value over the production in 1901. The two plants in Alabama were run under the same management in 1902, one company having leased the plant owned by the other company in that State. The production of the Illinois Company was many thousands of barrels in excess of their 1901 production, and the mills of the 3Iary land company nearly doubled their production in 1902, though they were idle for about two months. The New Jersey plant ran slightly ahead of its 1901 production, and the Ohio plant was within a few thousand barrels of twice its production for 1901.

A large plant for the manufacture of slag cement, which will have a capacity of 500 barrels per day, is in process of erection by the Stewart Iron Company, of Sharon, Pa.

The best slag cement now ranks with American Portland cement and is used for the same purposes, except in sidewalk work. This is a matter of deep interest to iron-furnace men, to whom hitherto the slag has been a troublesome and expensive waste product.

Slag Cement In Europe.

A recent paper quoted in Le Gnie Civil states that the manufacture of cement from blast-furnace slag has made great progress. In France there are now ten factories making this cement, one of which produces 80 tons a day. Belgium has five slag-cement factories; Luxembourg two, and Switzerland one. In Germany there are twelve plants, turning out about 150,000 tons per year, and in Austria two plants make 100,000 annually. This paper recommends the granulation of slag by running it into cold water as it is drawn from the furnace,

Cement.

Probuction Of Cement In Canada.

For the calendar year 1902 the production of cement in Canada was as follows: Portland, 594,594 barrels, valued at 11,028,618; natural rock, 124,400 barrels, valued at $91,870 — an increase in Portland cement of 297,528 barrels, or over 100 per cent, and a decrease in natural-rock cement of 8,928 barrels, or about 6.5 per cent, as compared with 1901.

Imports.

The table showing the imports of cement into the United States by countries is as follows:

Imports of hydraulic cement into the United States in 1898, 1899, 1900, 1901, and 1902, by

Country.

United Kingdom ,

Belgium

Fiance ,

Gennany

other European countries, British North America . . . . other countries

Total

Barreli

Barrels.

Barrels.

Barrels. 87,390 803,180 11,771 655,088 19,077 6,066 6,808

Barrels. . 79,087 615,793 14,922 1,259,265 17,956 3,611 4,158

Ktln Report Ik 1902.

The approximate number of kilns of each kind that were reported to this office as in existence during the year is shown in the following table, although the number of kilns in idle plants was not always reported. It should perhaps be said that although Portland cement is burned in both the rotary and the dome or vertical kilns, natural cement is burned only in the latter kind, and never in the rotaries.

Number, kind, and condition of cement hUns in 1902.

Kind.

Active.

Idle.

Building.

Vertical

Rotary . - - - - -

Total

Of these kilns, many that were building have already been completed and put into operation, although others will not be ready for use for a year or more. The several companies producing only Port-

aThis table shows total imports as contrasted with imports withdrawn for consumption used elsewhere in this report.

M R 1902 50

land cement and using nothing but vertical kilns for that production reported a combined output of nearly 400,000 barrels. This docs not include any of the product of companies producing both kinds of cement. A rough estimate of all the Portland cement made in vertical kilns would place that output at something below 1,500,000 barrels, leaving the great bulk of the Portland cement manufactured in the United States to be credited to the rotary kilns.

PBOClflSSES OF MAISTJFACTUKE.

Natural-rock, Portland, and slag cement are all hydraulic cements; that is, they possess the power of hardening under water.

Natural-rock cement is produced by burning an impure limestone at a comparatively low temperature. The stone best suited to the production of this cement is an argillaceous or clayey limestone, containing a certain percentage of lime, silica, and alumina. After the burning is accomplished the resulting clinker is ground to powder and packed in barrels or bags, and it is then ready to be put on the market. Of the natural-rock cements, the principal brands are Itosendale, from the region of the lower Hudson River; Louisville, from the Ohio valley, and Utica, Akron, and Milwaukee, from the localities indicated by those names.

Portland or artificial cement is made by grinding some form of carbonate of lime and clay to a coarse grit, mixing the required ingredients in exact proportions, and then burning the mixture at a high temperature to a point just short of vitrif action. The clinker which results is ground to a fine powder and stored in bins, whence it is packed ready for shipment. In the dry process the ingredients are crushed, mixed, and then ground to a powder, which is fed directly into the rotary kiln, traversing it lengthwise, and passing out through a flame as clinker. In the wet or semiwet process the materials are mixed in exact proportions and made into a slurry, which is fed directly into a rotary kiln. Where Portland cement is burned in vertical or dome kilns, this slurry has to be dried and cut into blocks or bricks, which are packed in the kilns between layers of fuel. In all cases the burning for Portland must be under high temperature and the resulting clinker ground to powder. Of the Portland cements the Lehigh brands are from southeastern Pennsylvania, and those from New Jersey, Ohio, Michigan, and Texas are usually known by local or State names.

Pozzuolana, or slag cement, is made in this country of the slag from blast furnaces. Limestone is used as a flux for iron and other ores; its action is to flux the impurities, which pass off as slag. Upon issuing from the furnace this slag is granulated by a jet of cold water, as, if allowed to cool slowly from a state of fusion it loses some of its

Ic

Cemekt. 787

hydraulic property. It is then dried, mixed with crushed slacked lime, and ground to a fine powder, when it is ready for use. Like many of the Portlands, the slag cements are frequently named from the States or from the inunediate localities in which they are made. It should perhaps be said that when slag is used in the production of a true Portland cement it must be dried, analyzed, and ground before it can be mixed with the crushed limestone in such a manner as to give proper proportions for the manufacture of Portland cement. The mixture of slag and limestone is then ground and fed into the rotary kilns for burning. The clinker that results is reduced to powder, which is the finished product, and is in every way equal to Portland cement made of other ingredients, provided the slag has been of the right quality and properly proportioned.

The materials suitable for the production of artificial cements cover a wide range.

In France, marls, chalks, and clays are used for the manufacture of Portland cements. In England, the Portland cement is made of white and gray chalks, mixed wet with the blue clay or mud from English rivers. In Germany, where the Portland cement industry is developed in the northern part of the country chiefly, marls and limestones are both used in combination with clays. In Belgium, lime or clay is added to the natural cement rock; chalk and clay are also used.

Review Of The Cement Industry In The United States By States.

By L. L. Ejmball.

Alabama.

The manufactare of cement in Alabama is of very recent date, though an attempt to utilize the slag in the State was made in 1889. In 1899 the Birmingham Cement Company first succeeded in making slag cement from the waste material at the iron furnaces in Ensley, near Binningham. In 1900 their plant was destroyed by fire; but it was at once rebuilt, as the production of cement had proved to be successful, and during the year a second plant for the manufacture of slag cement was projected by the Southern Cement Company. In 1901 the new company produced cement satisfactorily, and the Alabama Portland Cement Company began to make a first-class Portland cement at Demopolis, in Marengo County, using for the purpose clay and the limestone which is plentifully deposited in this State. At the present time these three are the only Alabama companies.

California.

In 1860 a bed of hydraulic limestone was opened about a mile south of Vallejo, in Solano County, Cal., and a small cement mill was erected near Benicia, having a capacity of 100 barrels of natural-rock cement daily. This mill was operated, though not always to its full capacity, for about twenty-five years, its largest output being in 1872, when the plant turned out 25,500 barrels of excellent cement. About 1875 limestone suitable for use in producing natural-rock cement was exploited at Santa Cruz, in Santa Cruz County, and a plant for its production was erected there. Business complications and litigation prevented the factory from running, however, for more than a very short time.* In 1886 no cement was made in California, though the imports at San Francisco for that year amounted to 159,000 barrels, which were used largely in San Francisco and vicinity. A deposit of cement rock was opened at Niles, in Alameda County, about 1884, and

the cement made there was reputed to equal the best brands of naturalrock cement. Its manufacture was, however, discontinued. In 1890 an important discovery was made of large deposits of cement rock in the Coast Range of mountains near Sierra Peak, nearly 4 miles southwest of South Riverside, in southern California, and in 1891 this rock was analyzed and tested for use in producing Portland cement It was found that a first-class quality of Portland could be produced from it without the admixture of any extraneous material. It was of the following composition:

Analysis of cement rock near South Riverside, Col. &

Constituent.

Per cent

Silica

Alumina

a. 56

<S3.fi2

MftglKH . . r . , , r - - r , . . . - - T T ' , -

Oxldo of iron

Alkalies -

Total

Reference to the ideal composition of a perfect Portland cement, given elsewhere in this report, will show how nearly the analysis of this rock approaches perfection. A plant was projected in this locality, but did not develop, though there has been talk of it at intervals since the discovery of this deposit.

In 1891 an unsuccessful attempt was made to reestablish works at Santa Cruz, and a small output of Portland cement was made by a new plant at Jamul, in San Diego County. The cheap price of foreign cements in 1891 had, however, a bad effect on this plant, and work there was discontinued for a time. In 1894 a cement plant began operations at Colton, and this company has had a steadily increasing output since that time. They use the white coralline limestone, which is nearly a pure carbonate of lime and clay.** In 1897 a company was formed for the purpose of establishing a plant at Arroyo Grande, but the venture did not materialize, and in 1900 a plant was attempted at Benicia. This also was discontinued. In August, 1902, the Pacific Portland Cement Company began operations at Cement, in Solano County, and made a good record for the half year. It is quite possible that the plant projected in Riverside County may yet materialize, as the rock there offers exceptional advantages in its exposure, extent, and quality. It is nearly a hundred feet thick and has about 350 acres

a The production of cement: Minfcral Resources U. 8. for 1885, U. S. Qeol. Survey, 1S86, p. 409. bThe production of cement: Mineral Resources U. S. for 188&-90. U. S. Geol. Survey, 1891, p. 468. c The production of cement: Mineral Resources U. 8. for 1892, U. 8. Qeol. Survey, 1898, p. 743. dThe production of cement: Mineral Resources U. S. for 1894, (J. 8. Geol. Survey, 1895, p. 684.

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6Ement, 791

surface area; it runs into the adjoining counties of San Bernardino and Orange and is underlain by a good bed of bituminous coal, which is mined on both sides of the mountain range adjacent to the cementrock deposits. The fact that this location is directly within the great orange belt of southern California, where cement is largely used in constructing dams for irrigation and canals and also in building pipe lines, and the further fact that the railroad is near by are both greatly in favor of the undertaking.

Colorado.

In 1882 this Bureau reported the accidental discovery during the year 1881 of the hydraulic quality of the lime burned from one of the limestone beds near Canyon, Colo. Experiments made by Mr. Megrue were at first but slightly successful in producing a good cement. Later, however, a satisfactory result was attained. In 1882 a plant was erected at Denver and about 100 barrels of excellent cement were made, which, when tested, proved entirely equal to the tests. In 1883 the first entire kiln of cement was turned out, and for the first six months of that year the output of the Denver Cement Company was 385 barrels, which retailed at $4 per barrel. This company, with the Canyon City Iron, Paint and Cement Company, produced cement from the limestone of the Upper Silurian in the Hogback near Canyon.* The small demand during the winter months led to the closing down of these plants at the close of 1884. In 1885 the works of the Denver Cement Company were run part of the year, but the production was not large. In 1886 the plant was enlarged and an attempt was made to extend the sale of its product. In the report for 1886 made by this Bureau it is noted that a small production of cement was made at Canyon. No further mention is made of this company until 1891, when the fact is noted that their capacity had been largely increased.'' In 1894 the plant was destroyed by fire and not rebuilt. In June, 1900, the Colorado Portland Cement Company started their factory for the production of Portland cement at Portland, in Fremont County. The mills ran throughout the rest of 1900 and through 1901. In 1902 this company was consolidated with the Portland Cement Company, which had just located at Portland, and in 1903 these plants will be under one management. A company has been incorporated at Canyon, and, if it is successful, will produce both Portland and natural-rock cement. There is a large supply of material in Colorado from which an excellent cement, either natural or artificial, may be made. Limestones, calcareous marls, chalks, slags, and clays are all plentiful and can be had in favorable locations.

a The production of cement: Mineral Resources XJ. S. for 1890, U. S. Geol. Survey, 1891, p. 4C3. blhe production of cement: Mineral Resources U. 8. for 1881, U. S. Geol. Survey, 1882, p. 462. oThe production of cement: Mineral Resources U. S. for 1886, IT. S. Geol. Survey, 1887, p. j p The production of cement: Mineral Resources U. 8. for 1891, U. 8. Geol. Survey, 1892, p. 53

Illinois.

The construction of the Illinois and Michigan Canal led to the discovery of a very fine quality of magnesian limestone at Utica, HI., in 1838. Experiments showed that the cement made from this rock was of unusual excellence, and in the same year Messrs. Norton and Steele erected a factory for the production of natural-rock cement, after having secured a contract to furnish this product for use in the construction of the canal. By the time this work was finished the Utica cement had an established reputation, and its annual production was continuous and uninterrupted. In 1845 the plant was purchased by Mr. James Clark, who operated it with great success for over thirty years. Improvements were made from time to time in the methods of manufacture and in the machinery used. When the kilns were first built they were located on the edge of the bluff near the river and the raw rock was brought to them by a horse-car railway, but later, as the business increased, patent processes for grinding and burning were used, and the rock was burned at the beds whence it came. In 1888 the plant was incorporated as the Utica Hydraulic Cement Company, and its capacity was largely increased. It is still successfully operated under this name. The same formation of cement rock used at Utica is also available at Lasalle, and in 1869 the manufacture of natural rock cement was begun there, since which time it has been continuously carried on.* The production of Portland cement was begun in Illinois at Oglesby in 1894,* and a year later slag and limestone were utilized by the Illinois Steel Company at Chicago to make Portland as well as slag cement. At Oglesby limestone and shaley clays are used; this factory was burned in 1898 and rebuilt on a larger scale. Meantime, two plants had been built at Lasalle for the production of Portland cement, and another plant had become a successful producer of natural -rock cement at Utica. In 1886 the State production was 226,000 barrels of natural-rock cement; in 1890 it was 400,000 barrels. Five years later the Portland cement output amounted to 750 barrels, and the natural-rock cement output was 491,012. In 1900 there were 240,442 barrels of Portland produced and 369,276 barrels of naturalrock cement. The figures for 1902 are given elsewhere.

Kansas.

Natural-rock cement has been made in Kansas since 1868, when mills for that purpose were erected at Fort Scott. During the-previous year it was discovered that rock suitable for this manufacture existed in large quantities in the locality, and a specimen was analyzed by

a CummingH, U., American Cements, 1898, p. 20.

b Ibid., p. 22.

Cement. 793

, Prof. Louis Agassiz, who pronounced it to be "of superior value if properly calcined." The plant erected was a small one, and its first output was only 10 barrels per day. But the demand at that time was rather limited, and as it grew larger the company increased their production, making their first large shipment in 1870.* The mills have been running continuously since that time and in 1888 reported a production of 40,000 barrels of cement as their output for the season. The plant has been remodeled, having had new machinery and improvements added, and is now a large producer annually.

In 1889 a second plant for the production of natural-rock cement was started at Fort Scott, and these two are still the only ones in the State. The plant at lola produces only Portland cement. The company owns a large area of land which is underlain by limestone having 96 per cent of carbonate of lime and shale having 75 per cent of silica and alumina. They have been in successful operation since 1900.

A description of the geological formation of eastern Kansas bearing upon the manufacture of cement may be found in the reports of the University Geological Survey of Kansas.

Kentucky And Indiana.

The discovery of a natural cement rock in Kentucky and Indiana was due, as in so many other cases, to the construction of a canal. In 1829, while the Louisville and Portland Canal was being built, in order to facilitate navigation around the falls of the Ohio, an excellent natural cement rock was discovered,* and Jno. Hulme & Co. began the manufacture of the now well-known Louisville cement in that year, at a small suburb of Louisville called Shippingport. This product, which was the first cement made in the West, was used in constructing the canal locks, and proved so satisfactory that the State of Kentucky continued to use it in making improvements on the Green, the Barren, and the Kentucky rivers. The value of this first Louisville natural-rock cement was shown by the fact that when in 1860, the enlargement of the Louisville and Portland Canal was begun the cement binding the stones together was found to be more firm and substantial than the stone itself. In 1832, at Clarksville, Mr. Vesey built a flour mill, which was shortly utilized to manufacture cement, and, after passing through many hands, was finally sold to Mr. W. F. Beach, who in 1873 had in operation four vertical kilns, with a total capacity of 400 barrels per diem.

For some years following the discovery of cement rock at Louisville the industry showed little growth, the census of 1860 recording for Kentucky but one cement factory, with four employees and a product

aHafelrigg, C. H., A New History of Kansas, p. 156.

ftLesley, R. W., Jour. Aasoc. Eng. Socs., vol. 16, 1895, p. 198. j

Ic

valued at $10,000. The census of 1860 reported one cement establishment, but gave $62,000 as the value of its product, and stated that 50 men were employed, showing a growth in the business of the plant if not in the number of factories. The census records for 1870 are not exact, but it is stated that 320,150 barrels of Louisville cement were sold during the year. The census of 1880 recorded no production of cement for Indiana, and gave Kentucky only two plants with a production said to be valued at $145,000. In 1883 this Bureau reported* 10 factories in the Louisville district, and in 1886 gave the output as 925,210 barrels. In 1890 the production amounted to 1,533,579 barrels, with a value of $1,150,184, and in 1899 there were 19 factories, with an output of 2,922,000 barrels, valued at $1,022,858. The records showing the detail of growth in the production of cement in the Louisville district are meager and incomplete, but the product has long been known as a most trustworthy cement. In 1848 it was said by Colonel Long, of the Corps of Topographical Engineers, to be —

a cement which, when used in the formation of subterraneous and submarine foundations, and other structures in similar situations, is unsurpassed by any material of the kind hitherto employed for such purposes in this or any other country.

Among the natural-rock cements it ranks second to Rosendale only.

The production of Portland cement in Indiana is confined to the northern portion of the State, where the vast deposits of marl in the lakes and marshes furnish a material suited to this industry. In 1877 the first factory for the manufacture of Portland cement was erected by Mr. Millen, at South Bend. The materials used were marl and clay, and although the slurry had to be dried in bricks in order to admit of burning in the old-style dome or vertical kilns used at that time, the process was eventually successful, and the firm produced a well-known brand of Portland cement for a decade or more.- In 1886 Mr. Millen commenced the manufacture of Portland cement in New York State, leaving the original factory in other hands, and within a few years thereafter the plant at South Bend began to deteriorate. In 1893 it was shut down, and has not been a successful producer since that time. That fact, however, is in no wise due to the lack of good materials in this locality, as is shown by the production during 1902 of over half a million barrels of cement by the three companies now operating there. In 1900 the Wabash Portland Cement Company commenced to make Portland cement at Stroh, in Lagrange County, and has been an

n The production of cement: Mineral Resources U. S. for 1883, U. S. Geol. Survey, 1884, p. 672. 6 The production of cement: Mineral Resources U. S. for 1886, U. S. Geol. Survey, 1887, p. 556. cThe production of cement: Mineral Resources U. S. for 1890, U. 3. Geol. Survey, 1891, p. 461. d The production of cement: Mineral Resources U. S. for 1899, U. S. Geol. Survey, 1900, p. 407. Glllmore, Q. A., Practical treatise on limes, hydraulic cements, and mortars, Uth edition. 1896, New York, pp. 69-60. /Twenty-fifth Ann. Rept. Geol. and Nat. Resources of Indiana, 1900, p. 24. a Ibid., p. 27.

Digitized by

/

Cement- 795

increasingly successful producer since that time. In 1901 the plant erected at Syracuse, Kosciusko County, by the Sandusky Portland Cement Company, of Ohio, reported a large production,* and in 1902 the plant of the Lehigh Portland Cement Company, of Pennsylvania, erected at Mitchell, Lawrence County, contributed a fair part of the entire output.

The success which has been so marked in the State of Michigan, where similar materials for the manufacture of Portland cement are in use, should be repeated in northern Indiana as the demand for and uses of Portland cement increase.

Maryland.

Up to the present writing there has been no attempt to manufacture Portland cement in Maryland, notwithstanding the fact that limestones, clays, shales, and marls, well situated relatively and suitable for the purpose, are distributed liberally through the State. The manufacture of natural-rock cement is, however, an industry of long standing. Rock suitable for use in this capacity was first discovered in Maryland in 1836, during the building of the Chesapeake and Ohio Canal, at a place called Round Top, which is about three miles southwest of Hancock. A cement plant was established here, which is still in existence. It was operated by Mr. George Shaf er until 1862, when it was sold to Messrs. Bridges and Henderson, who now own and manage it. The plant averages more than 60,000 barrels per annum.* The Cumberland Hydraulic Cement and Manufacturing Company, whose plant was started in the same year, has been a successful producer of an excellent brand of natural-rock cement ever since that time. Their quarries are on the south bank of Wills Creek, where the Helderberg rocks are finely exposed and where a series of natural folds in the beds admit of the convenient working of them. The product of this plant is more than 100,000 barrels yearly. The Antietam Cement Company, near Sharpsburg, formerly produced a good grade of cement from the Trenton limestone of the same formation that farther north is used in Pennsylvania and farther west is worked near Shepherdstown, W. Va. The works were started in 1888; they are now successfully operated by another company. There were also works at Lansdowne a number of years ago, but they have been idle since 1892. Besides the companies already noted are the Potomac Hydraulic Cement Company and the Cumberland and Potomac Cement Company, each of which has been under successful management for a number of years. In addition to these plants there is

a Twenty-fifth Ann. Kept. Qeol. and Nat Resources of Indiana, 1900, p. 27.

e Maryland, its resources, industries, and institutions, 1898, Baltimore, p. 139.

p. 139.

at Sparrows Point a plant where slag cement of good quality is produced. This plant has been in successful operation for more than five years. The production of natural-rock cement in Maryland in 1890 was 223,209 barrels,** in 1900 it was 336,070 barrels, and in 1902 it was 409,200 barrels.

The slag used for the manufacture of cement in Maryland is produced by the blast furnaces at Sparrows Point, where limestone and marble are used as a flux. Much of this stone comes from Texas, in Baltimore County, where there is a large quarry whence an average of 400 tons daily is shipped to Sparrows Point. There are also extensive limestone quarries at Cavetown, in Washington County. Besides the use of this limestone as a flux for blast furnaces, large quantities of the stone from the numerous quarries at Texas are used for burning lime; the limestone from Lochraven is also used for this purpose, as is that from Westminster and New Windsor.*

The slate belt in Maryland forms a narrow zone, which begins a short distance east of the Susquehanna River and passes in a southwest direction through the southeastern corner of York County, Pa., terminating near Pylesville, on the Baltimore and Lehigh Railroad, Maryland. At the present time nearly all the active quarries are in Harford County.

Minnesota.

Minnesota has produced natural-rock cement for many years, the older of the two plants in that State having been active for nearly twenty-five years. It is situated just south of Mankato, and fronts on the Blue Earth River, where the rock formation yields a very superior quality of cement. This rock is a compact, finely grained, siliceous limestone, actively hydraulic, and the cement produced from it sets quickly and is very durable. The supei*ficial area of the quarry is about 90 acres, and clay deposits are found abundantly in the neighborhood. This plant has been steady in its output and yields a successful annual production. Until 1895 it was the only plant in Minnesota, but during that year a factory in Austin, Mower County, was opened,* and since then the two have produced all the cement made in the State. No production of Portland cement has as yet been attempted here.

New Jersey.

The cement industry in New Jersey is an old one, though the earlier product was a natural-rock cement, and the present output is entirely Portland cement. The State Geological Survey made a very complete

n Production of cement: Mineral Reaouicefl U. 8. for 1890, U. 8. Oeol. Survey, 1891, p. 532.

& Maryland, its resources, Industries, and institutions, 1898, Baltimore, p. 1S8.

elbid., p. 188.

dThe State of Minnesota, by State Board of Immigration, 1886, St. Paul, p. 146.

Production of cement: Mineral Resources U. B, for 1895, U. 8. Qeol,.8urye3L289&80i.p

Oement. 797

and valuable report on the geology of New Jersey in 1868, and on page 525 of that volume the statement is made that limestones had been used at a few places in the State for cement manufacture, though none was then being made; that when wood was used as a fuel in lime burning the magnesian limestones yielded a product having hydraulic properties, but that since coal had been introduced the additional heat, or burning at higher temperature, caused the product to lose its hydraulic property, and that the so-called cement layers of rock were no longer used for the manufacture of cement. This report further states that at Johnsons Ferry, in Hunterdon County, opposite Durham, Pa., there is an old quarry, near the Presbyterian Church, which was worked for rock to make the cement used in building the ''locks on the feeder," but that the quarry was not worked at that time (1868). It mentions that along the Delaware River the Comiferous limestone had been used at Dingmans Ferry as a source of cement. In 1890 the erection of a plant for the manufacture of Portland cement was begun at Alpha by Mr. T. D. Whitaker, who turned out his first product in 1891. In 1895 this plant, which had been in constant operation since its establishment, was sold to the present owners, the Alpha Portland Cement Company, and is one of the largest producers in the country. In 1894 the Vulcanite Portland Cement Companj', which also produces annually a very large output, built a plant at Vulcanite, near Alpha. The raw material used by these plants is closely similar; in each case the land is underlain by the cement rock, which has a depth of more than 160 feet.

Following these plants, mills were erected at Clinton and at Stewartsville. The Alpha Company also have an additional mill at Phillipsburg. At Perth Amboy the plant making cement produces a slag or Pozzuolona cement. Two companies have been incorporated in this locality which have not materialized. The Edison plant, which is located at Stewartsville, will probably have an output in 1903. The company owns about 600 acres of land a few miles northeast of the Alpha and the Vulcanite properties, and if the process used proves to be successful it is designed to so enlarge the plant as to have an output of 10,000 barrels per day. The present capacity is about 2,500 barrels per day.

For an extended description of the deposits in New Jersey of materials suitable for the manufacture of cement, reference may be made to the annual reports of the geological survey of New Jersey for 1899-1900.

New York.

History begins, in so far as the cement industry in New York State is concerned, with the discovery of a natural cement rock about 1818 by Mr. Canvass White at or near Chittenango, Madison County.

a Production of cement: Mineral Resources U. S. for 1894, U. B. Geol. Survey, 1896, p. 684. O

After some experimenting, a process for producing good cement from this rock was found by Mr. White, who then applied to the State for an exclusive right to manufacture the product for twenty years. Such a right was refused, but instead he was presented by the State with $20,000 in recognition of his valuable discovery.** His cement was first used in building the Erie Canal, as shown by the following extract from a letter written June 24, 1820, by Mr. Benjamin Wright, chief engineer of the canal, touching the subject of the lime used in the subaqueous construction of the canal:*

The specimen of argrillo-femiginous limestone herewith presented is found in great abundance in the counties of Madison, Onondaga, and Cayuga, State of New York. When found in place, it is always under the blue lime, which is uniformly overlain by gray lime. The whole is 6 or 8 feet in thickness. Under the blue lies the first described, which is found to be a superior water cement and is used very successfully in the stonework of the Erie Canal and believed to be equal to any of the kind found in any other country. I do not know that it is found in the counties west of Cayuga, but presume from the geological character in that county it may be found in all the coimtry west to Niagara, and probably farther west. It is pulverized (as it will not slack) and then used by mixing two parts lime and one part sand. It hardens best under water. Mr. Canvass White, a friend of mine, has obtained a patent for it when used for hydraulic purposes. For cisterns it will be much used, no doubt, and for all the principal erections of stonework for canals it is indispensable.

The price of this lime — pulverized, burnt, and delivered at Utica — was 20 cents per bushel, and the analysis of it, made in 1821 by Doctor Hadley, is as follows:

Constituent.

Per cent.

Carbonic acid

Lime . , , ,

Silex

Alumine

Water

Oxide of iron

Total

Mr. Myron HoUey, one of the Erie Canal commissioners, wrote from Albany, in January, 1821, as follows:

Mr. White, one of our engineers on the Erie Canal, and a man of good character and useful attainments, discovered in the course of the season before last material for making an excellent waterproof cement, existing in great abundance in the western district of this State, and we have made extensive and profitable use of this discovery in the locks and other mason work of the Erie Canal. It is probably superior to Parker's Roman cement in quality, and may be afforded at less than half the expense of that. It will therefore probably soon come into general use throughout our country wherever such a cement is required.

o Sylvester, N. B., History of Ulster County, N. Y., 1880, p. 240. J & Am. Jour. Sci., vol. 3, 1821, p. 230,

uogle

Cement. 799

A few years after this when the Delaware and Hudson Canal was being constructed, it was assumed that the cement used would, of necessity, be brought from Madison County, but during the summer of 1825 a cement rock similar to that at Chittenango was found at High Falls, in Ulster County, which, under test, proved to be of excellent quality, and for that reason the purchases from Chittenango ceased. The first specimen of the rock at High Falls was burned in a blacksmith's forge and reduced to powder by pounding. In 1826 the first cement mill was built below High Falls, and, this proving insufficient for the necessary grinding, others were soon erected. In 1828 a mill was erected at Rosendale, in Ulster County. This locality quickly became a leading center for the production of natural-rock cement, and it has remained so ever since. Extensive works were also erected by Mr. Hugh White at Whiteport, and others soon appeared in the vicinity. The kilns for these pioneer mills were built small, and wood was the fuel used for burning. At the bottom of the kiln an arch was formed to contain the wood; the kiln was filled with cement rock; a fire was lighted and kept burning for six days and nights, and at the end of this time the stone was supposed to be sufficiently well cooked. Frequently unfavorable weather or inexperienced burning caused the whole kiln ul to come out either worthless cinders or raw stones. At best the entire product of a kiln for the week was not more than 25 barrels. After the Delaware and Hudson Canal had been in operation for a short time kilns were so constructed as to admit of daily drawing. These were called ''draw kilns," and coal was used in them instead of wood. So great was the improvement that an output of 550 or 600 barrels was the result of a burning that under the old method would have yielded but 25 barrels. At this time water power was used for grinding, and a production of 4,000 or 5,000 barrels of cement was regarded as a good season's business.*

With the completion of the Delaware and Hudson Canal the manufacture of cement ceased to a great extent, but it began to revive when Louis Elmendorf reopened the old Snyder mill and conmaenced the manufacture of natural-rock cement for the general market. Cement rock had been discovered at Williamsburg, Erie County, and a mill was erected there. In 1839 cement rock of an exceptionally high grade was found at Akron, also in Erie County, and since then the output of cement from there has been continuous.

In 1840 beds of limestone yielding hydraulic cement were extensively worked in the vicinity of Kingston, Rosendale, Lawrence ville, and High Falls, and there were 60 kilns burning natural-rock cement,

o Sylvester, N. B., Hlatory of Ulster County, N. Y„ 1880, p. 240.

cCummiugs, U., American Cements, 1868, p. 20.

Ic

the season's output being about 600,000 barrels. Mr. Mather states

White* 8 quarries and kilns are the most numerous, and turn off about 600 barrels of cement per diem. Mr. White contracts with the quarrymen to quarry and bum the stone for 25 cents per barrel, while he furnishes the fuel (dust anthracite from screened coal) , delivered at the kilns, removes the cement to the mills, grinds, and barrels it.

In 1847 Mr. White's property passed into the hands of the present Newark and Rosendale Lime and Cement Company. The growth of the cement industry from this time on was gradual, but steady. A letter from Messrs. Newman & Bro., written in March, 1859, says:* "We are now burning 100 barrels on account of the dullness of the market; we can burn 130 barrels every twenty-four hours with three cords of wood." Mr. Newman further speaks of the great improvement made in the cement from his factory by the introduction of the newly patented "flame" kiln, made to replace the "draw" kiln. This new patent had a vertical division wall, extending a little above the level of the furnaces, which prevented a horizontal draft through the kiln. It was so constructed that either coal or wood could be used for fuel. In order to test the advantages claimed for this new kiln, the Newark and Rosendale Company erected one in the fall of 1859 with very satisfactory results. Since that time the plants and methods for burning natural-rock cement have undergone no radical changes, the business having been carried on along the lines which experience proved to be trustworthy with entire success.

From time to time, as new outcrops of the stone, which is now known to be abundant in the State, were found, new plants for the making of natural-rock cement were established. In 1870 a plant was erected at Howe Cave, Schoharie County. In 1874 the Buflfalo Cement Company began manufacturing cement at Buffalo, Erie County. In 1877 they rebuilt their factory on a larger scale to increase its capacity. Both these localities continue to yield a uniformly good quality of cement,*

It was about this time that efforts were made to produce a good Portland cement in this State. Experiments were tried in Ulster Coimty, but the cost of production was found to be prohibitive, and the supply of Portland continued to come from abroad, chiefly from England, whence it had been imported since 1865, being first used but sparingly for the more difficult kinds of engineering work. In those years the imports were small and the prices large, but as work could be done with it which could not be done with natural-rock cement, the imports increased, and the manufacture of a good American Portland cement became a demand which, at last, created the supply. Mr. Lesley

a Mather, W. W., N. Y. Nat. Hist. Survey, Geologry 1st Dist., 1843, p. 829. bGillmore, Q. A., Limes and hydraulic cements and mortars, 1896, p. 138. cCummlngs, U., American Cements, 1898, p. 22.

Cement. 801

states that the BuflFalo Portland cement, of which small quantities were manufactured from 1878 to 1885, was due to the discoveries and patents of Uriah Cmnmings and L. J. Bennett, who found out that by selecting overbumed material from the natural-rock-cement kilns of the BuflFalo Cement Company and using it for the manufacture of Portland cement a material closely resembling the imported Portland could be made. In 1881 Portland cement of good quality was made by the Wallkill Portland Cement Company, and in 1884 prices of American Portland were quoted as far west as California.

In 1885 nothing new developed, the product of New York consisting chiefly of natural-rock cement. In 1886 the Empire Portland cement plant was erected at Warners, Onondaga County, by Messrs. Thomas and Duane Millen, for the production of Portland cement from the marl and clay found in abundant quantities in that vicinity. These gentlemen had been successful in producing a first-class Portland cement from similar material in northern Indiana for a number of years, and were no less successful in New York, though the entire amount of Portland cement made in the State in 1886 was considerably less than 50,000 barrels, while the natural-rock production amounted to 2,620,856 barrels, or more than half the entire production of naturalrock cement in the United States. The growth of the Portland cement industry was steady, however, and the demand for American Portland continued to increase. In 1890 the supply had increased to meet this demand, and the output of the single plant at Warners was over 60,000 barrels.

Other plants in the State producing Portland cement had met with varying success. In 1889 the one at South Rondoutwas burned down and not immediately rebuilt. Within the next five years, however, the progress of the industry in this State was rapid. In 1893 a large plant for the manufacture of Portland cement was erected at Glens Falls, Warren County, which has since been a successful and continuous producer. In the same year a factory, which had been erected at Montezuma on an old site, was burned. It had produced Portland cement successfully for a year, but was not rebuilt. In 1892 Millen & Son began making Portland cement at Wayland, Steuben County, and they, too, had a disastrous tire in 1893. Their plant was rebuilt, however, and has been prosperous since that time.

In 1890 the production of natural-rock cement was about 3,500,000 barrels in New York State, and the progress of this industry during the next few years was steady, though not so rapid as that of the Portland-cement industry. Prices for natural-rock cement were slightly depressed in 1893, but the enormous production made it possible to obtain a profitable percentage on the capital invested, and within a

a Lesley. R. W., Journal Ahboc. Eiig. Socs., vol. 15, 1895, p. 200. M R 1902 51

short timo prices ajiii advanced. There was also a falling oflF in the prices of American Portland cement in 1893, but in spite of this fact the total production of the State increased to 159,320 barrels, the production of natural-rock cement for that year being 3,939,727 barrels. From this time until 1901 the growth of the Portland-cement production was aj3 marked as it had Ixien during the years immediately preceding. New York has never been so prominent in the production of Portland as of natural-rock cement, possibly because the latter industry so greatly antedates the former. But in 1901 the number of factories in the State making Portland cement had increased from four (in 1895) to seven, of which five were devoted exclusively to its production, the other two making both kinds of cement. The output of natural-rock cement, always increasing until 1900, decreased in that year and in 1901. In 1902 it again increased.

The total State production for 1897 was 394,398 barrels of Portland and 4,259,186 barrels of natural-rock cement; for 1899 it was 472,386 barrels of Portland and 4,689,167 barrels of natural-rock; for 1901 it was 617,228 barrels of Portland and 2,234,131 barrels of natural-rock cement, and for 1902 it was 1,156,807 barrels of Portland and 3,577,340 barrels of natural-rock cement.

North And South Dakota.

The cement industry in South Dakota is of earlier date than that in North Dakota. The plant at Yankton, S. Dak., was built in 1889, and had its first production of Portland cement in 1890. It has been in successful operation since that time and is now in process of enlargement. The materials used are chalkstone of the Colorado Cretaceous and a dark, fat clay overlying it, commonly known as the clay of the Pierre epoch. The clay is also found below, and in the chalk. This formation covers many hundred square miles northward from the southern boundary of the State, and at Yankton has a thickness of 150 feet.* The plant is built on the north side of the Missouri River, about four miles west of Yankton, with which it is connected by rail.

In North Dakota the only cement factory is that at Pembina, on the Tongue River. It was erected about five years ago, and was originally planned to produce a high grade of Portland cement. The tests did not reach a sufficiently high standard to admit of this, however, and the company now puts out its product as a natural-rock cement, though it is far stronger than the usual requirements of such a product. A soft, chalky clay is the material used for making the cement; it outcrops from a hillside, and is more than 50 feet in thickness. The factory was built with great regard to economy of labor and material,

a Production of cement: Mineral Resources U. S. for 1891, U. S. Geol. Survey, 1892, p. 536.

b South DakoUi Geol. Bull. No. 3, 1902, p. 100.

c Production of cement: Mineral Resoorccs U. S. for 1901, U. S.

Cement. 803

and has been a successful though not a very large producer since it started. The scarcity and high cost of fuel in this section of the country is a factor which enters largely into the success or failure of cement making here.

Ohio.

Numerous cement plants are scattered throughout the entire State of Ohio. Among the first to be established was a small plant at Sandusky, which was abandoned after a short time. The next venture in cement manufacturing was made by Mr. Gleason, at Defiance. He succeeded in producing an excellent article, which he called the Auglaize cement, and which was made from the lowest and most calcareous layers of the Huron shale.'' This plant was established in 1846, and has been operated, though not continuously, ever since. It is now managed by Messrs. Wilhelm and Gorman. In 1858 the firm of Messrs. Parker & Sons began to manufacture cement at Barnesville, in Belmont County, from the limestone there. At the outbreak of the war their establishment was closed, as the demand for cement ceased. In 1868 it was reopened, and in 1869 their product was tested by the Atlantic and Great Western Railway Company, in competition with eleven other brands, the result being that Parker's cement was adopted. Eleven thousand barrels were used in the construction of the railroad bridge at Bellaire. These works are not operated at the present time, but until quite recently there were cement works just below Bellaire where cement was made from this same stone.*

In 1884 a small plant was erected at Columbus, which ran successfully for a number of years, but is now closed down. In 1889 the Buckeye Portland Cement Company established a plant at Harper, in Logan County, which has been successfully operated since that time. The materials used here are marl and clay, and the plant has been twice enlarged to meet the demand for its output. In 1891 cement was being manufactured at Bellaire, and at New Lisbon, Columbiana County, but none was produced in Sandusky. In 1892 a plant was erected at Middle Branch to produce Portland cement from limestone and clay, and it is still a successful producer. In 1893 the Sandusky Portland Cement Company began operations at Bay Ridge, near Sandusky. In 1898 works were built at Castalia, and have been running continuously since that time. In the same year a plant was established at Ransomes for the production of a fine, white cement for use in art work and other special purposes. This venture was not entirely successful, and the works were later closed, so far as producing cement was concerned. The Alma Portland Cement Company

a Rept. Geological Survey of Ohio, vol. 2, 1875, p, 488.

6 Kept. Geological Survey of Ohio, vol. 3, 1878, p. 269.

c Production of cement: Mineral Resources U. S. for 1891, U. 8. (Jeol. Survey, 1892, p. 582.

d Production of cement: Mineral Resources U. S. for 1893, U. S. Geol. Survey, 1894, pp. 621-622.

e Production of cement: Mineral Resources U. S. for 1896, U. S. Geol. Survey, 189,.

was established at Wellston in 1898, and has been producing cement for the last five years. Another plant erected at Wellston three years later was sold in 1902 to a large cement company in Pennsylvania. There are other companies, all of more or less recent date, in the State, and they are successful in their operations. The Sandusky Portland Cement Company, whose plant at Bay Ridge has a large annual output of cement, in 1901 built a factory in Syracuse, Ind.

The growth of the cement industry in Ohio has been steady, though it has not been so marked as in some other States. In 1890 the entire production amounted to only 57,000 barrels of Portland cement, which was manufactured by two plants. In 1902 twelve plants reported, and the seven factories engaged in producing Portland cement had an output of 663,113 barrels.

Pennsylvania.

In 1831 excavations were made in the process of constructing a canal to connect Muncy, Lycoming County, with Lock Haven, Clinton County, which exposed a large mass of cement rock of first-class quality near Williamsport. On being tested it yielded such satisfactory results that a cement plant was at once erected for the production of such cement as should be necessary in the construction of the locks and dams of the new canal. For more than three years these kilns, built by Mr. Crane, continued to manufacture and to supply all the local trade as well as the canal with an excellent quality of cement. When the canal was finished, however, the local demand was not great enough to justify a large supply. The industry was kept up, but in a very small way, the production fluctuating as there was or was not a market.* In the year 1850, when the Lehigh Canal, running from Easton, Northampton County, to Mauchchunk, Carbon County, was under construction, the cement rock, which has since been used in such enormous quantities in this valley, wtis uncovered.

This discovery of hydraulic limestone or cement rock was of great economic importance to the entire State, as it obviated the necessity of importing cement from New York State or from abroad, besides proving a great source of wealth in itself. The manufacture of cement for the canal was begun at Siegfried, Northampton County, and the product proved to be of excellent quality. The methods of burning were somewhat primitive as compared with the present appliances to be seen at Siegfried, but the rock yielded a fine ceme;it, and has been used more or less continuously since that time.'" In 1865 Mr. David Say lor established a large natural-rock cement plant at Coplay, in Lehigh County. The product of this plant was good, but the competition with Rosendale and other long-established brands of natural-

a Production of cement: Mineral Resources U. S. for 1899, U. S, Geol. Survey, 1900, p. 402. U., American Cementu, 1898, pp. 19-20,

flibid., p. 21.

Cement. 805

rock cement led to experiments in the manufacture of an artificial or Portland cement, and in 1870 Mr. Saylor began to produce a small output of this important product. His was the first plant in the United States where Portland cement was sucessfuUy made, and the history of the experiments tried before a good result was obtained is most interesting.

In 1876 the plant, which is still a successful producer of Portland cement, was established, the materials used being limestone and clay. At the Centennial Exposition held at Philadelphia in that year, both the Wampum and the Saylor Portland cements were exhibited, and held their own with the foreign brands sent here for that occasion. In 1878 there were four cement plants on the Lehigh River, two on the west side worked by the Coplay Cement Company and the Lehigh Cement Company, and two on the east side, the Allen Cement Company and the old Lehigh Cement Works. The Coplay plant had at that time 11 kilns, 7 of which were burning Portland cement. Their success led to the growth of the industry, and this locality, which was the first in the United States where Portland cement was extensively manufactured, became the leading center of production for Portland, which position it still holds, producing more than one-half the entire output of the countr3\ The Coplay Cement Company have had continued success, and have now 34 kilns, producing a large annual output of both natural-rock and Portland cement. In 1882 the production of Portland cement was well established in the Lehigh Valley, and the United States Geological Survey reported for that year that "both natural and artificial cements were manufactured to a considerable extent at AUentown, Pa." In 1883 the Pennsylvania State Geological Survey reported as follows:

Two companieB have tried to utilize the hydraulic of the limestone in Northampton County, but neither of them has done a great deal for the laat four or five years, and the quarries have been practically unworked. These companies are the Old Lehigh Cement Works and the Allen Cement Company. But it must not be supposed that because these companies have been apparently unsuccessful there is no future for this business in this part of the State; on the contrary, the success of the Coplay Cement Company shows what perseverance under difficulties can and does do. Of course, the composition of some of the cement beds is far more favorable to the manufacture of cement than that of others, but all may be more or less profitably utilized by careful intermixture.

It was during this same year that a plant for the manufacture of Portland cement was inaugurated at Egypt. For a time its output was leather small, but it increased slowly, and at the present time the outcome of this small beginning is the American Cement Company, one of the largest producers of both natural-rock and Portland cement in this country.

a Lesley, R. W., Jour. Aasoc. Eng. Socs., vol. 15, 1896, p. 200. IoooTr>

h Production of cement: Mineral Resources U. 8. 1882, U. S. Geol. Survey, 1888, p.-ftl 0 Second Oeol. Survey Pennsylvania, vol. 1, D. 8, 1883, p. 164.

In 1885 the small output of artificial cement was mostly from Pennsylvania, though a certain percentage of it was produced in New York. The imports increased, and the slow growth of the home production left them apparently unchecked. There were, however, three reasons for this in 1885 other than the natural demand. They were, a strong competition among the importers, very low ocean transportation, and the removal of duty on packages. " In 188G there were a number of improvements made in the machinery devised to save labor and reduce the cost of producing Portland cement, which gave an. impetus to this industry. Referring to these improvements, Mr. R. W. Lesley, pre.sident of the American Cement Company, said, in a paper read before the Engineer's Club at Philadelphia:*

The raw rock is crushed and ground dry. The powder thus formed is run into a mixer, when a small proportion of pitch and water is addeti. The moistened powder is then passed through a pair of heavy rolls having matched, egg-shaped cavities, which mold it into small eggs and deliver these latter in front of the kilns, avoiding all handling. These eggs can be used the same day in the kilns, if necessary, whereas under the old process the same stage of manufacture required weeks — ci manifest advantage, to say nothing of the immense saving in labor, land, and intereit. The form of the material, its uniformity in density, porosity, and size, make it more easily burned, handled, crushed, and ground, and cause a saving at every stage of the process, while the addition of the pit(.!h aids the uniform burning, and, moreover, by forming through which the moistures in the egg escapes prevents them from falling away in the kiln, which they would otherwise do, owing to the generation of steam within them and the formation of a crust on their outer surfaces. This is the point which in the old process prevented placing the wet paste in the kilns promptly, and which is here overcome by the use of a combustible. By this process the foreign brands are fairly met in point of price, and repeated testa by leading authorities here and in Europe show that the quality of the cement made is equal to the fonngn Portland.

It was about this time that Ransome's improved revolving cylinder for the manufacture of Portland cement was introduced in England. It was first used in this country by a plant in Oregon, which has since been abandoned. After a number of failures and many ments with a view to improvements on Mr. Ransome's invention, the rotary kiln was adopted here. The modifications and changes made in this country were very advantageous, and the first rotary kiln successfully eshiblished in the Lehigh district proved to be a great saver of time and labor. The expense of fuel was much increased, but the output of the plant was so much greater that this disadvantage was obviated in a degree. The recent use of powdered coal, which has superseded the use of oil as a fuel, has somewhat reduced the expense of rotary kilns. In 1891 the output of Portland cement in Lehigh County had reached 268,500 barrels, this being the production of six

Production of cement: Mineral Resources U. S. for 1885, U. S. Geol. Survey, 1886, p. 407. b Production of cement: Mineral Resources U. S. for 1H86, U. S. Geol. Survey, 1887, p. 560. c Production of cement: Mineral Resources V. S. for 1887, U. S. Geol. Survey, 1888, p. 630.

Ic

Cement. 807

plants. The production of natural-rock cement was 696,000 barrels. In 1895 two of the leading plants at Coplay enlarged their factories so as to nearly double their capacity for producing Portland cement. There were now seven plants in Pennsylvania producing Portland and five producing natural-rock cement.*

In 1897 the State production of Portland cement was very much in excess of that of any previous 3'ear5 while the production of naturalrock cement increased but slightly; and in 1898 the output of Portland again increased remarkably in this district, reaching upward of 2,000000 barrels, while that of natural-rock cement decreased, the figures reported showing only about a quarter of a million barrels, In 1900 Pennsylvania had a record of fourteen plants for the production of Portland and five for the production of natural-rock cement. Of these several plants had an output of both kinds of cement. In 1901 there were seven plants devoted to the exclusive production of Portland cement, six that made both Portland and natural-rock, and one where only the natural-rock cement was manufactured; three plants were idle, two of them being closed for reconstruction, and four new ones were in process of building. The quantity of Portland cement produced in the State during the 3ear was 7,091,500 barrels or more than half of the entire output of the United States. The figures for the production of natural-rock cement were 942,364 barrels. The materials used in this locality are argillaceous limestone or cement rock for the natural cement, and the same stone mixed with pure limestone for the Portland cement. The Lehigh Valley cement rock, which carries silica and alumina mixed with almost the requisite amount of lime, analyzes as follows:

Analysis of Lehigh Valley cement rock.

Constituent.

Per cent.

Silica

Iron oxi'le ftd 6l"miTia ' . ,

Lime

Mfie"eia , .

Carbon dioxide

Total

9G.S0

Utah. .

A discovery of cement rock, which proved on analysis to be of good quality, was made in 1888 in Utah, and noted in the report of this Bureau on cement for that year as being "at some point between

a Production of cement: Mineral Resources U. R. for 1891, U. 8. Geol. Survey, 1892, p. 537. 6 Production of cement: Mineral ResourcoH U. S. for 1895, U. S. Geol. Survey, 1896, p. 88-1. o Twentieth Ann. Kept. U. S. Geol. Survey, pt. C [oont.], 1899, p. MO.

Ogden and Provo City." In 1890 a company formed to exploit this discovery erected a plant for the production of Portland cement at Salt Lake City, and in 1891 the first production of cement from Utah was reported by this Bureau.* In the fall of 1896 the present company began to manufacture Portland cement, and they have been very successful, in spite of the fact that in the spring of 1898 the plant was entirely destroyed by fire. During the summer following the factory was rebuilt, rotary kilns were installed, and steel buildings erected. The capacit}' was also enlarged. The original plant had a capacity of but 50 barrels per day. The present one produces 600 per day. The stone used is a hard, argillaceous limestone, very similar to the rock so extensively quarried for the manufacture of Portland cement in the Lehigh Valley of Pennsylvania. It is found in Parley's Canyon, about 10 miles east of the plant, where it is quarried from a ledge of rock 50 feet high and lying in strata which stand at an angle of about 75". The rock is taken out by tunnel blasting in an open face, ordinary drills being used. The present plant is equipped with electric power, and powdered coal is the material used for fuel. As this is the only factory in the State of Utah and as the nearest plants are those in Colorado, it will "be easily understood that there is generally a ready market for the entire production of cement manufactured in the State.

Virginia And West Virginia.

An excellent quality of cement was made in Virginia as early as 1835 from natural rock obtained in Rockbridge County. The report of the State Geological Reconnaissance for that year alludes to it as a rock 'Hhat has been quarried and found highly valuable in the formation of water cement." Works were established at Balcony Falls, Rockbridge County, in 1848, which were known as the James River Cement Works.'* In 1898 the cement report issued by this Bureau stated that the plant of the James River Cement Works at Balcony Falls had been destroyed by flood, but was rebuilt in a most substantial manner at Locker, a short distance away.* This is the present location of these works, which are the oldest in Virginia. Subsequently a mill was erected at Blue Ridge Springs, which was sold a few years ago, and is henceforth to be used for other purposes. The Ridgemont cement plant is of recent establishment, and it has been remodeled within a short time. In 1900 a plant for the manufacture of Portland cement was started up at Craigsville, and it has had marked success in producing a fine quality of cement.

a Production of cement: Mineral Resources U. 8. for 1888, U. S. Geol. Survey, 1889, p. 558. Production of cement: Mineral Resources U. S. for 1891, U. S. Geol. Survey, 1892, p. 632, Rogers, Wm. B., Rept. Geol. Reconnaiceance State of Virginia, 1836, p. 91. dCummings, Uriah, American Cements, 1898, p. 21. Twentieth Ann. Rept. U. S. Geol. Survey, pt. 6 [cont.] , 1899, p. 550.

Cement. 809

In West Virginia natural-rock cement was made near Shepherdstown, Jeflferson County, at a very early date. In the State report of 1835 mention is made of the fact that this cement was of the very best quality. An analysis given is as follows:

Ancdysia of cemetii, Shepherdstoimij W, Va.

Constituent.

Percent.

Carbonatfl of mnariKft . .,. - . -

Silica

Oxide of iron and ftliimi nil - --

Total

A great diversity in the chemical constituents of the rock in this neighborhood occurs. The rock used for preparing cement to be used for the locks of the James River Canal had the following analysis:

Analysis of rock used for cement for James River Canal locks.

Constituent.

Per cent.

Carbonate of lime

Carbonate of masmesla .

Silica

Oxide of iron and alumina

Total .

The industry was not kept up continuously in this locality, but about 1870 the Shepherdstown Hydraulic Cement Works were established by Mr. H. W. Blunt, who owned the vast deposits of limestone which outcrop about a mile south of Shepherdstown, along the Potomac River. For more than thirty years this plant produced a superior brand of natural-rock cement, but since the death of the proprietor the mill has been shut down. The situation at Shepherdstown is an exceptionally favorable one from an economic point of view, as the good water power, the adjacent canal, and the near-by railroads are all available. The deposit of limestone shows about 100 feet high above the river, and contains, besides the strata of natural cement rock, a great deal of stone which has all the elements necessary to a good Portland cement. This limestone shows through its thin covering of soil for hundreds of acres.

Other States.

Besides the more detailed account of various well-known sections in the United States where suitable materials exist from which cement can be profitably manufactured, mention should be made of other

aRogers, W. B., Geology of the Virginlaa., 1835. p. lasl'S''®

localities containing similar deposits, some of which have never been developed.

Aylcaiwas. — The cement industry in Arkansas is confined to a single plant, which is located at White Cliffs, and which, under the new management that took possession in 1901, began a production of cement in 1903. This plant is about seven years old and has been idle for the last two years. The factory and buildings have been thoroughly remodeled, and as the raw material owned by the company is practically unlimited, their future outlook is good. The materials used are chalk and clay. The company owns the chalk cliffs on the banks of Little River and 3,000 acres of woodland, including 600 acres of fine-grained clay."

Florida. — Of the material in Florida, Mr. Cvunmings reported in 1898 that what was perhaps the most remarkable natural hydraulic cement rock known occurs near River Junction. This deposit extends for several miles along the left bank of the Appalachicola River southerly to Aspalaga. It comprises over 2,000 acres and has a thickness of 80 feet above the river, containing sufficient raw material to produce over 2j000,000,000 barrels of cement. The material is usually soft enough to cut with a spade and shows a remarkable uniformity of proportions of the ingredients essential to the production of a good cement. The raw material is white, and the manufactured product is as white as marble. This rock has been successfully used, a mill having been operated at River Junction a number of years ago. Within the last four years it has been idle, waiting for capital to develop this field.*

Georgia,— ThQ hydraulic-cement rock in Bartow County has been used for the manufacture of cement since 1889, and has always yielded a satisfactory product. The plant is located at Cement. In 1900 a company was formed to develop the deposits at Clifford, but the plan was abandoned for lack of capital. In 1901 a plant was established at Rossville to produce natural-rock cement, and in 1902 this plant had also a small output of first-class Portland. The plant which is being erected at Rockmart will produce Portland cement in 1903. In the report on cement made by this Bureau in 1899, the deposit of cement rock at Rossville (near Chattanooga, Tenn.) is described as being a bed of natural Portland similar to that at Boulogne, France, but superior to the latter, in that the proper proportion of ingredients is more

Taica, — The natural-rock deposits, the St. Louis marls and limestones, and the deposits of chalk in the northwestern portion of Iowa are all available for the manufacture of good cement, and are described in the Annual Report of the Iowa Geological Survey for 1899.

aElgliteenth Ann. Ropt. U. S. Gcol. Survey, pt. 5 [cont.], 1897, p. 1174. b Twentieth Ann. Kept. U. S. Gcol. Survey, pt. 6 [cont.], 1899, p. 649. T

Twenty-first Ann. Kept. U. 8. Geol. Survey, pt. 6 [cent.], 1900, p. 410. OQlC d Kept. Iowa Geol. Survey, vol. 10, 1899, p. 622.

Cement. 811

Missouri, — Notwithstanding an abundance of good material, the cement industry had not been attempted in Missouri until the year 1902, when the St. Louis Portland Cement Company completed its plant at Prospect Hill Station.

Naska. — In 1880 the manufacture of hydraulic cement had been conducted for some time at Beatrice, but owing to inadequate appliances it was at first insufficiently pulverized. Later it was properly manufactured, and is said to have stood the test of time." In 1880 the business of producing cement was temporarily suspended, and was carried on only at times for the next fifteen years. The plant then became a fairly successful producer, though with only a small output. Since late in 1901 no cement has been manufactured in Nebiaska.

New Mexico. — In 1899 this Bureau reported a small production of Portland cement from Springer, N. Mex. Since that time, however, the plant has been idle, and is now dismantled.

Oregon, — The report on cement made by this Bureau in 1882 states that in Oregon and also in Washington Territory a good quality of hydraulic limestone had been found, and that in Oregon works had been erected for making cement.* The report for 1884 mentions that a deposit was opened in Oregon some years ago, but it was not of an extensive character. In 1887 this Bureau reported that the first attempt in the United States to use the Ransome process of burning and grinding cement — that is to say, the first use of the rotary kiln — had just been made by the Portland Cement Company, of Portland, Oreg.; that those works had just commenced operations, and were located at Oregon City, Clackamas County, and that the material used was a natural Portland cement rock, found in Douglas County. Gas was the fuel, and the abundant water power of the Willamette River was utilized. The works had a 30,000 barrel per annum capacity. In 1888 a new discovery of cement rock at Llewellyn, Lane County, Oreg. , was noted by this Bureau, and it was stated that the material when burned gave satisfactory results and would probably be developed. The report for 1891 stated that the works at Portland had not been operated for some time, owing to litigation among the stockholders of the company, and that the cement had f onnerly been made of natural rock and burned in a rotary furnace.- Since that time no cement production from Oregon has been reported.

Tennessee. — In Tennessee there are many deposits of hydraulic limestone, and cement of a fine quality was produced therefrom before

a Aughey, S., Physical Oeoerraphy and Geology of Nebraska; pt. 2, Qeologj', p. 314. 6 Production of cement: Mineral Resources U. 8. for 1882, U. 8. Geol. Survey, 1888, p. 463. e Production of cement: Mineral Resources U. 8. for 1884, U. S. Geol. Survey, 1885, p. 675. d Production of cement: Mineral Resources U. S. for 1887, U. S. Geol. Survey, 1888, p. 530. Production of cement: Mineral Resources U. 8. for 1888, U. S. Geol. Survey, 1889, p. 658.

/Production of cement: Mineral Resources U. S. for 1891, U. 8. Geol. Survey, 1892, p. 536.

??ogle

In 1886 cement rock of first-class quality was examined at Erin, in Houston County, and there was talk of a plant at that place. It did not develop, however. In 1887 the fact that the cement works at Erie, in Loudon County, were enlarged to give a capacity of 2,000 barrels per month, looked very encouraging. But in the report for 1891, made by this Bureau, it is stated that " no cement is now made in this State,"* and since then no production is reported.

Texas, — Cement has been made in Texas for more than twenty years. The plant which first produced it had an output of natural rock cement, which, though small, was of good quality. About 1892 a plant for the manufacture of Portland cement was erected near Dallas, and has been in active operation since that time. The plant at San Antonio, Bexar County, makes both varieties of cement, and the one at Austin, Travis County, has been shut down for the laat two years.

Washington, — Two companies have been formed in this State within the last few years for the purpose of manufacturing cement, but as yet no plant has been erected.

Wiscofisin, — About 1874 a remarkably good quality of natural cement rock was discovered in this State by Dr. I. A. Lapham, who directed general attention to it in an article mentioning the geological relation existing between this rock and the water limestone of Louisville, Kj, and suggesting its possessing the same useful qualities. In 1875 a cement mill was established near White Fish Bay, and with scarcely a break it has been producing an excellent quality of cement since that time. In 1890 a second company was formed, and shortly thereafter a second plant was erected not a great distance from the first. These two plants produce all the cement made at the present time in the State. They use the same kind of rock, which is described in the second volume of the report of the State Geological Survey of Wisconsin, published in 1877.

a Production of cement: Mineral Resources U. S. for 1886, U. S. Qeol. Survey, 1887, p. 564. b Production of cement: Mineral Resources U. 8. for 1891, U. S. Geol. Survey, 1892, p. 632. c Production of cement: Mineral Resources U. 8. for 1891, U. S. Geol. Survey, 1892, p. 580. Geology of Wiflconsln, vol. 2, 1873-1877, p. 400.

Pkecious Stones.

By George F. Kunz.

Introduction.

Since 1894, when the business of the country was at its lowest ebb, there has been a great advance in the lapidary industry in the United States. The fact that larger establishments have been fonned which are able to purchase the rough diamonds in greater quantities, has placed our American diamond cutters in a position quite equal to that held by those of Amsterdam, Antwerp, and Paris. The cutting of our native gems has also proved to be something of an industry, notably in the case of the beryl and the amethyst, found in North Carolina and Connecticut; the turquoise, from New Mexico, Arizona, Nevada, and California; the fine-colored and deep-blue sapphires found in Montana; the colored tourmalines, of San Diego County, Cal. ; the chrysoprase, mined at Visalia, Tulare County, Cal.; the garnets of Arizona and New Mexico; and also, notably, the pale-purple garnets from North Carolina.

In addition to the usual work on gems, there has been the greatest demand known in years for fine cutting. Stones already cut abroad have been recut here with sharper angles and a higher polish. The lentil-shaped stones, the marquise, the double marquise, the heartshaped, and the rose-brilliant stones are shapes that genei'ally indicate the recutting of the gems. This form of lapidary work requires very great skill. The cutting must usually be of such a character as to suit the fancy of the buyer. This fact has led to the establishment in this country of a number of lapidarian works in which all the employees are much more skillful than were those of a decade ago, and their work is of a much higher class than the commercial work of Oldenburg and of other foreign gem-cutting centers.

The total of precious stones imported into the United States for the year 1902 reached the high valuation of $24,753,586, being $1,938,234 more than for the previous year, and nearly nineteen times

as great as in the year 1807 — showing the enormous advance in wealth and taste that has taken place in this country in the course of a generation.

The production of precious stones in the United States in 1902 was valued at $338,300, as compared with $289,050 in 1901.

Indiana.

In the report of this Bureau for 1900, mention was made of the finding of a diamond of 3f carats on a branch of Gold Creek, some 9 miles north of Martinsville, Morgan County, Ind. Reference was also made to the rumor that other smaller diamonds had been found in the same region. Recent information received from Mr. R. L. Royse, of Martinsville, gives a full account of the facts in this matter. The stone above noted was found by an employee of his, from whom he purchased it. A considerable amount of panning for gold has-been done in the streams of Brown and Morgan counties for some years by certain old residents, well known as farmers and prospectors. Two of these have found occasional diamonds. Mr. Royse himself possesses six besides the one mentioned, which he sold. Of these, four are from Brown County, purchased from one of the old prospectors who obtained them; three are very small, weighing hardly a carat together; the fourth weighs about 1 carat. In color, the last is a blue-white, the others are tinted-a brown, a yellow, and a bluish one. Another local gold-seeker has a diamond of 2 carats, which he found also in Brown County, making five positive known from that county, to say nothing of others reported, but not actually seen by Mr. Royse. From Morgan County he knows of three, viz., the large stone first announced, found 3 miles west of the village of Centerton; a little one, of carat, found by himself in gold-panning; and a third, of f carat, purchased from one of the old prospectors. Most of the stones are clear and flawless. This makes eight in all positively known from these two counties of central Indiana.

As regards the minerals associated with the gold and diamonds of the creeks of this region, the writer received samples from Professor Blatchley, the State geologist of Indiana, which comprised the following species and varieties: Quartz, vein in ironstone; white chalcedonic; rolled pebbles, colorless and clear, also milky; red jasper; iron ores — magnetite, showing some cleavage, with quartz and decomposed muscovite; red hematite, resembling the ore of Marquette; limonite, a rolled pebble; menaccanite; pyrite, small cubes in quartz; marcasite, stalactitic; zinc blende (sphalerite), cleavable, yellow with black spots, in quartz; metallic inclusions, evidently rutile, in corundum, of a

Precious Stones. 815

4 by 2 mm.; garnet grains (almandite), purplish red; eyanite, blue reflections in green, prism fairly perfect; amphibole, brown, with chatoyant reflections; rocks, gray shale, and putty-like clay. Only the magnetite and menaccanite are at all abundant, and next to these the garnet.

Wisconsin And Canada.

In regard to the source of the diamonds carried south by the Glacial ice sheet and found scattered along the line of the terminal moraine from Wisconsin to Ohio, Mr. Archibald Blue, the Canadian geologist, is disposed to differ from Professor Hobbs as to the distance through which they have been transported. The latter, estimating from the direction of the strise and the width of what he terms " the fan of distribution," locates the source in the unexplored region of Ungava, east of Hudson Bay. It has already been suggested in the report of this Bureau for 1899 that this determination depends on the theory of there being but a single source, or at least on the theory of the sources lying within a very limited area; whereas if there were localities, as in Brazil, extending through or along a considemble region, they need not lie so far to the north. This is essentially the position taken by Mr. Blue. He emphasizes the fact that the bulk of the material forming the terminal moraine and the moraines of recession has been carried only a moderate distance from its source, and although he admits the possibility of Professor Hobbs's view, ho is disposed to question it.

In this article he reviews the general facts of the occurrences in the United States, especially those in the glacial drift, and describes also briefly the theories as to the source of the diamonds in Africa. He goes on to say that there has been no search made for diamonds in Ontario, " although Dr. Lawson and Dr. Coleman some time ago suggested that they might be found in the Rainy Lake region." These authors, and Mr. Blue himself, show an evident leaning toward the theory that diamonds are formed by the action of igneous rocks upon strata containing carbonaccous matter, and hence a number of references are made to points in Ontario where rocks of these kinds have been observed in some proximity, as possible sources for the diamonds of the drift. Logan, Macfarlane, Coleman, and Lawson are cited as to ancient volcanoes, numerous dikes and intrusions, and graphitic and carbonaceous slates at various points north of the Great Lakes. Mr. Blue himself emphasizes the vicinity of Thunder Cape, Lake Superior, and of Balfour, near Sudbury, as presenting conditions favoring, or at least suggesting, the production of diamonds in this manner, and he advocates careful investigation at these points.

a Blue, Archibald: Are there Diamonds In Ontario?: Bureau of Mines Report (Ontario), 1899, pp. Extract from Mineral Resources U. S. for 1899, U. S. Geol. Survey, 1901, p. 8.

en Nat, vol. 4. new seri,. PP- 461-463. GoOQIc

dQeol, Surv. Canada, 1887; Geol. Rainy Lake region, p. 180 F. ay

Brazil.

An exploration company has been formed in London for the purpose of searching for diamonds in the Serra de Frio Mountains in the State of Minas Geraes, the object being to explore the mines, to work them, and to sell diamonds. The report" is very elaborate, but no great amount of development is recorded as having been carried on.

Diamoiids and carbons in Bahia, — An extended account has lately been given by Mr. H. W. Fumiss, United States consul at Bahia, of the occurrence of diamonds and carbons in the State of that name in Brazil. This account is valuable not only in itself, but for comparison with the similar account reviewed in the report of this Bureau for 1899 of the diamond mines of the State of Minas Geraes, by Mr. T. C. Dawson, of the American legation at Rio de Janeiro.

Mr. Fumiss outlines briefly the history of the Bahia diamond workings from their reported discovery in 1821 and their first development in 1844, when a rush began for the district. Sinoe that time they have been more or less actively worked. Fourteen mining districts are officially recognized, but Mr. Fumiss groups these into two well-marked geographical sections, one in the central part of the state, in the basin of the Paraguau River and its tributaries, and the other in the southern part, along the valley of the Pardo River. His experience is almost wholly with the first of these two regions. The latter, which he calls the Cannavieras district, is reached from the port of that name by ascending the Pardo River, and has been known as a dianiond region only since 1881. An account of it from other sources will be found in this report further on. Very recently other descriptive articles have appeared — some of them already referred to in reports of this Bureau — which point out the richness of these Bahia districts along the almost unexplored valleys of the numerous affluents of both the Paraguau and the Pardo.

The enormous production of diamonds from the African mines, together with the facts that the methods employed in Brazil are crude and unsj'Stematic and that the most accessible places at all profitable under such methods have been much worked over and worked out, have caused a great decline in the Brazil production for some time past. But there is a very wide extent of diamantiferous country awaiting only the introduction of improved processes.

The chief center of production in the first or Paraguau River district lies 260 miles or more inland from the city of Bahia; but diamonds begin to be found in the bed of the Paraguau about 150 miles from the coast, and from that point up the river to the town of Andarahy, which is one of the mining centers. Their occurrence in the

a The Diamond Fields of Brazil, 1902, London, pp. viii, 75. h U. S. Consular Reports, No. 1423, August 20, 1902.

Jigitized by

Precious Stones. 817

river bed, however, renders them difficult to obtain. The diamantiferous region extends for about 172 miles, with a breadth varying from a maximum of 16 miles to a minimum of 3 or 4. It includes several mountain ranges, the Serra do Sincora, with the headwaters of the Paraguau and the Una, the Serra dos Remedios, the Serra das Lavras Diamantinas, the Chapada Velha, and a portion of the Serra do Espinhao. The most productive region is apparently that of the foothills east of the Seri*a das Lavras Diamantinas, along the small tributaries of the Paraguagu.

The geology of the region is described by Mr. Furniss as consisting of granitic hills, with much sandstone and conglomerate. The granite shows a slightly inclined stratification, and hence is probably in strictness a gneiss. This rock is frequently broken by gullies, fissures, or crevasses, which are in many cases filled with the sandstone and conglomerate, and these latter also occupy small basins in the crystalline rock. All are much weathered and in some places disintegrated. The diamonds and carbonados occur in the f ragmental rocks, and according to Mr. Furniss, in the granitic also, a fact of much interest, if it shall be clearly established; but they can only be obtained from those portions of either that have been pretty well disintegrated. Much of the work is done in the gullies, fissures, and cavities, which are occupied by soft sandstone and conglomerate; but sometimes these are rendered inaccessible, at least in their lower portions, by hard ledges or by water; and hence promising spots, rich in diamonds, have to be abandoned as unworkable by the rude and simple methods employed.

The river and stream beds are largely occupied by bowlders and gravel, the latter apparently the equivalent of the diamond-bearing formaao of Minas Geraes, described in Mr. Dawson's report. The small basins in the gneissic rocks of the hillsides would seem to correspond to his gupiaras. Mr. Furniss describes the digging out of the cascalho, or diamond gravel, and piling it up until the rainy season, and also the conducting of water in some cases through native-made sluices, etc., to wash the cascalho, in ways that correspond closely to those noted by Mr. Dawson. The washing process, first in troughs or ditches, and then in wooden basins (bateas), and the skill acquired in picking over the residue and recognizing diamonds therein, all resemble methods described by Mr. Dawson, and are identical also with those of the South Borneo diamond miners, depicted by M. Gascuel in his recent article.

The method of obtaining the river-bed stones, however, presents a marked difference from that in Minas Geraes. Nothing is said of diverting the stream and excavating its bed during the dry season, as in the valley of the Jequitinhonha, but Mr. Furniss teJls of diving as

a Productloii of Precious Stones, extract from Mineral Resources U. S. for 1901, U. 8. Geol. Survey, 1902, pp. 17-18. . IC

M E 1902 52

employed along the Paraguau. This is conducted in two ways, the principal one involving the use of what he calls "diving machines," i. e. , apparently movable caissons, beneath which two men can work alternately for three hours each, gathering the cascalho into sacks lowered from above. This method is in use along the Paraguau from JoSo Amaro, the point where diamonds first appear in the bed, as before noted, nearly up to Andarahy; and there are at least six of these machines engaged during the available season. The other method is pursued by individuals, who dive naked into the shallow parts of the river, especially in the dry season, and bring up what they can gather of the cascalho during a brief submergence.

Mr. Furniss states that the field is not one to attract the fortune seeker, although occasional wealth may be obtained; but the uncertainty is great, hardships are many, food is poor, and climatic conditions are trying and unhealthy.

Some five thousand people are engaged in diamond mining, but irregularly and with no system. The tools are the commonest — a hoe, a crowbar, a stout iron hook on the end of a pole, sometimes a hammer and a hand drill, and two basins for washing — a larger and a smaller. Rarely a little powder is used to blast away some obstructing piece of rock. Through years of such crude exploitation, sand and gravel have been washed down from the small streams to the larger ones, covering up rich river beds with quantities of debris, which will require considerable expenditure of capital to remove. In a tour through the entire district, Mr. Furniss failed to find a single attempt at modern methods. " In the home of the carbon there was not even a handpower rotary drill, much less a carbon set drill, which would frequently save days of work and much expense." Instead, men with hand drills and hammers make three holes a day. In many places water comes in faster than it can be bailed out; and such openings have to be abandoned until some methods of pumping can be introduced. The native pumps, described with so much interest by Mr. Dawson, in Minas Geraes, do not seem to be known or used here.

All diamond and carbon lands belong to the State, which maintains a director at the town of Lemoes. The laws are specific, though liberal and persons of any nationality may lease claims. The property must be described and applied for in writing; and then, after a prescribed time of announcement, it is oflfered at auction, the highest bidder obtaining a lease for a period varying from one year to ten, with certain rights of renewal. There is usually but little competition at the sale. Individuals who do not care to lease clainis may take out licenses for a fee of $1.50 a year, and must also, each one, pay a local village tax of 10 milreis, about $2.40. Mining without lease or license is subject to confiscation of tools used and stones found, one-half going

Ic

Pbecious Stones. 819

to the informer. About 350 leased claims are being worked, and " it is estimated that there are 450 other productive claims without lease."

Besides these leases and licenses, some large concessions have been granted to individuals and companies, almost all Brazilian, save a French company at Cannavieras. These and the ordinary lease-holders generally work their mines on shares rather than by fixed wages, the miners paying the lessees one-fourth or one-fifth of the diamonds and carbons obtained.

This method is found more profitable, as the miners work better on their own account than for a fixed wage. There is little chance for cheating, as the buyers know all the parties concerned and reseiTe the proper share for the owner when purchasing.-

Mr. Fumiss refers to the recent high price of carbons and to the statement frequently made that it is maintained by a syndicate or combination. He finds no ground, after full inquiry, for the idea of any such combination among the miners, the buyers in the field, or the exporters at Bahia. He gives a full account of the manner of purchasing by field buyers representing five principal firms in Bahia, all being kept systematically informed as to market rates, which are determined by values in Europe constantly cabled to Brazil. The field buyers work independently, and there is even more or less competition for any particularly good material. The miners obtain prices that are a fair equivalent according to the rates abroad and the fluctuations of the Brazilian currency.

The great increase in prices for carbons is illustrated by some figures given in the report. To cite only in pai*t: In 1894 carbons were bought in the field from the miners at from $4 to $4.40 per carat; in 1898 the rate paid was $11 to $11.20. The cause of the higher prices lies principally in the vastly increased demand for carbons in mining and drilling machinery, with the fact that while the supply in existence is immense, it is practically limited by the defective methods of working. The present output averages 2,500 carats a month; but, without more capital and improved methods, Mr. Fumiss thinks it can not maintain even this rate; and the demand is steadily growing. Water power is abundant, ' and with electrically run drills, pumps, and other machinery, there is fabulous wealth awaiting developmentJ'

Two grades of carbons are recognized — good, and porous or crystalline. Present prices for the best grade range from $24 a carat for stones over threefouilhs of a carat in weight down to $7.20 for those between three-fourths and one-half a carat, and to about $2.76 for smaller ones, which last are mixed with imperfect and refuse diamonds. The porous and crystalline grade of carbons sell for about half of the above-noted rates. The average size of the stones found is about 6 carats in weight. Stones between 1 and 2.

most desirable, as they do not require to be broken up for commercial use. Very large specimens command a relatively lower price, on account of the labor and cost of breaking them up. Two enormous pieces have been found within a few years past, upon claims belonging to the same lessee, who received in both cases one-fourth of the first selling price. The first was the unique and celebrated mass, weighing 3,150 carats, found in 1895, and briefly mentioned in the report of this Bureau for that year; the other was discovered in 1901, and weighed 750 carats. The prices paid for these two remarkable stones furnish a striking illustration of the advance in values during the interval of six years. The amount paid the finder >vas, for the second, $17,380, although the first (five and a half times as large) had brought but $16,000. The first mass went through several hands, and was purchased in Bahia for 121,000 milreis, about $25,400; it was then sent abroad and finally broken up, not in Paris, as stated in Mr. Furniss's article, but in London, as descnbed in the paragraphs following this abstract. The other mass is also described in this report farther on. Another immense carbon, of 975 carats, was mentioned by Mr. Furniss in his former article, as found in 1894,* but he does not refer to it here. It is said to have brought $19,300 in Paris, where it was finally broken up, but it failed to realize anything like that sum when sold in pieces.

The diamonds of the Paragua9u country are stated to be more brilliant than those of the Cannavieras region but less perfect and clear; they occur with the carbons, and are often impaired by black inclusions. The field buyers divide them into five grades: Bons, those of good shape and color; fazenda fina, small and tinted stones, but otherwise fine; mell6, off-colored and imperfect; vitriar, small, bright stones of various colors; and funds, defective and broken stones, unfit for jewelry, and mixed as above noted, with second quality carbons. The prices paid in the field vary somewhat, but average for first grade $11.50 per carat; for the second, $10.50; for the third, $5, and for the fifth, $2.50. The fourth class, the brilliant little vitriars, are sold by the quarter carat, which contains from six to eight stones, for 12 milreis ($2.88), about the same rate as the bons. The other grades are usually bought by the oitava, 17i carats. To these prices must be added transportation to Bahia by special carriers and the Bahia dealers' profit for the prices in that city; and for stones reaching Europe, the export duty (13 per cent), the steamer charge, and insurance must also be added.

The stones are mostly small, averaging about 1 carat. In a lot of nearly a thousand carats' weight of stones examined Mr. Furniss the largest weighed 3i carats. About 30 per cent were of the poor

a Seventeenth Ann. Kept. U. 8. Qeol. Survey, pt. S (cont.), p. i

Twentieth Ann. Kept. U. S. Geol. purvey, pt. 6 (cont.), 1809, p. 5GhOQl

U. S. Qeoloqical Survey

Mineral Resources 1902 Pl. Ii

Largest Piece Of Carbon Ever Found.

Actual Size

Pbecioub Stones. 821

grade, f undo; the rest were good to fair. Other lots gave like results, and these are probably average examples.

The actual output is hard to estimate. The only data are the export figures, aid these are far below the reality, as the amount thus indicated for both diamonds and carbons is less than the value of the latter alone. This shows that large quantities must leave the country without paying duty. All the shipments are to Paris and London.

The diamonds are exported uncut, though there are several cutting establishments in the diamond region and one in Bahia. But there is at present little demand for cut stones in the country, a condition different from that reported in Minas Geraes by Mr. Dawson in 1899, but perhaps due to financial depression, as Mr. Furniss believes.

The carbons are sold in mixed lots, and all sorting is done in Europe. So long as this method is maintained, American dealers will continue to purchase abroad, at higher cost, rather than in Brazil, where they can not obtain selected material, and must take all sorts and sizes of carbons together.

A recent article in Le Diamant, of Paris, refers to this same subject of the difference between miscellaneous and selected carbons, and states that in London, which is the principal market, the dealers sell unsorted lota, which are of little use to the engineer or the factory superintendent, who needs certain sizes and qualities; that Germany has lately recognized this fact, and that consequently the Berlin dealers are developing a profitable business in assorted carbons.

With regard to the great carbon masses, although only two are usually spoken of, there seem really to be three on record: (1) The one of 975 carats found in 1894, which was broken up in Paris and sold at less than its cost, $19,300, as stated by Mr. Furniss in his former article referred to above. (2) The greatest piece, found in 1895, shown in PL 11, natural size. As to this carbon, a recent letter to the Journal of the Society of Arts and a subsequent one to the writer from J. K. Gulland, esq. , of London, furnish precise details. He says: "It was not broken up in Paris; I broke it up here myself. The exact weight was 3,078 carats. I bought the stone on September 19, 1895, for £6,464 (about $32,000), broke it up into pieces suitable for use in diamond drills, and resold the whole at 10 per cent profit. Now, it would be worth £26,163 (about $130,815). The present price of carbon at the mines (November 17, 1902) is £8 10s. to £9 per carat," for good quality. (3) The third, though usually spoken of as the second, is the mass found in 1901. This was taken abroad and exhibited at the Diisseldorf Exposition of the same year. It is here shown in the accompanying illustrations, Pis. ni and IV. These and the following notes are from the Organ des

a Twentieth Ann. Kept. U. 8. Geol. Survey, pt. 6 (oont), 1899, p. 567. 6 Jonmal of the Society of Arts, 1902.

Vereins der Bohrtechniker, " Vienna, of April 15, 1902, to which the data were furnished by Messrs Joh. Urbanek & Cie., of Frankfurt-am- Main. The stone as a whole weighed 750i carats; the single pieces into which it was divided weighed from 3 to 4 carats each. Besides its extraordinary size, its quality was remarkably fine, and hence the division was very successful, especially with regard to the beautiful surfaces of the separated pieces. The division itself of such a stone is a very peculiar task, and requires long experience to achieve a successful result. Moreover, the artisan, in order to complete the work properly, must needs forget that he is handling a stone worth 100,000 marks ($23,600). Carbons vary much in hardness, and they can not stand a heavy blow or exposure to great heat; a hard blow will often crush the stone to fragments, and a great heat may destroy its quality. Of great interest is the statement that some samples of carbon used in a boring drill were changed, in consequence of the stopping of the water current, to a black mass resembling glass (perhaps a graphitic material), and so soft as to be easily affected by a file, while the soft iron of the borer was hardened to steel. Ilmenite, nigrine, and other black minerals are often mistaken for carbon, but they naturally fall to pieces the moment the pressure of the drill is applied to them.

British Guiana.

Further data have appeared as to the diamond discoveries in the Upper Mazaruni Valley in British Guiana, in the Thirteenth Annual Report of the Institute of Mines and Forests of British Guiana on the gold, diamond, and forest interests of the colony for 1901-2.* About one page is given to the diamond industry, and the facts may be summed up as follows: In the year ending June 30, 1902, the number of diamonds "declared" was 132,077, nearly all from the Mazaruni district, though 1,414 stones came from the Potaro, and a very few from other districts. These occurrences are noted as indicating a somewhat wide distribution of the diamond-bearing deposits. Of late, stones of somewhat larger size have been found, though most of the Guiana stones are quite small. They are spoken of as closely similar to those from Diamantina, Brazil, and the suggestion is made that careful and extensive search may develop the presence of deep deposits, such as some of those in Minas Geraes.

Machinery is being introduced, and good results are looked for, although, as in previous years, the remoteness of the Upper Mazaruni Valley and the difficulties of transportation are still great obstacles to successful progress. On the other hand, these conditions prevent a

a Organ des Vereins der Bohrtechniker, 1902, Wlen, April 15.

Mineral Resources U. S., 1901, U. S. Geol. Survey, 1902, p. 785.

o Thirteenth Ann. Kept. Institute Mines and Forests of British Quiana, Georgetown, 1902, p. 16,

Iv:

U. 6. Geological Survey

Mineral Resources 1902 Pu Iii

PROCESS OF BREAKING THE THIRD LARGEST PIECE OF CARBON EVER FOUND. WEIGHT. 7504 CARATS: VALUE, $23,600.

1, Outer half ot the piece, showing a break diagon.

three breaks, making five pieces

ally across it 2, reverse (inner) side of 1, *howirig. fces of the half of the carbon Jigitized by IV

U. 8. Geological Survey

Mineral Resources 1902 Pl. Iv

THE CARBON SHOWN IN PLATE III. AS FINALLY BROKEN INTO PIECES FOR DRILLS.

1,1a, Inner sides of upper part of the carbon shown on Plate III, fig. 2; 2, the entire third largest piece of carbon b'oken into pieces, that weigh from three to four carats each, the sizes generally used for diamond drills.

Precious Stonks.

rush of the undesirable element that has greatly impeded operations at some of the gold mines, and thus there is a compensation.

Plans are under consideration by the Colonial Government for opening a road from the terminus of steam navigation at Potaro to the still water above the Mazaruni falls, which is already traversed by a steam launch. Another proposal is for a light steam or electric railroad extending the Caburi road, which has been built for some distance above Bartica. This is in the line of United States Consul Moulton's suggestion referred to in the last report of this Bureau.

No less than twenty-seven companies are engaged in mining, and have ''declared" diamonds during the year; but only fourteen of these have reported over 100 stones. The greater part of the production has been by Messrs. Armeny & Fogel, 55,608 stones; the British Guiana Company, Limited, 27,557; the Mazaruni Company, Limited, 26,280, and the Marshall Syndicate, 14,045. The customs returns show an export for the year covered, of 9,822i carats; if the bulk of the stones obtained have been exported, their size would appear to average only about one-third of ai carat. No data are given as to this point.

The following are the returns supplied by the British Guiana Department of Mines as to diamonds and other precious stones (evidently nearly all diamonds) produced during the past year, showing the monthly output:

Produdion of diamonds and precious stones in British Guiana in 190£, by months.

Month.

Number.

Weight.

January... February . .

March

April

May

June

July

August . . . . September. October November . December .

Oaratt. 1,0981 1,176* 1,26U 1,516H

ll,718i

It thus appears that the 172,844 diamonds give an average of nearly 15 stones to the carat.

India.

The Mining Journal (London) for February 28, 1903, has accounts from its correspondents as to gem mining in India. Although that

country has been so long renowned in history and tradition as the source of gems, little is now being done, save the ruby mining in Burma. The diamond industry is practically dead. Work is still carried on by the Madras Diamond Company, at Vajrakarur, but no output is reported for 1902. In the alluvial mines of the Bundelkund, in central India, the last returns were of 169 carats, in 1900.

Borneo.

Diamonds have long been known to exist in southwestern Borneo, in the region of the Landak River near the mouth of the Seran River. A piece of so-called serpentine has been there obtained which incloses a diamond apparently in its time matrix. The Rajahs of Panembohan and Pongerans possess an immense belt studded with diamonds, said to be from this district, one stone weighing 67 carats. It is a peculiar belief of the natives that the gold and diamonds in the earth are a sort of bank, and should be worked only when they themselves need money, since they believe that gold and diamonds are always there when they desire them. ' The great Borneo diamond of Mattam, said to weigh 367 carats, is believed to be from this same region. During the last year the entire district has been examined by competent engineers, and an effort is now being made to exploit it systematically.

In the last report of this Bureau an abstract was given of the account by M. Grascuel of the diamond region of southeastern Borneo. [In this abstract the word northern" occurs in two places for "southern" by an error noticed too late for correction.] The account dealt principally with the Bandjoe-Irang district and the valley of the Martapoera, an affluent of the Barito, but mentions other less-known districts in the same portion of the island. A recent article, referred to in the Geologisches Centralblatt,* and taken from the Dutch of H. E. D. Engelhardt, on the Doessonlaender district of southeastern Borneo, mentions the occurrence of diamonds and gold along the tributaries of the Barito, especially on the Mewien and the Djoeloei, left and right branches, respectively, of that stream.

New South Wales.

Mr. George W. Card, F. G. S., curator and mineralogist of the Geological Survey of New South Wales, has recently described very fully the eclogite-bearing breccia from the Bingera diamond field,** which is of so much interest in its relation to the occurrence of the same rare rock in the "blue ground" of the African diamond mines. This

a of Precious Stones, extract from Mineral Besources XT. S. for 1901, U. S. Geol. Sorvey, 1902, pp. 13-19.

bQeol. Centralblatt, vol. 2, No. 23, p. 798, December 1, 1902, Leipzig.

c Bijdragen tot d. Taal-, Land-, en Volkenkunde y. Ned. Indie. 6 Volgreeks, 8, d. (D. LIL), 1901, pp. 179-222, s'Gravenhage Mart Nijhoff.

d Records of the Geological Survey of New South Wales, vol. 7, pt. 2, 1902, pp. 29-39, Pis. IX-XJ.

Ic

Precious Stones. 825

peculiar breccia has a close resemblance to the diamond-bearing rock at Kimberley, and like it, occupies a vertical "pipe" or chimney, piercing through sedimentary beds, and is itself traversed by basaltic dikes. The locality is at Ruby Hill, 12 miles south of Bingera, and has been described by the Government geologist, Mr. E. F. Pittman, in the Mineral Resources of New South Wales.** The occurrence of diamonds in this eclogite breccia, or at least in very close association with it, and the recent recognition of the same fact in South Africa, give it extreme interest. The eclogite occurs in bowlders and fragments in the intruded basalt and largely in the breccia, from which Mr. Card thinks that it may have been taken up by the basalt. The breccia consists of pieces, large and small, of melaphyre, claystone, and eclogite, embedded in a granular mass composed largely of minerals liberated by the decomposition of the latter. The masses of eclogite are seen to be altering from without into the gi'eenish earthy mass of the decomposing breccia. Of the liberated minerals, pyrope garnet is the most abundant, then a green pyroxene, a little feldspar, occasional quartz, pleonaste, zircon, and perhaps cyanite. There is much secondary calcite and some magnetite. The whole is singularly like the African mixture.

Mr. Card goes into a detailed discussion of the modes of occurrence of all the components both of the eclogite itself and of the basalt and the breccia containing it, and also of their processes and products of alteration, illustrated with plates of microscopic sections. The paper is one of great interest both as a study of alterations in a rare rock and in connection with the recent views of Professors Bonney and Crookes on an eclogite source for the Kimberley diamonds.

Within the last few years quite extended discoveries of diamonds have been made in New South Wales, and considerable work has been done by individuals and by companies. But the diamonds, though brilliant and remarkably hard, are all small, and the Australian yield can not therefore become of great importance. The modes of occurrence, however, are interesting. The mining region is somewhat extensive, and there are half a dozen principal centers or "fields" located in the northern central part of New South Wales, chiefly in the counties of Hardinge and Murchison, a little north of south latitude 30, and in about longitude 151 east.

In most of these fields the occurrence is much like that familiar in California, in old river gravels which have been covered and protected from erosion by flows of Tertiary basalt. The diamonds are scattered more or less abundantly through these old gravel beds, with gold, stream tin, and various minerals often found in such associations; and occasionally the gravel is cemented by iron oxide into a sort of conglomerate, recalling the Brazilian cascalho; but there is no indication

a Mineral Renources of New Sorth Wales for 1901, pp. 292-296.

of the original source. At one or two points, however, they have recently been traced to outcrops of a volcanic breccia, closely resembling the African. This is the case at the Ruby Hill mine, about 12 miles south of Bingera, and is also reported at the Mittagong mine, though the latter has not been much investigated.'' As in Africa, dikes of basalt are found traversing the breccia. The point of especial interest, however, is the fact that in the breccia, and also in the dikes, occur pieces and irregular masses of the same rare and hard rock, eclogite, above referred 'o in connection with the latest phases of the discussion as to the source of the African diamonds. It does not appear that any diamonds have yet been detected in this material itself; but its presence under similar circumstances is of great interest, and gives hope of light being shed on the whole question by fuller and further investigation.

Queensland.

The diamond discoveries in New South Wales have been repeatedly noted in former reports of this Bureau, but no diamonds have been found in the adjoining province of Queensland untU quite recently, when a single crystal has been obtained and a few others are reported.* The stone was found in the ''sapphire wash" of the Anakie sapphire district, elsewhere described in this report (p. 35), at a point in its eastern portion a little south of Policeman Creek. The sapphire miners have been in the habit of mixing a few pale and off -colored stones in the lots that they sold, and an investigation as to this was undertaken by the Queensland Geological Survey. . The diamond, unrecognized and taken for a white sapphire, was found among a group of such off-colored stones shown to Mr. Dunstan of the survey, by Mr. McCrystal, who operates the claim where it was found. He thinks that other similar stones have been sent away by the miners as of little value. The diamond is a crystal of li carats, flawless and colorless, and in form is an octahedron, with faces of the trisoctahedron and hexoctahedron. It was found at the bottom of the layer of sapphire wash, which was clayey and full of bowlders, and which contained also blue and green sapphires, corundum, pleonaste, zircon, and quartz pebbles. The sapphires are believed to have come from a basalt, which spread over much of the region in Tertiary time, but is now largely decomposed, save as it forms the capping of some scattered high hills. The country rock beneath consists of very ancient schists and granites. Nothing can be judged as to the source of the diamond as yet, and it seems pretty clear that there is no frequent or important diamond occurrence in this region.

a Pittman, Mineral Reaources New South Wales, 1901, pp. 892-395.

b Dunstan, B., Report on the Sapphire Fields of Anakie: Queensland Qeol. Suryey, Bilsbane, 19Q2, p. 19, and PI. II, fig. 10.

Precious Stones. 827

Siberia.

Two small diamonds have lately been obtained from new localities in Siberia, in the alluvial gold mines of northern Taiga, department of Yenisei. The first was discovered in 1897 in the gold mine of Baladin, on the Melnitschnaia, a tributary of the Pit River, itself a right-hand affluent of the Yenisei. The second has been described in two or three articles P. Jeremejev* and L. Jascewski,* with some dispute as to the precise locality, but it is from one of the gold mines of the same neighborhood. This is a colorless, transparent crystal, flattened in form and twinned in structure, weighing but 0.13 gram. Its crystallography is given in detail by Jascewski in his article.

An ''Index of Minerals which occur in the Mining Districts of the Ural Mountains" has been published by W. P. Yarkov. In this paper diamonds are mentioned as found in the mine of the Chariton Mining Company on the river Dankowka (a tributary of the Serebrianaja), about 3 miles from the Serebrjanovski factory, and at the Nikolai- Swjatitelski mine on the river Issa (district of Goro-Blagodad). Their occurrence is not described, but it is presumable that they are found in connection with gold placers; and as nothing is said of their size or frequency, they are doubtless small and rare. Microscopic diamonds were also recognized as long ago as 1871 by Prof. P. W. Jeremejev, from the Schischim Mountain, near the Kusinski works (district of Zlatoust), but their interest is purely scientific and in no wise practical.

As to the finding of diamonds in the Ural region, moreover, a recent article by N. Wyssotzky on the gold mines of the Kotschkar district, mentions them as sometimes occurring with gold in the sands, together with topaz, beryl, chrysoberyl, euclase, chrysolite, garnet, tourmaline, cyanite, rutile, corundum, and smoky and amethystine quartz.

The occurrence of the diamond in the Ural country was for a long time questioned, but at various times for seventy years past small diamonds have been found in or in close proximity to the platinum and gold washings of the Ural Mountains. Some two hundred stones have been obtained hereabouts, but all of small size. A description of these occurrences has been given by the writer in the Journal of the Franklin Institute.-

In a collection at Nijni-Tagilsk the writer saw a small white crystal weighing one-third of a carat, a twinned hexoctahedron, which was pronounced phenacite by a local mineralogist, who had taken its spe-

a Glinka, Verb. Bun. min. Ges. St. Peteraburgr, (2), vol. 86, 1897, Prot, p. 75.

ft Ball. Acad. Sd. St.-P6terabourg, (5), vol. 9, 1898, Prot., pp. xlv, xv; Buss. Auszug In: Verb. Buss, mln. Qes, (2), vol. 86, 1899, Prot, p. 34. e Verb. Buas. min. Ges., (2), vol. 86, 1899, Prot., pp. 42, 43. dBull. Ural Soc. Nat. Sci., Ekaterinbourg, vol. 22. 1901, pp. 26-36.

eCentralblatt filr Mlneralogie, Geologic und Paleontologle, No. 11, 1902, Stuttgart, pp. 345-346. /Jour. Franklin Inst, 1898, p. 23.

&gt;Oq Ic

cific gravity, but which the writer identified aa a small opalescent white diamond, similar to those from the Bagagem mines in Brazil. It was found in a small brook near the village of Kalstchi.' The existence of pyrope garnets here and their frequent finding seem to favor the theory of the presence of diamonds, although some of the Russians believe that the man who found the diamonds for Humboldt had really deceived him. The pyropes, however, are frequently associated with diamonds, and to a certain extent would suggest their occurrence.

The California diamond district in Trinity and Del Norte counties — the Del Norte-Smith River occurrence — presents a resemblance to this Ural region in the great frequency of platiniferous and chromiferous gold sands in upper California, Oregon, and northward, which would suggest the advisability of further search for diamonds. Very minute diamonds have been found in these sands, but it is possible that larger ones may be encountered. In this connection it is well to recall Prof. J. F. Kemp's statement that "minerals associated with the platinum nuggets are the familiar ones which have been so frequently studied in connection with the much more abundant gold-bearing placers. The commonest ones are gold, silver, copper, iridosmine, and other members of the platinum group — chromite, magnetite, menaccanite, garnet, zircon, rutile, small diamonds, topaz, quartz, cassiterite, pyrite, and epidote. Almost any mineral of high specific gravity which is commonly met in rocks may be expected to appear in the pannings." Hence it is advisable to look for the heavier gem minerals, including the diamond, in the tailings of platinum washings.

Note. — With regard to the discovery of a single diamond in Bohemia, in connection with the pyrope garnets at Dlaschowitz, see under Pyrope, Bohemia and Saxony, p. 838.

a Jour. Franklin Inst., September, 189B, pp. 2S-24. b Bull. U. S. Qeol. Survey No. 198, 1902. p. 26.

Precious Stones. 829

Corundum Gkms, Sapphire.

Montana.

The sapphire locality on Cottonwood Creek, Montana, noticed in the report of this Bureau for 1896, has recently been investigated by Mr. J. M. Jamieson, and in June, 1902, he discovered, at the head of the main fork of Dry Cottonwood Creek, the source from which the sapphires of that locality were derived. He does not state the character of the rock, which is doubtless an igneous dike, but says that it is a ledge some 200 feet wide, traceable for 3,000 feet, and contains sapphires and garnets. Little development has yet been made, the deepest cut being about 8 feet, but Mr. Jamieson proposes to exploit the locality further very soon. He states that sapphires were found in the bed of the creek about thirteen years ago (1889), but that the ground along the creek was too flat for placer mining. Interest was revived, however, and some little work done, when the other Montana localities, at Yogo Gulch and Bock Creek, began to attract notice. Nothing important has thus far been done on Dry Cottonwood Creek.

Queensland.

The occurrence of sapphire-bearing deposits in Queensland has been known for over twenty years, but only lately have they begun to attract attention. A report was published concerning them in 1892, by Dr. R. L. Jack,* and an extended account has recently appeared, by Mr. B. Dunstan, assistant Government geologist of Queensland.

The location of these deposits, which are best reached from Anakie station on the Central Eailway, is between south latitude 23 and 23 30', west of longitude 148 east, and east of the Drummond Range of mountains, which runs a little west of north, leaving the great dividing range of central Australia, that trends north toward Cape York Peninsula, at about latitude 26 and longitude 147.

The deposits are in an ancient alluvium, and occur chiefly in lines or bands parallel to the present water courses but somewhat above them. These slightly elevated ridges are old stream gravels which present a curious likeness and unlikeness to the ancient gold gravels of California. Like them, they represent former valleys filled by basaltic flows, but, in contrast to them, the gravel consists largely of the decomposed basalt, the matrix of the sapphires, which has been almost completely removed by disintegration and does not form a pro-

a Eighteenth Ann. Rept. U. S. Qeol. Survey, pt. 6, 1897, p. 22.

b Jack, R. L., Report on Sapphire Deposits and Gold and Silver Mines near Wlthersfleld; Brisbane,

<*Dunstcui, B., The Sapphire Fields of Anakie, 26 pp., with maps and plates: Geol. Suirey Qu( Und.im !

tecting cap. The protecting element has been supplied by bowlders and masses of an extremely hard siliceous rock of Cretaceous age that partly filled these valleys prior to the basaltic flow, and this covering, though broken up and strewn along the valleys, has even then so resisted wear as to preserve, between and beneath its broken masses, the sapphire alluvium of the decomposed basalt from entire removal. The miners look upon these bowlders of "billy," as they call it, as a sure sign of sapphires, and even as the source whence they are derived.

The sapphires themselves occur in a variety of crystalline fomas, which are illustrated in the plates, and in many shades and hues of color, but not in the deep reds and blues most prized for jewelry. Greens, yellows, and light blues, with much dichroism, are frequent, and many of them are very beautiful. In this variety of delicate and peculiar colors they resemble the sapphires of Rock Creek, Montana. Mr. Dunstan believes if they were more freely announced as Australian stones, and their peculiar features were emphasized as such, that they would soon command interest and acceptance, instead of the doubtful and partial favor that they have thus far had when brought into competition with gems of more conventional color from old and standard localities.

An interesting account is given, illustrated by a peculiar colored plate, as to the influence of strongly naarked dichroism on the colors of gems, according to the direction in which the "table" or face is cut. The plate shows the widely different hues obtainable from the same crystal in this manner — a point of extreme importance to the lapidar} and gem dealer. He suggests the advantage of a more general use of the dichroscope by those engaged in such business, and figures and describes a simple form of the instrument. This pleochroism is marked in the blue Anakie sapphires, is less so in the green ones, and is not observable in the yellow.

The colors found are carefully described, and Mr, Dunstan proposes the name Oriental peridot, instead of Oriental emerald, for the deeper green stones, and Oriental chrysoberyl for the light yellowish greens. The blues vary much in depth of color, but the real cornflower tint is not found. Red is very rare, and the purple (Oriental amethyst) also, but sometimes very fine.

The sapphire wash is usually a more or less clayey material, with bowlders of basalt and "billy," and is sometimes overlain by more recent alluvium. Many minerals occur with the sapphires, notably pleonaste and zircons, the latter sometimes of gem quality. One diamond was found, elsewhere described in this report. The sapphires are obtained in much the same way as gold, only that sieves are used instead of the pan. The coarser gravel and the fine material are thus removed, either by washing or jigging, according as water is accessible

a Mineral Resources U. S. for 1900, U. S. Geol. Survey, 1901i by IC

Pee0Iou8 Stones. 831

or not, and the smaller gravel picked over for sapphires bj hand. Dr. Jack, in his former report, stated that he obtained from a ton and a half of wash dirt 254 stones of from 3 to 179 cats each, and weighing in all 3,289 carats. " This would give nearly 13 carats as the average weight. Mr. Dunstan, however, thinks this much overestimated, and has hardly found even one-half of such results.

Values and statistics are difficult to obtain. From one hundred to two hundred men are working throughout the region, with the fluctuating success of prospectors and pioneers. The gems, too, are variable in value, from not having yet been standardized," and hence are not like gold, the amount of which obtained by a day's work is at once easily estimated at fixed rates. Mr. Dunstan judges that the amount realized thus far by the miners for stones sent from the Anakie fields may be about £10,000. He regards the prospects for permanent production as being very good. Much of the country is yet unexplored, and new discoveries are constantly being made.

Corundum. Connecticut.

Corund/wn with ca/rbon. — A singular occurrence of corundum asso-- ciated with carbonaceous matter is reported at Barkhamstcd, Conn., by Prof. B. K. Emerson, of Amherst College, in the American Journal of Science for September, 1902.* The corundum forms a bed between 2 and 3 inches thick, very pure, dark blue or blue-black in color, with occasional patches of pistachio green. It is granular, glistening, and resembles the emery of Ceylon. The specific gravity is 3.64. When magnified it is seen to consist of elongated grains. Through it are scattered small, stout prisms of cyanite, and it is densely penetrated with a coaly substance intimately mingled with the corundum in trains and rounded balls. "This carbonaceous matter," says Prof essor Emerson, "has been evidently introduced in an oily or tarry condition, and has been inspissated in place; and the abundant graphitic matter in the garnet" (see under Essonite, p. 42) "gives indication of the same origin." This corundum occurs in association with cyanitic mica-schist and fibrolite gneiss at Barkhamsted, Conn., where the latter rock carries the singular graphite-coated garnets described on page 42. .

Ruby. Bubma.

A recent article on Burman ruby mines, by G. Eisfelder,* develops little beyond what had already been given by English writers. He

a Am. Jour. ScL, 4th ser., vol. 14, No. 81, pp. 236-2S6.

Burma raby mining: Berg-und huttenm. Zeit, No. 1, 1902, pp. 1-8.

Mineral Besoubces.

regards the old Mogok region of Upper Burma as still the most important, more so than the ruby mines of the Nanyadeik precinct in the Myit Kyina district, or those near the Sagiu-mount in the Mandole precinct. The rubies are found in a mass called by the natives byon " (clay), considered by C. Barrington Brown and Professor Judd* to be a residual product of decomposed crystalline marble, which contains also sapphires, spinels, and tourmalines. The marble, mostly coarse granular, is supposed to be developed by contact metamorphism from a dolomitic limestone, which belongs, as Professor Noetling has stated, to the Upper Carboniferous. Limestone of this kind is found in many places unaltered, while at other points it appears changed into marble from penetration by eruptive rocks. The clay containing precious stones mixed with sand is found lying on the sides of the valley, and also occupies large depressions sometimes to the extent of a kilometer, which frequently penetrate the limestone itself as cavities. The same name (byon) is also applied to the ruby-bearing gravel bed underlying the alluvial deposits throughout a large extent of the Mogok Valley.

Rubies are the only important gem product of India at present, and these are confined to Upper Burma. In the Mogok Valley the Burma Ruby Mining Company, Limited, is at work actively, and has ' roduced 210,784 carats of rubies, 9,786 of sapphires, and 10,241 c C .spinels, as the output of 1902. The workings are open excavations to and into the ruby-bearing gravel to a depth of 50 feet, and present a resemblance to the early stages of the Kimberley diamond mines, though of course the conditions of occurrence are widely different. The *'byon" or gem gravel is raised to the surface by endlei=' rope haulage, crushed in rotary pans, and the gems finally separated by pulsators and hand picking. It seems remarkable that the company has not introduced the grease separator, which has proved so effective in place of hand picking at the African mines. Besides these large workings of the company, a number of small ones are let to natives, who pay a royalty on the product. In view of the ease with which valuable gems are secreted, this can hardly be a profitable arrangement for the company, but it is probably maintained chiefly as a conciliation to the native interests, as prior to the British occupation the natives had worked the alluvial deposits for generations and regarded it as a right.

A writer in the Allahabad Pioneer Mail points out that fuel in the vicinity of the Burma ruby mines has now become exceedingly scarce, and has to be brought from a considerable distance. In the near future it is probable that an electric plant will be introduced, as extensive water power exists to furnish an abundance of electricity should

a The rubies of Burma and associated minerals: Trons. Royal Soc. of London, vol. 187, A, pp. 151- 228; Seventeenth Ann. Rept. U. S. Geol. Survey, pt. 8, 1896, pp. 90&-907; and Eighteenth Ann. Rept U. 8. Geol. Survey, pt. 5, 1896, pp. 19, 20.

Ic

Pbecious Stones. 838

it be desired. The Mogok ruby district is by no means exhausted, but new regions have also been discovered, notably in the Chin country some miles to the southwest, and it is believed that this district will prove as important a factor in ruby production as that of Mogok itself.

Rtiby trade in Burma. — A recent article in Le Diamant, Paris, 1902, gives accounts of the Burman ruby trade and of the native cutting. The estimated value of rubies sold annually in Mandalay amounts to $1,000,000 (30 lakhs of rupees). The leading gem dealers of Amsterdam and of Paris have agents who deal directly with the Shans, and the finest rubies are destined for the French capital. The traflBc is conducted in peculiar ways, very interesting to the foreign observer. Certain conditions are rigorously maintained, as to the time of day for examination and purchase, and a system of signs for bargaining and agreement.

In examining rubies, the Shans never use artificial light, holding that full sunlight alone can bring out perfectly the color and brilliancy of the gems. Sales must therefore take place between the hours of 9 and 3, and the sky must be clear.

The purchaser, placed near a window, has before him a large copper plate. The sellers come to him otie by one, and each empties upon the plate his little bag of rubies. The purchaser proceeds to arrange them for valuation in a number of small heaps. The first division is into three grades, according to size: (1) Those of 3 grains or less; (2) 3 to 6 gi'ains; (3) 6 to 10 grains; any larger stones are set aside to be valued separately.

Each of these groups is again divided into three, according to color, the first quality being called extra red, the second pale, the third dark, or poorly colored. A further division is made, again into three grades, according to shape: (1) Those which will cut well; (2) those that will lose more than half their weight; (3) those that can not be cut, but only polished (rounded). There are thus 27 grades in all, besides tlie larger rubies that are estimated singly.

The bright copper plate has a curious use; the sunlight reflected from it through the stones brings out a color effect with true rubies different from that with red spinels and tourmalines, which are thus easily separated.

The buyer and seller then go through a verj'' peculiar method of bargaining by signs, or rather grips, in perfect silence. After agreeing on the fairness of the classifications, they join their right hands, covered with a handkerchief or a flap of a garment, and by grasps and pressures, mutually understood among all these dealers, they make, modify, and accept proposals. The hands are then brought out, and the prices are recorded.

The larger single stones are valued according to M R 1902 58

cutting, the very fine ones bringing high prices. A ruby of 36i carats froth the Mogok mine some years ago brought 90,000 rupees ($30,000) at Calcutta.

Cutting is an important industry, at Mandalay, and the Burmese workmen have remarkable skill, especially in avoiding loss in weight. European cutting they consider very wasteful, and at Mandalay a man would not be employed who sacrificed more than one-fourth of a ruby, while at Antwerp a loss of two-thirds is not uncommon. The tools are extremely simple. The stone is first shaped with a small steel chisel and wooden mallet, as far as possible according to its cleavage. The facets are then ground and polished on a copper wheel with ruby dust, the stone being held with wax or lac on a curved piece of ox-horn. A month or six weeks may be occupied in cutting and polishing a ruby of 1 carat.

The pale stones, cut rounded (cabochon) with a concave base, are much used for ornamental work, especially upon gold vessels. The luster of the gold beneath appears to enrich and darken the ruby and give it the true pigeon's-blood color.

Borneo.

Ruby and sapphire corundum are reported as occurring in Borneo, in an Article by Fr. W. Voit from geological and mining notes in the eastern part of that island." They are found in small pieces, associated with gold, in the beds of mountain streams tributary to the Pasir River in the sultan ry of that name. It is notable that the associated gold occurs only in the lower portions of these little rivers, and in wire-like and 'toothed" (crystalline) forms, not rolled, a fact indicative of a near source; but no particulars are given as to the corundum.

Ruby Under Ultra Violet Light.

In 1902 M. Chaumet read a paper before the Academic des Sciences de rinstitut, Paris, concerning an important result attained witii rubies by experimentation with violet light similar to that tried on diamonds, as already mentioned. The Burmese rubies have a higher value than those of Siam, although in outward aspect they differ so slightly that even experts may easily fail to distinguish them, and no precise definition of their difference can be given. The radiograph affords no aid, but M. Chaumet finds a marked distinction under the action of violet light. The Siamese rubies allow the violet rays to traverse them, with little or no fluorescent effect; but the Burmese stones all fluoresce markedly and present a vivid red glow. By this means the gems from the two sources, however mingled, may be easily separated. Dr. Charles Baskerville and the writer are examining all the gems of the Morgan collection with this light, the Roentgen rays, and radium.

a Berg-und hUttenm, Zelt., Nos. 38, 39, 1902, pp. by IC

Peeciou8 Stones. 835

BERYL AID EUCIiASE, SIBERIA.

N. Orlow describes a new locality of beryl in eastern Siberia, near the Mongolian frontier, on a tributary of the Yasakin River. The beryl occurs in veins of pegmatite, which, at the point where the beryl is found, pass into a mica schist. The crystallography of the beryl is described, and some optical anomalies noted, which the author attributes to an intermixture of euclase, as indicated by analysis, to an extent of about one-fifth. This euclase admixture appears to increase from the central portion of the crystals, where it forms only one-fifteenth part, toward the exterior, where it seems to constitute an outer zone, which is optically biaxial, while the central portion is normal.

German East Africa.

W. Bomhardt and B. Kuhn* mention beryl in long light-green crystals, occurring in pegmatite, in the district of Namaputa on the Muiti River, tributary of the Rovuma, in German East Africa.

Topaz.

West Australia.

A remarkable discovery of topaz has been announced by Mr. E. S. Simpson, mineralogist to the Geological Survey of West Australia,* and fuller particulars are given in a subsequent letter to the writer. The locality is in the Coolgardie gold field, and near the town of Londonderry; the occurrence is in a dike of very coarse pegmatite, traversing amphibolite rock. The composition of the pegmatite is peculiar in that the mica is mainly lepidolite, and that topaz is present in large amount. The lepidolite is of amethystine tint, and has been found in sheets up to a foot square, or even more. Analysis shows it to be a true lepidolite, but almost anhydrous, and with rather less potash and with more soda and lithia than usual. The topaz is described by Mr. Simpson, in his letter, as in enormous rude crystals, up to 6 feet long and 2i feet across. The rock has been disturbed and broken by subsequent geological action, so that the minerals are much fractured and crushed, and the topaz crystals have been rendered white and opaque on the exterior and along numerous cracks and fissures. Within they are pale blue and transparent, but so much broken that only small

oVerh. RusB. mln. Ges. (2), vol. 37, 1899, Prot, pp. 48-49.

frBomhardt, W., Zar Oberfl&chengestaltung und Geologic Dciitsch-Ostafrikas, Berlin, 1900 (cf.

Zeltschr. f. KrystaU. u. Miner., vol. 36, pt. 4, Leipzig, 1902, pp. 420, 421).

cSimpson, Edward L., Bull. Western Australia Geol. Survey No. 6, 8vo., 89 pp., and plates; Perth,

Ic

pieces of gem-material are procurable; these are so light in color as to appear like clear white topazes. Mr. Simpson hopes that perhaps further opening of the rock may reveal material in better condition. An analysis is given, which shows the mineral to have the composition of a normal topaz.

Zircon.

Queensland.

Zircons, usually small, but sometimes of gem quality and good size, are found with the sapphires, elsewhere described (see p. 34), in the ancient alluvium, the sapphire wash, of central Queensland.* Some of them are colorless, with brilliant luster and rounded faces, and have quite naturally been mistaken for diamonds, but the majority are of various shades of brown and red. One large, red piece yielded a cut "hyacinth" of 15 carats, but those uniting size, transparency, and rich color are scarce.

Zircon, in regard to its color, has long been known to be sensitive both to heat and to sunlight, and the statements made in the report of Mr. Dunstan are of special interest in this respect, as definite accounts from a new locality. He says that these color changes are very marked in some of the zircons of the Anakie district, so that paling of tint is caused sometimes in stones that have been carried about in the pockets of miners, apparently by the mere warmth of the body, and that gentle heating is actually resorted to in order to render lighter the tint of zircons that are too dark. If the heat is slight, the former color may return as the stone cools; if too strong, the stone is decolorized entirely and permanently. The change may affect onl}' the depth of color, but it usually renders the reds more or less brown. A remarkable fact, however, is that no such effects are produced, according to Mr. Dunstan, by the heat employed by lapidaries in cementing gem zircons to the holder for cutting and polishing, nor by the heat of the friction involved in those processes, though to this last point he does not refer directly.

Insolation also changes the color, but its effect is usually temporary, the original tint returning. One very interesting case is noted, that of a stone decolorized heat, which partially regained its color after exposure to sunshine.

The whole subject of the effect of heat and sunlight on color is one deserving a careful scientific investigation, which has never been made. It would furnish a most interesting field for study and experiment, both as to zircons and as to other gem stones.

aDnnstan, B., The Sapphire Fields of Anakie: Geol. Survey, Queensland, Brisbane, 1902.

Ic

Precious Stones. 837

Gabntet,

E8Sonite. Connecticut.

Prof. B. K. Emerson, in the American Journal of Science for September, 1902, describes a very peculiar occurrence of essonite garnet, partly coated and penetrated with graphite, at Barkhamsted, Conn. The garnets form a surface-layer on a bed of fibrolitic gneiss, and appear as large dodecahedral crystals, as much as 2 inches in diameter, much grown together. The faces are dull and cavernous, sometimes inclosing grains of calcite, and Professor Emei-son thinks that the crystals developed from the gneiss surface into an overlying bed of calcite, since removed by erosion. In color they are pale yellowish, largely weathered to gray, and more or less covered or blotched with dull black gi'aphite. This graphite stain extends below the surface for about half an inch, and there ceases abruptly, the plane frequently passing through the middle of the crystals of garnet; the graphite also runs farther into streaks and wedges. The real essonite is little more than an exterior zone or shell, however, the mass of the crystals proving under the microscope to be largely composed of a mixture of wollastonite, calcite, quartz grains, and diopside. The whole occurrence is very peculiar.

Rhodolite. North Carolina.

The beautiful rhodolite garnet of Cowee Valley, in Macon County, N. C, has been extensively worked during the last year, the total output being estimated at $1,600, as against $27,000 in 1901. Mr. William E. Hidden, who has been actively interested in the development of the rhodolite, states that larger single pieces of it have been obtained than at any time before — one of 59 carats, the largest previously reported having been 23, 28, and 43 carats.

Pyrope. Arizona And New Mexico.

Pyrope garnets of fine quality are found at several localities in New Mexico and Arizona, and have been referred to in previous reports of this Bureau. The principal locality in New Mexico is on the Navajo Reservation, and the finest large specimen from there is the property of Mr. W. T. Kaufman, of Marquette, Mich. It is more than half an inch

a Am Jour. S<'l., 4th aet., vol. 14, pp 2*1-235. j

Ic

in diameter, weighs Hi carats, and has a magnificent red color, equal to any garnet that the writer has seen from any locality. They are also found at some places in northern Arizona, and one of the finest, from near Fort Defiance, was figured by the author several years ago. They occur loose in or near the surface, and are gathered by Indians, soldiers, and cowboys, principally from around ant hills and scorpion holes, where they are brought up and thrown out by the insects. Their source is doubtless in peridotite rocks, weathered out in the decomposition of the outcrops.

Bohemia And Saxony.

The Bohemian garnet beds and the alluvial gems of the Seuf zergrundel near Hinterhermsdorf, Saxon} nave been described by Dr. I. H. Oehmichen in an article on ''Die bohmischen Gi-anatlagerstatten und die Edelsteinseife des Seufzergrundels bei Hinterhermsdorf in Sachsen."*

The Bohemian garnets occur on the southern slope of the central chain of the Bohemian Mountains, either in genuine alluvial deposits (at Chodolitz, Podseditz, Chrastian, Triblitz), or in a decomposed peridotite (at Meronitz), or in tufa, breccia, and fragmental rocks (at Ldnhorka Hill, near' Starry). At the first two places mentioned, the garnets belong probably to the latest stage of the Tertiary period. The basins containing garnets occupy an area of 70 square kilometers and extend in different directions. In the basins fragments of basalt are the rock chiefly found, but there occur also gneiss, granulite with garnet and cyanite, gi-anite, mica-schist with garnet crystals (110) up to 2 centimeters in diameter, sei-pentine with pyrope not infrequently, porphyry, Planer clay, and Tertiary sandstone. The garnet is associated in these basins with the following minerals: Zircon, in reddishbrown to yellow-brown crystals with rounded faces (111); (110) (111); (100) (111); spinel (eylonite), spherical gi*ankles scarcely red in color; corundum (sapphire and ruby), in angular fragments, rounded granules and crystals of pyramidal aspect; C3anite, less frequently; tourmaline, in small black prisms; olivine, in rounded, mostly crisp, granules and small crystals; quartz; opal; calcite; aragonite; barite; magnetite; brown iron ore, partly pseudomorphous after iron pyrites; augite and hornblende in crystals and fragments of typical basaltic character, and moldavite. Fonner reports on the occurrence of topaz, bronzite, and titanite could not be verified by Herr Oehmichen.

Mention is made of the finding of a diamond at Dlaschkowitz. On the basis of oral communications by Dr. Vrba to Dr. R. Beck, the

Gems and Precious Stones of the United States, 1892, PI. UI, fig. A. bZeitschr. f. piakt. Geol., 1900, vol. 8, pp. 1-16. oZeitflclir. f. prakt. Qeol., 1900, vol. 38, p. 649-60.

Peeciou8 Stones. 839

features of this diamond must be deemed entirely different from those of the India and Brazil diamonds, and hence it was considered to be the only representative of a special type. The origin and finding of this same diamond were fully described by the author after a visit to the garnet fields of Bohemia, when he saw the stone in the great collection of the University of Prague in 1891. He was then, and is still, fully convinced of the Bohemian source of this diamond."

The conglomerates containing garnet near Meronitz are treated of by Dr. Oehmichen on the foundation of earlier reports on that subject. Of the genesis of the garnet beds he gives a detailed account, indicating that the garnets came from an olivine rock, probably Iherzolyte, and that they were brought up by a volcanic eruption which formed the hill called Linhorka, near Starry. In the tufas surrounding the hill occur nearly all the minerals and conglomerates containing garnets. From that tufa the minerals have been transported to the diluvial basins.

The alluvial gems in the Seufzergriindel near Hinterhermsdorf ("Sachsische Schweitz") have some likeness to the Bohemian garnets of the alluvial deposits. In the little valley or basin are frequently found sand layers containing unusually large quantities of magnetic iron ore, and also magnetic iron associated with titanite; ])besides these there are also fragments of hornblende, augite, bronzite, diopside, zircon up to 7 millimeters in size, ceylonite, and corundum. As matrix there occurs in these sand masses some glassy basalt containing olivine and hornblende, and an associated breccia. In the latter occur peculiar inclusions showing a gabbro-like structure, and sometimes products of basalt, which have been cooled and solidified in -the depths of the earth. From the basalt and the breccia is probably derived the alluvium, and from the gabbro-like rocks original came the larger part of the spinels.

For a recent statement as to the falling oflf in the Bohemian garnet industry for some years past, see page 70.

Almandite. German East Africa.

A brief notice of the discovery of almandite in German East Africa appeared in the last report of this Bureau.*

Dr. A. Miethe, professor in the technical high school at Charlottenburg and director of the photochemical department of the same school, sent a highly appreciative letter to Mr. Fred. Marquordt,

a Kun, George F., The garnet fields of Bohemia: Trans. Am. Inst. Min. Eng., 1892, Feb. meet- Ing, Sup., pp. 1-9, with map. Mineral Reeources U. S. for 1901, IT. S. Qeol. Sairey. 1902. p. 746.

owner of the garnet mines in Luisenfeld, in Linde-Hinterland, German East Africa, expressing his pleasure in being able, after careful examination, to communicate a favorable report, especially as Germany has not many of the precious stones. The letter states that the German East African garnets are next in rank to the so-called rubies of the Cape, which occur, together with diamonds, in J;he Kimberley mine and in the other African diamond diggings. A careful comparison of these latter shows their close likeness' to those of Germian East Africa. But in Luisenfeld there have not been found stones of white, yellow, or brown color, like the majority of those found at Kimberley. The choice cut stones made by order of Dr. Miethe from the pieces sent to him for examination, show the exceedingly fine quality of the rough material. The luster is very beautiful, exceeding that of the Indian and Bohemian garnets, and even of those from Arizona. The color of the stones is a pure carmine. The garnets from Luisenfeld have also the rare quality of not changing color in the evening; the tint does not darken, but the play of color seems more beautiful in gaslight than in sunlight. The average color of single stones is comparatively light. This is an advantage, because it is consequently possible to cut larger gems having more brilliant effects. The Cape rubies have been found only in small pieces; but in Luisenfeld the rough material is of much larger size, and after cutting it shows no flaws. To Dr. Miethe as an expert was sent for examination a perfectly regular cut stone, absolutely faultless, of admirable color, 15 carats in weight. In view of these facts, it is evident that the finding of these large, light-colored stones of exceedingly rich color in such abundance is indeed an important circumstance.

The Cape rubies and the Arizona garnets, as well as those so long and extensively worked in Bohemia, belong to the species pyrope, which never occurs in masses of any size, but in small rounded pieces from the amygdaloidal cavities of igneous rocks. The Luisenfeld stone is apparently almandite, the precious garnet of jewelers, which occurs in larger pieces and often in well-defined crystals.

A further account of this interesting discovery has been given by W. Bornhardt and B. Kuhn in a series of mineralogical notes published in a work by the former.*

The locality is on the Namaputa River, a tributary of the Rovuma. The garnet occurs in a decomposing hornblende gneiss, whence it is liberated in rounded masses up to the size of a man's fist, probably representing large cr'stals, irregularly distributed through the rock. It is usually transparent, of a columbine-red inclining to brownishred, and is suitable for good jewelry. But the authors of the work

aSchlesische Zeituiig. Brcslau, October 10, 1902.

b Zur OberflachengestAltung und Geologie Deutflch-Ostafrikaai Berlin, 1900. Cf. Zeitschr. f. Kryst&ll. u. Miner., vol. 36, pi. 4, Leipzig, 1902, pp. 420, 421.

Precious Stones. 841

cited question whether continuous mining of it would be profitable, especially as other localities of garnet have been discovered, though not of such good quality. The analysis given of this garnet is interesting, as representing an almandite in which the ferrous oxide has been largely repljiced by magnesia, and to some extent by lime, showing its approach in part to a pyrope, and suggesting some molecular combination of the two species, such as has been recognized in the case of the North Carolina rhodolite," though quite different from that instance. The density, too, is very low for almandite, and both in this particular and in the composition the description approaches very nearly the analysis (No. 13) given by Dana, under pyrope, of a Cape ruby.

Amthfgi* of almandite garnet German East Africa.

Constituent.

Per cent. ,

FeO ; 20.65

CaO ' 5.58

MgO I 11.74

Total 99.89

Specifio gravity, 3.875.

Connecticut.

The tourmalines and associated minerals from Haddam Neck, Conn., previously described in these reports,* have been very fully investigated and described by Mr. H. L. Bowman, in the Mineralogical Magazine, London, on the basis of a representative collection of some eighty specimens, presented to the Oxford Museum by Mr. Ernest Schernikow, of New York, who was largely engaged in exploiting the albite quarry at the locality in which these minemls occur.

The paper treats of ten species, of which the collection contains examples, and mentions three others not represented — microlite and columbite, which are reported as occurring at Haddam Neck, and the chrysoberyl of Haddam, on the opposite side of the Connecticut River. The ten species are muscovite, lepidolite, cookeite, albite, microcline, quartz, beryl, fluorite, afmtite, and, of course, the lithia tourmaline. They occur chiefly in a large vein or rather dike of pegmatite, in which albite, quartz, and muscovite are the conspicuous elements.

aTwentieth Ann. Rept. U. S. Qeol. Survey, pt. 6 (cont.), 1898. Mineral Reflonrces U. 8. for 1901, U. S. Geol. Survey, 1902, p. 744.

b Eighteenth Ann. Rept. C. S. Geol. Survey, pt. 5 (cont.), 1897, pp. Nineteenth Ann. Rept., pt.6 (cont), 1896, p. 605; Twentieth Ann. Rept., pt. 6 (cont.), 1899, p. 602, PI. I, fig. E.

c Mineralogical Mug. and Jour. Min. Soc., May, 1902; vol. IS, No. 60, ]

The other species appear chiefly in cavities or pockets, lined with crystals of more or less smoky quartz and the feldspars.

The paper dwells especially on the remarkable intergrowth of muscovite and lepidolite, which is familiar to all who are acquainted with specimens from this place, and also with specimens from some of the Maine localities. The peculiar association of these two species, their modes of grouping and twinning, etc., are investigated and described in detail. Much interest attaches to the curious fibro-prismatic rosecolored modification of muscovite from this locality, that has lately become somewhat familiar. Chemical and optical examination show it to be a true muscovite, though so different in general aspect from ordinary micas, and to consist of minute and very elongated rhombic crystals attached in either parallel or twin position, ''so that the whole mass can be cleaved across like a single crystal." The separate components, looking like fibers, are not however prisms, but excessively long and slender pyramids. The tourmalines are discussed optically and crystallographically, and the peculiar color sections are noted and referred to successive growths. The planes of demarcation, as is well known, are usually parallel to the base, a fact which is remarked upon as rather singular when the basal plane is so rarely developed in the perfect crystals. One specimen is figured, in which the green central and pink terminal portions are separated by the ordinary low trigonal pyramid.

Beryl appears in two forms, one greenish-white, and the other pale pink; the latter is noted as of interest as probably containing csBsium, which has been found in similar specimens by Penfield, though no analysis is given of it here.

The apatite is treated at length crystallographicall3 It also presents two varieties, a grayish-green, in hexagonal tables, and a more prismatic pink form.

In general, Mr. Bowman refers to the close resemblance between the minerals of Haddam Neck and those of the Maine localities of and of some others in New England. The same intimate association of lepidolite, forming borders on crystals of muscovite, appears at Auburn, Me. , and even to some extent also the external zone of fibrous muscovite. The intergrowth of muscovite with quartz and of microdfne with quartz are also noted, and the determinations of Wells and Penfield and Harper as to the presence of csBsium oxide (1.66 to 3.6 per cent) in beryls from Hebron and Norway, Me., are closely pnmlleled by the Haddam Neck variety. As to the order of formation little can affirmed, the minerals being so mingled that they must have been nearly contemporaneous. The quartz and microcline are evidently among the last, from their inclusion and envelopment of tourmaline and of some of the micas. Among the latter the order is always muscovite, lepidolite, and the pink fibro-prismatic muscovite on the outside.

Precious Stones. 843

New York.

An article of great interest from a scientific point of view appeared in the American Geologist for June, 1902, on "Tourmaline contact zones near Alexandria Bay, N. Y.," by C. H. Smyth, jr., of Hamilton College, Clinton, N. Y. The data and conclusions have special interest in regard to the origin of tourmaline, and its relation to igneous dikes and to veins, and to the connection between the two last-named phenomena, as traceable in certain of the islands of the St. Lawrence and the adjacent shores near Alexandria Bay. On Wellesley Island the contact is well shown between igneous and older sedimentary rocks, the former representing the great granitic and gneissic complex of the western Adirondack region, and the latter a body of schists, gneisses, and quartzites of pre-Cambrian age. Both series have undergone extensive alteration, but their general characters are well discernible.

The granitic series cuts the sedimentary at many points, and includes multitudes of fragments from the quartzite and schists. Dikes and veins are abundant. The larger dikes have the prevailing character of the gmnitic and gneissic mass of the mainland, with which they are undoubtedly identical, while the smaller dikes become coarser in texture and more quartzose in cotoposition — in other words, become pegmatitie — and black tourmaline appears as a marked ingredient. The naiTower these dikes become, the farther do they penetrate the older rock, relatively if not absolutely, and the more they take on the aspect and much of the character of aqueous veins. But even more remarkable is the difference seen in the contact phenomena of the larger dikes as compared with the smaller dikes in the schists. These latter, indeed, show more or less local alteration from the intrusion of the masses and the larger dikes, but far more effect is apparent along the smaller dikes and veins. Along these there is a pronounced development of tourmaline in the schists, in exceedingly varied forms, which Professor Smyth in part describes. But the striking fact is, as he expresses it, that "in a general way, the amount of tourmaline seems to vary inversely as the width of the dikes," and that it " becomes relatively greater as the offshoots become more quartzose." These two statements, as he adds, are essentially the same, since the narrow offshoots are the richest in quartz.

Comparing these phenomena with somewhat similar ones reported in Colorado by Prof. H. B. Patton,* the author goes on to trace the stages in the development of these dikes and veins and their influence on the penetrated rocks. The granitic magma of the large masses would force its way unchanged into the wider fissures, while through the influence of heated water and gases with which the magma must,

Am Geologist. J.me. 1902. vol 29. No 6. pp. 377-388. V:,UUV iC

bBull. QooJ. Soc. vol. 10, pp. 21-26. O

of course, have been charged, the narrow offshoots, with fluid products of hydrothermal fusion, were injected into the narrower fissures and cracks, often to long distances. "Indeed," he says, "starting from the normal granite, we might expect to find a gradation to a pure quartz vein, ♦ filled by hot solutions of silica having their origin in the granite. ♦ This series is pretty well represented; but the quartz, as a rule, is accompanied by some tourmaline, indicative of the boric vapors so common in granite intrusions." According to this view, the increased development of tourmaline along the smaller veins finds a natural explanation.

A number of additional points are dwelt upon which can scarcely be treated of here. Professor. Smyth points out that, as to the tourmaline in the granitic veins themselves, the general position of the prisms at right angles to the vein is evidence both of the fluid condition of the magma and of the absence or the cessation of injecting pressure at the time when the crystals formed. As regards the tourmaline in the schists, it is plainly derived from the biotite of the latter, which is abundant where the rock is unaltered and absent in the contact zones where the tourmaline appears.

In the process before outlined it follows clearly that the narrow, vein-like dikes represent a protracted stage of development, continuing long after the larger masses and wider dikes had measurably solidified; and that thus quartz veins and slender dikes of pegmatite, even cutting the true granitic dikes, may have been produced, subsequently, indeed, but actually as a continuous part of the same general body of igneous activities.

Passing to some other localities on the mainland, in the towns of Omar and Alexandria, where specimens of hematite in feldspar have long been obtained by mineralogists. Professor Smyth finds a similar condition, though with some variations. " Here, too," he says, " it is possible to find every gradation from these mineral veins, through pegmatites to dikes of normal granite; and there seems no question that the veins owe their existence to the granitic intrusion." But they themselves are yet true veins, not dikes, and were filled by heated solutions and not by melted rock.

Ural Mountains.

In the Bulletin of the Ural Society of Natural Science* has appeared an ''Index of minerals which occur in the mining districts of the Ural Mountains," by W. P. Yarkov.

Among other interesting references, a remarkable occurrence of green tourmaline is noted near the village of Schabrov (district of Ekaterinbourg). Arzruni, who had received a specimen from this

a Bull. Ural Soc. Nat. Scl., 1901, Ekaterinbourg, vol. 22, pp. 2&-36.

Precious Stones. 845

locality, and also from the works at Berezov, wrote of it from Berlin to the Imperial Mineralogicai Society in 1882, saying that it was of exceeding interest from the fact that, like alexandrite, its pure green color changed to a ruby-red in artificial light, and adding that this is only the second mineral showing this remarkable propert3 A double refraction is also noted in connection with these green tourmalines, but no particulars are given. The two optical anomalies may have some relation to each other, which no doubt will be fully investigated.

Other colored tourmalines are also mentioned — rose-pink, with black, in a talcose rock; and wine-yellow to dark brown, containing some chromium, associated with f uchsite and chrome-iron, on the left bank of the Kamenka River, a mile northwest of the Suisserski works (district of Suissersk). Prof. P. W. Jeremejev, the secretary of the Imperial Mineralogic Society, had stated in 1882 that thin plates of this tourmaline appear to show a double refraction by artificial light, together with a diflFerence of color.

Corundum is merely mentioned, with no particulars as to color or quality', as found in the sands of the Kornilov Valley (district of Mursinsk).

Origin Of Tourmaline.

Prof. Giovanni d'Achiardi, of the University of Pisa, has published an article on the metamorphism of limestone by contact with granite, at Porto dei Cavoli, on the island of Elba.** Having previously described a similar case of local alteration at Berdiauch in the Urals,* he was led to pursue the subject further, as developed on the island of Elba, at the famous tourmaline locality, which had been studied by himself, and also to some extent by others, from 1899 to 1902. The limestones at this locality are closely associated with a body of metamorphic schists of various mineralogical character, traversed and locally modified by granite veins; these have all been described somewhat fully by Lotti, who refers the schists to presilurian sediments.

Professor d'Achiardi enters into a detailed account of the characters of the granite, which presents several varieties of texture and composition, duo in part at least to its proximity to the limestone; describes a narrow zone of alteration at the actual contact, showing a mutual action of the two rocks on each other; and describes the limestone itself as affected by the granite. The whole body of schists, in which the limestone beds occur, is thoroughly metamorphic, and the limestone has the character of either a saccharoidal marble or a slightly foliated cipolin; but the local contact action shows itself in the development of various accessory minerals in the marble, some conspicuous,

d Atti della Socleta Toiwana di Scienze Naturall residents in Pisa, Mem., vol. 29, 1902, (separ.) pp. 1-41, Pl9. IV, V, VI. 6 Id., Mem., vol. 16. 1898.

oDescrizionegeol. dell' isola d' Elba; Mem. descr. d. Carta geol. Italia;

but chiefly minute. Wollastonite is prominent; others are pyroxene (malacolite), dipyre, vesuvianite, grossularite, etc. These were all studied in detail as to their proportions, vicinity to the contact, etc., and are illustrated by plates of magnified sections. The whole is a very interesting study of what may be called secondary metamorphism, where local contact has produced mineralogical changes in an altered sediment already thoroughly crystalline.

Optical Properties Of Tourmaline.

E. A. Wulfing, in an article on the different rates of vibration of light in tourmaline,'' gives his investigations on the optical properties of tourmaline as compared with quartz, and contests the views of C. Viola in regard to these minerals, wherein the latter has questioned the theory of Fresnel. Viola experimented on quartz with the total reflectometer of Abbe, and praises the extreme accuracy of that instrument. Wulfing admits this claim, conceding its accuracy to the fourth decimal place, but holds that the differential method of Duf et gives more exact results, though only with extreme care on the part of the observer.

Viola's minute difference of 0.00016, in the exponents of the ordinary ray in quartz (as parallel or transverse to the c axis), Wulfing regards as unsatisfactory, from possible defects of the instrument, and also as obtained from but a single specimen, and hence as not sufficient for a conclusion so important as to discredit the theory of Fresnel.

In tourmaline crystals from Elba, Viola had found results with sodium light, which again appeared to show that the vibrations proceed otherwise than as stated by Fresnel. Wulfing commented on these in 1900,* and again in the present article, pointing out that Elba tourmalines are known to be optically variable, even in different parts of the same crystal, and that hence, in order to draw any important conclusions from such specimens, the measurementa must needs be made in the different directions at the same point in a crystal. He then goes on to describe at length his method of cutting prismatic or pyramidal sections from tourmaline crystals, so as to examine the rates of vibration of a ray in axial or transverse direction from exactly the same point in the same material. He gives details of his results thus obtained, and concludes that the doctrine of Fresnel is thereby fully borne out.

a Separat-Abdruck aua dem Centralblatt d. Min., Geol., u. Palseont.; Stuttgart, 1901, pp. 29&-302. 6Hoheiiheiiner Program, 1900, p. 48.

Precious Stones. 847

Jadeite. Mexico.

Dr. Leopoldo Batres, the Mexican archaeologist, has lately published a remarkable monograph, sumptuously printed and illustrated, entitled Explorations of Mount Alban."'* This locality is a hill or small mountain, one of a group some 6 miles southwest of the city of Oaxaca, and is notable for a number of large ruined structures, chiefly of a religious character, on its sides and summit. These are very ancient, as is shown by many indications, and furnish some of the best examples of the little-known type of Mexican civilization termed the Zapotecan. The people who constructed the buildings and sculptures of this type Dr. Batres regards as having close relation with the Mayas, and the iniins present marked resemblances to those of Palenque and Uxmal.

The ruins on Mount Alban consist of groups of teocallis, or stepped pyramids with flat summits, whereon were doubtless temples, long since gone. The hillsides are also full of sepulchers and mortuary chambers, with remarkable architecture and carvings. In the vestibule of one of these Dr. Batres discovered a highly ornamented vase of pottery, containing about fifty small pieces of jadeite; some of them were elaborately carved amulets, others were beads, round or cylindrical, and some were of irregular forms. They were of fine quality and color, green and blue, but, strange to relate, bore traces of having been painted red. The carvings upon them, as also the ornamentation of the vase, are thoroughly Mayan, and in one case identical with an object from Palenque. All are figured in the monograph.

Both as specimens of jadeite and as archaeological treasures, these are of great interest.

Nephrite.

New South Vstales.

Dr. Card* records that jade (nephrite), but poor and of little or no value, as the polishing quality is not good, is reported from Wentworth mine, Lucknow, New South Wales.

Epidotk.

Alaska.

The fine crystals of epidote from Prince of Wales Island, Alaska, announced in the last report of this Bureau, have been made the subject

a Explorations of Mount Alban, by Leopoldo Batres (Inspecclon y ConBervacion de Monumentoe Arqueolofficos de la Republiea Mexicana), Mexico, 1902 (small 4to, 87 pp , 25 plates and map. b Record of the Geological Survey of New South Wales for 1902, vol. 7, pt. 2, pp. 29-46.

c Mineral Resources U. 8. for 1901, U. 8. Geol Survey, 1902, p. 746. IC

of a detailed notice, with plate, by Dr. Charles Palache, of the Harvard Mineralogical Laboratory, Cambridge, Mass. Specimens were sent to the laboratory by Mr. W. C. Hart, of Manitou, Colo., who describes the locality at Sulzer, Prince of Wales Island, and the associated* minerals, much as in the announcement above noted. Mr. Palache adds, however, that: ''The country rock is limestone, which is cut by numerous igneous dikes, and it seems probable that the deposit is the result of contact metamorphism of the limestone by the dike rocks, resembling closely in this respect the epidote occurrence with copper ore in the Seven Devils Mountains in Idaho." The crystals are dark gi*een to nearly black, but oil green and translucent when thin or fractured. The forms are varied and peculiar, sometimes quite unlike the ordinary aspect of epidote, the larger ones presenting the unusual t3'pe of nearly square tables, flattened parallel to a, and attached by an edge,' measuring up to 5.6 centimeters in diameter (2.2 inches) and 3 centimeters in thickness (1.2 inches). The small crystals tend more to the usual prismatic habit.

Dr. Palache's paper is minutely and exhaustively crystallographic; he determines a large number of faces, some of them new for epidote, and some but imperfectly measured before. In conclusion, he says: "This Alaska epidote ranks among the finest occurrences of American crystallized minerals, and is only surpassed in the size, beauty, and complexity of its crystals by the epidote from the Knappenwand in the Tyrol."

A few of the best specimens found in 1901 have been sent to New York, and as groupings of large crystals, beautified with the association of quartz crystals, they have no rivals.

Transparent lUac-coloTed spodumene. — A recent remarkable discovery of unaltered lilac-colored spodumene has lately been made in California. The crystals were obtained 50 feet from a deposit of colored tourmaline — itself of notable interest — a mile and a half northeast from Pala, San Diego County. This new discovery is less than a mile northeast from the celebrated rubellite and lepidolite locality at that place, where recent developments have brought to light immense quantities of amblygonite, the latter species occurring by the ton, while the lepidolite is estimated by the thousand tons. The locality is thus unequalled in the world for its abundance of lithia minerals. The rubellite crystals found here are entirely embedded in lepidolite, and until recently it was found impossible to remove them to show their form. They were, however, often polished with the lepidolite,

a Proc. Am. Acad. Arts and Sciences, vol. 87, No. 19; March, 1902, pp. 631-586.

Ic

Precious Stones.

the rubellite appearing as radiations of pink in a darker gangue of a lilac-colored lepidolite. This year, however, the crystals of rubellite have been rubbed out, as it were — that is, made to stand out by removing the lepidolite matrix by means of brushes and cleaning tools, thus forming a most beautiful group of crystals.

At the new locality colored tourmaline crystals have been found that are remarkable in size and beauty, although they have been much broken in taking them out. Some are a foot long and 3 inches in diameter, with a red central core (rubellite) and a blue exterior (indicolite) separated by a pale intervening zone.

The spodumene crystals are beautiful in their color tones, varying in striking contrast from a deep pink-purple lilac, when taken at a depth, to a pale, almost colorless tint evidently due to weathering or to the action of the sunlight.

These spodumene crystals are of extraordinary size, transparency, and beauty, and are unrivaled by those from any known localities. Below are the weights and dimensions of six of the principal crystals:

Weights and dimentnojis of Calif omid spodumene crystals.

Weight.

Weight.

Grama.

Oz. troy.

No.l..

52S, 7

No. 2..

No. 3..

No. 4..

No. 6..

No. 6. .

22 by 8 by 1.5 19 by 5. 5 by 1.6

Some crystals of spodumene purporting to come from Hermosillo, Mexico, were shown to the writer during the month of December. They are identical in habit, but much smaller than those from Pala. They were found in the White Queen mine, sec. 24, T. 9 S., R. 2 W., of the San Bernardino meridian, California. In either case no such spodumene crystals have ever before been found at any known locality. They are entirel} distinct from the green crystals found at Stony Point, Alexander County, N. C, described by Dr. J. Lawrence Smith, and from the transparent yellow crystals found in Brazil, and described by Pisani.

The writer suggested that this was a distinct variety of gem of great beauty, and entitled to a new name. Dr. Charles Baskerville found that it differed from all other spodumene in its activity with ultra violet light, and named it kunzite."

West Australia.

Oreen spodumene. — In a recent report on the mines and minerals of West Australia, Mr. E. S. Simpson, mineralogist jtifM/

M R 1902 54

a Science, Aufirnst, 1903.

survey, mentions an occurrence of spodumene of apple-green color in large prismatic crystals half a mile south of Ravensthorpe. Nothing is said of any portion of it as being transparent, but the color is of interest as presenting a type of this mineral intermediate between the ordinary whitish and altered form and the gem-variety hiddenite. Analysis shows this variety to be a spodumene rich in lithia and the alkalies and rather low in silica and alumina.

Quartz. California.

Small crystals of quartz resembling those from Herkimer County, N. Y., have been received from Dr. L. G. Yates, of Santa Barbara, Cal. They have been extensively advertised as white topaz, etc., on the strength of statements by local jewelers who claim to be experts on gems.

Electrical Resistance Of Quartz.

The late Prof. Ogden N. Rood, of Columbia University, New York City, recently published* some investigations — almost his last work — on the electrical resistance, both internal and external (transmission and surface conduction), of various "non-conducting" bodies, usually so called. Among these were glass, quartz, and mica. The experiments were conducted with much difficulty and with great care, but owing to leakage at connections, etc. , their results are announced as only approximate. The external or surface resistance of quartz was found to be for 1 square centimeter of crystal surface, 521;000,000 ohms, as compared with 1,590,000 for window glass, 22,000,000 for cobalt glass, and 50,760,000 for mica. Each of these values was the mean of several experiments. The internal resistance — 1 square centimeter with a thickness of 1 millimeter — shows a surprising contrast, being for quartz only 885,000 ohms, while for mica (muscovite) it was 133,000,000. The tests on glass were unsatisfactory to Professor Rood, and he reserved them for further study. As the experiments on quartz, however, were made without reference, apparently, to the faces or axes of the crystals, fuller investigation of the subject from a more strictly mineralogieal standpoint, with promise of interesting results, should follow the work thus begun by this eminent physicist.

Crystallographic Features Of Quartz.

In the Bulletin de la Societ6 Fianaise de Minralogie,* several articles have appeared regarding peculiar crystal lographic or related features in quartz. M. Ferdinand Gonnard furnishes four brief communications, with illustrations, on the occurrence of unusual planes

a Simpson, Edward S., Bull. Geol. Survey Western Australia No. 6, Perth, 1902. iC Am. Jour. Sci., 4th ser., vol. 14, pp. 161-166.

oBuII. Soc. fran?. de Min., vol. 25, Nos. 3, 4, 6. March, April, May, 1902.

Precious Stones. 851

on crystals of quartz from various localities, particularly from Brazil and Baveno, and M. G. Friedel treats of a peculiar instance of quartz twinning, and of corrosion figures produced in quartz by alkalies applied at high temperatures, as indicating crystallographic modifications caused by heat. The experiments described in the last of these articles were suggested by a statement of Chatelier in the same publication that at a temperature of 570° quartz undergoes certain alterations in its optical properties, though not in its outward aspect, which indicate a change in molecular symmetry. M. Friedel endeavored to confirm this determination, and succeeded in doing so by treating quartz crystals with strong alkalies at temperatures near 600?, thus developing figures of corrosion that indicated the existence and the character of such a molecular alteration. These papers are all too minutely technical for anything more than a brief reference to them here.

Smoky Quartz. Maine.

Since 1897 numerous pockets of smoky quartz have been found on the Littlefield farm, at Mount Apatite, Auburn, Me. Several tons of crystals in all have been obtained. One exceptionally perfect crystal weighing 12 pounds was found imbedded on the edges of a mass of cleavelandite, a short distance from the farm of A. S. Berry, in a deposit of large quartz crystals, feldspar, and gem tourmalines, of which more than 150 were obtained. A perfect 3-inch ball was cut from a smoky-quartz crystal found at this deposit, and is now in the collection of E. R. Chadbourne, of Lewiston, Me.

Amethyst.

Virginia.

Specimens of amethyst from Virginia, but nothing of importance, have been known to students and collectors for years past. Recently, however, a promising locality has been opened and some good gem material taken out, which occurred in pockets connected with a wellmarked vein or stratum of white quartz which extends for some miles along the base of the Blue Ridge, and at certain points carries galenal The main locality is situated in Amherst County, some 2 miles from Lowesville post-office and about the same distance from the James River, at the foot of the mountains. It occupies an area of some 11 acres, and the amethyst occurs but a few inches below the surface. Only a few days' work was done with the simplest tools in exploiting the deposit.

a Bull. Soc. fianp. de Mln., vol. 13, p. 112. Jigitized by iOOglC

Noncrystaixine Quartz, Agate.

The Borgia Chaldean agate a, — An object of great scientific interest is the famous inscribed Borgia Chaldean agate ax. This ax was obtained by the Cardinal liorgia while at the head of the propaganda. The Contessa Ettore Borgia offered it to the British Museum some ten or twelve years ago, but at so extravagant a value (about £3,000 or £4,000 sterling) that it was returned to her. It was ultimately acquired, for some 15,000 lire, by the late Comte Michel Tysckiewicz. It is now in the Morgan collection of the American Museum of Natural History, New York.

The following extract is from Maspero:

Elle se troiivait dans I'ancienne collection dii Cardinal Borgia et appartenait, 11 y a quelques annes, au Comte Ettore Borgia. Elle a 't6 publiee par Stevens (Flint Chips, p. 115), et en fac-simile par F. Lenormant (Tre Monumenti Caldei ed Aseiri delle Collezioni Romane, 1879, pp. 4-9, et pi. VI, I); et Carvailhac (Age de la Pierre en Asie) , dans le troisitme Congr provincial des Orientalietee, tenu k Lyon (torn. I, pp. 321-332), a reproduit ce que Lenormant en avait dit.o

Chalcedony. New South Wales.

Dr. Card* mentions that chalcedony containing included water (enhydros) has been found in magnificent specimens, some of them lus much as 12 inches in diameter, at the Kingsgate bismuth mines,

Chrysoprase. North Carolina.

An occurrence of chrysoprase is reported about 16 miles from Asheville, near Morgan Hill, Buncombe County, N. C. The material is encountered in several parallel seams, running with a. general northeast-southwest strike, within a few feet of each other. At the surface the color is pale green, but as the rock was opened down to some 4 feet deep the color became darker and richer. Beyond a little test opening of this kind, no work has yet been done, and the value of the deposit can not as yet be judged.

OPAIi.

California.

Mr. C. R. Orcutt,,of San Diego, Cal., refers to a great locality of opal in the region of the Mohave desert, in southern California. The

a Extract concerning agate ax-hammer head, from Maspero: "Hitoire Ancienne des Peuplesde 1 Orient Clajssique: Les Orlglnos; fegypte, Chaldce." p. 766. . , IV li

6 Record of the Geological Survey of New South Wales, for 1902, O

Precious Stones. 853

mineral is reported as occurring in large quantities in a porphyritic rock. The opal found at the surface is mostly chalcedonic, but some true precious opal has been obtained, and small stones have been cut from pieces of it,

Idaho.

An extensive and promising opal locality is announced in Idaho, and is described in a letter from Mr. S. V. LeSieur, of Provo, Utah, who discovered it in May, 1902, and made further investigation of it later in the year. The locality is in Lemhi County, Idaho, on Panther Creek, on the west side of the valley, some 6 miles below its head, and at an altitude of 7,000 feet. Here a large dike of poi*phyiy runs parallel with the creek for nearly a mile and a half, forming a ledge partly covered with overwash from the mountain slope, but at times outcropping and rising several feet. The width of the dike is estimated at as much as 150 feet; and the porphyry is full of opals of all kinds, qualities, and colors — milky, blue, green, brown, pink, etc. — and among them some of the perfectly transparent variety, the fire" or flame opal. Many of the masses are large, but to obtain good-sized stones from them is diflScult, as the opals are very brittle and the rock very hard. He succeeded in getting an opal of 60 carats which showed green reflections, and a brown opal of 160 carats, but otherwise no really fine stones above 10 carats weight. The opal here is largely of the glassy variety, with broad " flames " of color — a kind that is fragile and not well suited for jewelry. Its value as a mine for gem material, in view of the large proportion of loss by breakage, remains to be deteiTnined.

What must probably be the same locality was briefly mentioned in the report of this Bureau for 1895, on the authority of Mr. Don Maguire, of Ogden, Utah, but no subsequent references to it have appeared, and no development seems to have been made until now.

New South Wales.

The search for opals is still being carried on with as much interest as ever in the White Cliffs field of New South Wales. More than twenty claims are being worked for opal, and competition for the gem in open market is brisk, good specimens being sold for from $150 to $200 per ounce, although quite frequently less than that is paid for a quantity weighing many pounds.

Among the many kinds and large quantities of opal recently discovered and worked in New South Wales and other parts of Australia, there is a large amount of material that is very beautiful but not available for cutting into gems for setting, and much ingenuity has been shown in devising ways for utilizing this otherwise discarded material and bringing it into the arts in new forms of ornamental

Ic

work. When the flake is too thin to cut a gem, it is cemented on one side to a piece of black oynx, producing a more brilliant effect than would the opal itself. If the flake is much thicker, this is sold as opal appliqu. When the opal is in smaller pieces, it is cemented as a mosaic upon slate or black onyx, producing an effect of great beauty. Still further, minute particles of opal are put into sealed tubes of glass or rock-crystal filled with liquid glass, and the liquid glass solidifying makes the whole seem one homogeneous mass of rock crystal and opal, and produces a brilliant object adapted for use as handles for parasols or canes.

A correspondent of the London Mining crournal, writing from Sydney in October, 1902, reports great prosperity and progress in the opal mining in the White Cliffs district. A number of new mines have been opened and prospectors are actively engaged on the outskirts of the region. Some very rich patches of beautifully colored opal have lately been discovered. German buyers are now visiting the field and purchasing largely. It seems that art jewelry is receiving much attention in Germany, and that Australian opal is coming into high favor for such work, particularly for hair ornaments, brooches, etc. As many as two hundred men are now employed at one of the leading mines — that known as Barratt's Block 25.

Dr. Card reports opal, a translucent chrome-green variety, a beautiful stone admitting of a fine polish, from Port Macquarie; amygdules of precious opal in melaphyre, near Ballina; and rhodonite, massive, with magnetite, 8 miles north of Lyndhurst, and also in various districts of New England, New South Wales.

Queensland.

The existence of precious opal in Queensland has been known for many years, but the first mining activity was about 1878* Of late the rich production in New South Wales has attracted more attention; and although severe droughts have interfered with working and prospecting, yet a large amount of fine opal has been obtained. The estimated value of the product for the twelve years from 1891 to 1901, inclusive, is £131,000, about one-third the amount estimated for New South Wales.

The Queensland opal field was briefly described in the report of this Bureau for 1896. A very full account of it has appeared within the last year by Mr. C. F. V. Jackson, assistant Government geologist.* The opaliferous district extends from the southern border of Queensland nearly to latitude 21 south, between east longitude 141° and 146°. It is interesting to compare this report with that elsewhere noted

a Record of the Geological Survey of New South Wales for 1902, vol. 2, pt. 2, pp. 2-16. b The opal mining Industry and the distribution of opal deposits in Queensland: Report Queensland Geol. Surv. No. 177; 8vo., 34 pp., with map; Brisbane. 1902.

Ic

Pbe0Iou8 Stones. 855

(p. 34), on the Queensland sapphire deposits, which lie about 1 degree east of the middle portion of this area, but are separated from it by the great dividing range of mountains. Many of the geological features are very similar, but there seems to be no indication of either gem in the territory of the other.

The mode of occurrence is the same aa in New South Wales (see descriptions of the latter in the reports of this Bureau for 1896, 1898, and 1901), but the precise geological relations are more exactly given in this recent account. The rock in which the opal has been deposited consists of the remains of a formation, once widely extended but now largely removed, known as the Desert Sandstone. This rock is Upper Cretaceous, and rests somewhat unconformably upon the Rolling Downs formation (Lower Cretaceous), which was laid down by a narrow sea that extended from the great bight on the south to the Gulf of Carpentaria on the north, dividing Australia into two islands. The Desert Sandstone was deposited during a period of less extensive depression following one of partial elevation. It is fragmental in character, of no great thickness, and consists of a lower body of soft and clayey deposits, and an upper portion that is siliceous and extremely hard. It is in the lower part of this latter, just above the softer portion, that the opaliferous zone or "band" occurs. Much of this intensely hard siliceous capping is strewn over the country in more or less rounded pieces, called ''water dogs" by the miners, apparently identical with the "billy" of the sapphire district (see notice above, p. 36).

Opal is found occasionally in pieces and fragments on the surface, coming from decomposition of the rock, but this is not common, and there are in general no surface indications. Hence the mining is a haphazard affair, as the " band " may be rich or poor at any particular point where an opening is made down to it. The work is done usually with a pick, as blasting is found to shatter the opal too much. In many cases, Mr. Jackson says, exploratory drives are abandoned — quite too soon, in his opinion — before reaching the level of the "band," if the indications are not favorable in the overlying rock.

The rock matrix is a hard ferruginous sandstone, or siliceous ironstone, at times forming concretions, which lie in clayey sandstone so as to look like a conglomerate. These concretions, from a fraction of an inch up to 6 or 8 inches in thickness, have evidently been formed from the outside, and their centers are occasionally hollow, or contain a clear liquid or a white powder, but more generally they are filled with opal, common or precious, which at times extends in veins or strings into the outer layers. In other cases the " bowlders" are very much larger, and the opal is not present as a nucleus, but in seams and layers between the concentric shells of the concretions or traversing them in veins or cracks. At one or two places the pure opal forms

iC

little irregular concretionary masses in clay, and at others it occurs in " pencils " or " pipes," which are apparently stems or small trunks of plants replaced by silica; these are in the sandstone, and have much geological interest. All these accounts are very similar to those above referred to in the reports of this Bureau as to New South Wales.

There is a great area of opal-bearing country and a great variety and beauty of the material, but the aridity is such as frequently to compel the miners and prospectors to suspend work. Some of the miners cut their own opals and polish them, but rather poorly and wastefuUy. Mr. Jackson treats of the uses of the material; much that is very elegant is rejected because not fit for cutting the conventional rounded stones, and he hopes that the growing taste for more artistic work in precious stones may utilize much of this heretofore discarded material. The precious opal forms about one-tenth of that obtained, the rest being common opal of all kinds and colors.

At one or two localities near Springsure, and at a few points in other parts of Australia, opal occurs in its usual manner in the cavities of a trachyte. These have not been worked, however, to any extent as yet.

West Australia.

The precious opal, so widely occurring in New South Wales and Queensland, as elsewhere referred to here (pp. 58-59), has not been found in West Australia, but a peculiar association of common opal with a silicified crocidolite, similar to that of South Africa, is described from Yarra Yarra, in the northwest district of the colony, by Mr. S. Simpson, mineralogist to the geological survey. In a letter to the writer, Mr. Simpson states that the conmion opal is yellow, brown, and green, in varying shades, and is traversed by small veins of the crocidolite. This crocidolite is chiefly brown with a golden chatoyancy, but is sometimes dark green with an almost white chatoyancy, and occasionally brownish-red with a reddish-amber chatoyancy. The two first-named kinds recall strongly from the description the two African types, corresponding respectively to a complete or partial alteitttion of the original crocidolite.

Turquoise.

Alabama.

Turquoise has been discovered in a new and hitherto unsuspected region, namely, in the middle eastern part of Alabama, at several points near Idaho, Clay County, about 95 miles due east of Birmingham, in the region of the Talladega Mountains. Some copper mines

a Simpson, Edward S., Rept. Qeol. Survey Western Ausiraliu Nu. 6, pt 3 p. 89, Perth, 1902; and in a letter.

V Ic

Precious Stokeb. 857

were previously located in this vicinity. The turquoise seems to be of two distinct varieties — one, yellowish-green, occurring in compact veins from one-eighth to three-fourths of an inch in thickness, and resembling much of the New Mexican material, which frequently improves in color at a greater depth; the other is a bluish variety penetrating a gray matrix in all directions in seams spreading out from an eighth of an inch thick to the thinness of paper. The color, however, is more blue and the occurrence more distinctly resembles that of the Persian material.

One of the localities has been mined somewhat. The main mine was discovered accidentally by the finding of a piece of turquoise on the surface. Then an opening was made, and a considerable quantity of material was obtained, but no regular mining has 3et been done. Unlike the western localities, there are no traces of aboriginal workings, according to Prof. Eugene A. Smith, the State geologist, nor have any objects made from turquoise been used among the recent Indians, nor has turquoise been found in their graves.

The geological relations of these deposits have not thus far been investigated.

Arizona.

In a recent paper upon the Racial unity of the historic and prehistoric people of the Southwest, and particularly of New Mexico and Arizona,'' presented at the meeting of the '' International Congress of Americanists,' New York, December, 1902, by Prof. William P. Blake, Territorial geologist and professor at the University of Arizona, a delegate from that Territory, attention was especially directed to the very general distribution of fragments of the mineral known to the existing tribes as chalchuite in the ancient ruins throughout Arizona. ''It occurs generally in the form of discoidal beads and tabular pendants, but often as mosaics. ♦ ♦ ♦ There are several localities of this gem in Arizona and 'New Mexico, exhibiting extensive prehistoric mining. Old pits are found partly filled with debris and stone tools. ♦ ♦ ♦ The identity of chalchuite with turquoise was shown by me in 1857. It has been claimed by some, notably by the late E. G. Squier, that the word 'chalchuite' means simply a green stone and is equally applicable to jade or to other green stones; but the fact that the Indians of to-day apply this name to the native turquoise only suppoi'ts my contention that it has been so applied from prehistoric periods to the present, and that it does not refer to 'jade, or jasper,' or other ornamental stones.'!

Professor Blake has some very strong grounds for his view, which identifies the chalchuite with the New Mexican turquoise; but on the other hand, there is equally good evidence that much of the ancient chalchihuitl was jade, as has recently been shown by the researches of

iC

Mrs. Zelia Nuttall, who has traced the geographical distribution of chalchihuitl as given in the earliest records of the Spanish conquest, and in the tribute rolls of Montezuma. It seems very clear that the view of so eminent an archaeologist as the late Mr. Squier is in the . main correct, that the word denoted a highly valued green stone, with no exact mineralogicaJ distinction. But we may now recognize that the name was applied especially to jade in southern Mexico and to turquoise in northern Mexico — the two stones occurring in those regions, respectively, and neither region possessing the other stone. The old records, the Spanish narratives, the ancient workings, and the still lingering traditions, are abundantly clear as to the two minerals meant by chalchihuitl in the two different sections of the country.

California.

Further discoveries of turquoise are reported by Mr. C. R. Orcutt, of San Diego, Cal. , at various points in the Mohave Desert in that State, not far from Victor, San Bernardino County. No particulars are given, and the announcement is merely put on record, until further accounts are received.

Germany. Thuiungia.

A new locality for turquoise is reported in southern Thuringia.* It is located in the siliceous slate quarry among strata of middle Silurian age, near the highway between Weckersdorf and Langenwolschendorf in the dukedom of Reuss. The mineral occurs in slender bands, sometimes much elongated, evidently representing fillings of cavities.

Southwest Africa.

Some blue-green crj'stals were obtained in a decomposed feldspar of a coarse-grained gi'anite, on the river Swakop, southwest Africa, that were supposed to be sapphires. Dr. C. Klein, of Berlin, found upon a careful examination that they were not such, but that from their hardness (5), specific gravity (3.2), hexagonal form, and glassy luster, they were really apatite of the moroxite variety, a mineral that, under its many strange occurrences of color and forms of crystal, has been at times mistaken for a variety of other minerals.

a Nuttall, Zella, Chalchihuitl In Ancient Mexico: Am. vol. 3, 1901, pp.227->288L bZeitachr. f. Naturw., vol. 72, pt. 6, July, 1900, p. 458. Neues Jahrbuch f. Min., Geol. und Pial., 1908, 7ol. 1, pt. 2. Mineralogle, Einzelne Minerallen, p. 187. oCentralblatt fUr Min., QeoL, u. Pal., Berlin, Oct. 23, 1902, No. 24, p. 748.

Pbe0Iou8 Stones. 859

Madagascar.

In the last report of this Bureau an abstract was given of the account published by M. Lacroix of the gem minerals of Madagascar. Among those mentioned very briefly, yet as of possible value, was klaprothite (lazulite). In a more recent article,* M. Lacroix describes specimens of this mineral lately received by him from two localities in the island. Some of these were from Mount Bity and were found in the soil associated with the colored lithia tourmalines described in the last report. In their richness of color and their transparency in thin lamineB they resemble the lazulite from the diamond gravels of Minas Geraes in Brazil. They present fragments of crystals of 6 to 8 centimeters in diameter, which are attached to small portions of quartz and muscovite, and apparently came from quartz veins. The other specimens are from a different region, northeast of Betafo, and present a curious association — a rock composed of deep-blue lazulite and colorless cyanite, with small quantities of quartz, muscovite, tourmaline, sphene, and magnetite, finely mingled. This singular rock occurs in a region of pyroxenic and amphibolic gneiss, and is comparable only to a somewhat similar rock from Horrsjoberg, in Wermland.

Amber.

Roumania.

In a dissertation published at Bucharest on the amber localities of Boumania, the author, Mr. G. Muntuanu-Murgoci, gives a general discussion of fossil resins with particular reference to the Roumanian amber, for which he indicates no less than forty-four important localities, which are shown on the map accompanying his paper.

These localities he divides into two sets, which are termed primary and secondary. The primary occurrences are in the Upper and in the Oligocene (metiilite limestone), where the amber is associated with lignite. In consequence of this distribution the layers of amber are closely connected and directed by the formations of the southeast Carpathians. The secondary occurrences are in the Miocene (salt formation) and in alluvial deposits.

Although the Roumanian amber is not important to the country from an industrial standpoint, yet it is a valuable decorative product. Its color is usually dark red to brown; much of it is translucent, though

a Mineral Itesources U. S. for 1901, U. S. Geol. Survey, 1902, p. 768. fcBull. Soc. frarif. de Min., vol. 25, Nos. 4-4>, April-May. 1902, p. 116.

c Muntuanu-Murgoci, G., Zaceminlale Succinului din Romania [Tlie amber localities of Roumania], graduation dissertation, 66 pp., 6 illustrationfl, 1 map: Bucarest, 1902.

uogle

it frequently contains impurities. The Roumanians prize it very highly for ornamental uses, and value it much above the amber of the Baltic.

The publication contains an exhaustive and critical treatise on resins in general and the Roumanian localities in particular.

Jt5T.

Yorkshire, England.

A recent examination of sections of jet from Yorkshire leads Mr. A. C. Seward to believe that the origin of jet is from the alteration of coniferous wood, and, in part, of wood of the Araucarian Sections from specimens which consist pai-tly of petrified wood and partly of jet show a gradual passage from Araucarian wood to a pure jet which retains little trace of its ligneous origin.

Graphic Granite.

Ural Mountains.

Graphic granite, or Hebrew stone, as the coarsely intertwined crystallization of quartz with feldspar is called, presents, when polished across the crystals themselves, a marked likeness to Hebraic characters. This substance is extensively polished in Russia and worked into beautiful art objects and sometimes into charms. It is found at various localities, but especially in the Ural Mountains, and many of the finest art productions of that region are made from it.

In a recent article* Prof. A. Karpinsky, of St. Petersburg, describes an examination of the graphic granite from Mursinka, in the Ural, and particularly of some specimens in which the feldspar crystals (orthoclase) are well preserved, but the quartz has entirely disappeared, leaving cavities which bear on their sides impressions of the striae of quartz prisms. Similar specimens have been found at other localities in the Urals. Professor Karpinsky thinks that these traces of quartz prisms in the cavities disprove the statement of Noegbom,* that the silica was removed during the period of cr'stallization, and that water free from carbonic acid could, perhaps, dissolve the quartz more readily than the orthoclase. There is no evidence that any pseudomorphous alteration has occurred, as both Russian and Swedish specimens are known in which the quartz is partially removed, with no trace of pseudomorphism.

a Seward, A. C, On the atracture and origin of jet: Kept. Brit. Assoc. Adv. Bel. for 1901, pp. 856-857, London. bProc. Imp. Russ. Mln. Soc., vol. 39, 1902, Prot. p. 23. oBuU. Qeol. Inst. Upflala, vol. 8, 1897, p. 436.

PBBCIOU8 STONEfl. 861

The Gem-Cutting Int3Ustry.

United States.

Diamond-cutting industry in the United States, — In the brief period of ten years during which the diamond-cutting industry has been conducted on a commercial basis in the United States, it has advanced with such rapid growth that this country now conunands a foremost position among the diamond-cutting countries of the worid. The importation of $7,000,000 worth of rough diamonds during the twelve months ending June 30, 1903, evidences the growing prosperity of this industry here; and had not the rough diamond stock of the world been materially reduced by the demand exceeding the supply, it is probable that the United States would to-day be exporting polished diamonds to Europe instead of importing from there the additional quantities necessary to supply our demand. The effect of such a condition can be better appreciated when attention is called to the fact that out of about $19,000,000 worth of diamonds imported through New York City into this country during the fiscal year ending June 30, 1903, fully $8,000,000 represented wages paid to foreign laborers. Upon the $7,000,000 worth of rough diamonds imported during the fiscal year ending June 30, 1903, there is represented a saving to this country of over $3,000,000 paid to its own workmen. Upon this basis it is safe to estimate the saving in labor to this country in this industry alone during the last five years to be over $10,000,000; it has both given remunerative employment to many men and also kept this large sum of money in this country.

The ingenuity and enterprise of the American cutters have been material factors in their success. In Amsterdam, the acknowledged home of the industry, where it has been conducted for more than one hundred years, no innovations have been introduced. It has been left to the Americans to introduce a number of new mechanical laborsaving devices, which have unquestionably given them a great advantage over the European cutters, where diamond cutting is done by the ancestral "rule of thumb" handed down from father to son.

The banking system in Holland seems to be favorable to the diamond industry, but there is a greater supply of ready money in this country to conduct the industry, individual diamond-cutting firms importing fully $1,000,000 worth of rough stones.

In the early part of 1903 there seems to have been great difficulty in obtaining the rough diamonds, due both to the great demand for diamonds and to the fact that the output has not increased, owing either to the lack of capacity to supply a greater demand or to the regulation of supply by the De Beers Mines Company.

About nine days elapse from the time of shipment until the rough diamonds are received in New York, and as rough diamonds are not dutiable the shipments are made and cleared with great rapidity.

No small diamond-cutting establishmentH can exist at present unless they do only recutting or repairing work, as the diamond syndicate sells only in "series," as the parcels of rough diamonds are called. These parcels or series are made up of many varieties of diamonds known by the trade names of " bye-waters," ''capes," ''fine capes," "silver capes," and "crystals." Each series is made up of individual parcels of each of the above-named varieties, each parcel representing a proportion of these qualities as they are found in the mine. In other words, the series is made up so that when a dealer buys a "series," he buys every quality of diamond found in the mine in the proportion in which they are produced at that time. The individual diamonds in each of these several parcels weigh from 1 to 20 carats in their natural, rough, uncut condition. The finished stones contain only from 40 to 60 per cent of these weights; that is, from to 60 per cent is ground and polished away in the various cutting processes. The principal new processes carried on in this country are sawing and splitting diamonds by means of grooving or notching them, and may be described as follows:

Sawing diamoruh. — The process of sawing diamonds, whereby it is possible to saw in two, at the centi-al part or girdle, an octahedron (known as six-point) or a long stone, or to remove an imperfection that it was impossible to cleave at a given point, has now come largely into use in the United States, and also at Antwerp and Amsterdam. This is especially true of the United States and Antwerp, where the larger diamonds arc cut, and to a less extent of Amsterdam, where the smaller stones, known as mele, are more used; although there is no patent law in Holland to prevent its introduction. The invention, or inventions, are by Americans, and call to mind the old method of sawing the larger gems by means of small, flat lead strips, or saws, such as were used when the Regent diamond was cut in 1750. At that time thin strips of lead charged with diamond dust were employed; these were rarely drawn more than once across the stone. The great advantage of the new method will be appreciated when it is understood that thereby it is made possible to cut a 6-cai-at crystal in two along the best line to place the main table-faces of the two stones thus produced. One patentee claims the process of sawing off only the parts desired to be removed; the other makes a special claim that the dividing of the diamond at the girdle is an original claim apart from the former. The methods consist in holding the diamond fii-mly and very steadily under pressure against a rapidly revolving disk of sheet iron, or "phosphor" bronze. The wheels are much like those used in sawing thin sections for microscopic rock sections or for cutting jade, rock-crystal, and other hard stones. It is claimed that in thus dividing an octahedron at the center or girdle as little as 2 per cent of the weight of the crystal |§iJft9%7i&gFftving

U. 8. Geological Survey

Mineral Resources 1902 Pl. V

Diamond Sawing.

Ic

Pbe0I0U8 8Tone8. 868

of material. As evidencing the wonderfully keen responsive business acumen which has always characterized the ''rough" syndicate, the price of all rough diamonds that could be improved or advanced in value by such sawing was immediately advanced when the process became known.

More recently certain expert cleavers, as they have been called, found that they could remove an occasional part of a diamond, such as the angle of an octahedron, by nicking the stone at a given point, and then by a sharp blow breaking off a piece, saving both the material and the time that would have been lost in removing the edge or piece by polishing.

Orooving diamonds, — A patent has been granted for a new process of grooving diamonds, these gems of course leing also polished, and the claim is made that the grooving insures a greater brilliancy. The diamonds are sometimes cut with perfectly parallel grooves around a stone having eight, ten, twelve, or eighteen sides. The grooving is also applied to the facets of the brilliants, especially in the new forms of cutting in which the pavilion of the stone is entirely replaced by rosecut facets; and the hollows of the concave grooves areas bright as the other faces. A diamond of any shape can be polished by this method.

New dfyp'*'* for diairumds. — Considerable attention has been given to a new dop that holds the diamond while it is being cut and polished. This instrument grasps the diamond in claws and holds it while it is undergoing the polishing process, thus doing away with the need for securing the diamond in place by means of a fusible metal which requires heating many times in the handling of a single stone, with the attendant risk of injuring the stone by the repeated heating. These dops have mechanical devices so arranged that a set of facets can be adjusted and cut on a diamond by a single setting of the diamond in the dop.

Mineral Rksources.

Production.

In the following table is given a statement of the production of precious stones in the United States from 1896 to 1902, inclusive:

Prod-adum ofjyrecious stones in the United StateSj 1890-1902.

Stone.

Diamond

Sapphire

Ruby

Topaz

Emerald

Phenacite

Tourmaline

Peridot

Quartz, crystal

Smoky quartz

Ro8e quartz

Prase

Gold quartz

Rutilated quartz

Dumortierlte In quartz

Tourmalinated quartz

Agate

Moss agate

Chrysopnse

Opal

Rhodolite

Topazolite

Amazon stone

Oligoclase

Moonstone

Turquoise

Chlorastrolite

Prehnite ,

Diopside ,

Epidote ,

Pyrite

Malachite

Rutlle

Fossil coral ,

Arrow points

Total.

None.

None.

None.

None.

None.

i0

None.

None. S25,000 None. None.

None.

None.

None.

5,000 None. None. None.

None.

None.

None. !

None.

i,ooa

i.Ooo

None.

*J,200

None.

None.

None.

None.

None.

None.

None.

None.

None.

None.

None.

None.

Nonfe.

None.

None.

None.

None.

None.

None.

None.

None.

None.

None.

None.

None.

None.

None.

None.

None.

None.

None.

None.

noo

None.

None.

None.

None.

None.

None.

None.

None.

None.

None.

None.

None.

None.

None.

None.

None.

None.

None.

None,

Iso

None.

None.

None.

None.

None.

1,000 None, None. None.

3,000 None. None.

2,000 None. None.

Ic

Pbeoious Stones.

Imports.

The following table shows the value of the diamonds and other precious stones imported into the United States from 1867 to 1902, inclusive:

Diamonds and other precious sUmes imported and entered for consumption in the Vailed

States, 1867-190S,

Year ending—

Diamonds.

Glazieis*.

Diamonds

and other

stones not

set.

Bet in gold or other metal.

Total.

June SO—

Dec. 31—

a665,623

b 29, 576

a Including also engrayers*. not set, and jewels to be used in the manufacture ox watches, from 1891 to 1894; from 1894 to 1896 miners' diamonds are also included. b Including also miners' and engravers', not set. o Included with diamonds and other stones from 1891 to 1896. dNot specified prior to 1897.

Includes stones set and not specially provided for since 1890; / Including rough or uncut diamonds. g Not specified since 1883.

M R 1902 55

Ic

Talc And Soapstone.

By Joseph Hyde Pbatt.

Occtierence.

Talc is one of the commoner minerals and in small quantities it is very widely distributed. The soapstone or steatite variety occurs more abundantly than the foliated or fibrous, and there are many more deposits of the former variety than can be profitably operated. On the other hand, there is a constant demand for deposits that will furnish a fibrous variety that can be used in the manufacture of paper, or deposits like the North Carolina talc that can be cut into pencils or ground to a pure product for the manufacture of various toilet powders. The deposits near Hewitt, Swain County, N. C, furnish the best quality of talc, that for cutting into tailors' pencils, and it is this variety that brings the highest price. At the present time this is a unique deposit as regards the quality of the talc.

During 1902 there was some prospecting for talc about 4 miles from Schuyler, Nelson County, Va. Some of the material found is suitable for grinding to powder, but a large proportion is of the steatite variety. In the town of Rochester, Vt., about 3 miles southeast of the village of Rochester, the United States Talc Corporation has commenced operations on talc deposits that were mined rather extensively during 1865 and 1866. This material will be put on the market as ground talc.

No new deposits produced any talc during 1902, and the entire production was from the old deposits that have been operated for a number of years.

Production.

The production of talc and soapstone (exclusive of the fibrous variety from New York) during 1902 was 26,854 short tons, valued at $525,157, as compared with 28,643 tons, valued at W:24,888, in 1901. This is a decrease of 1,789 tons in amount and an increase of $100,269

Ic

Minebal Be80Urgb8.

in value. This large increase in value with a small decrease in quantity, is due to a smaller production of the inferior grades of talc, with an increase in the quantity and value of the manufactured products. The above values include the manufactured product made from the talc, there being but a small amount of the production sold in the crude state, as nearly all that is mined is used by the original producer. The production is classified, therefore, as it is marketed, as rough, sawed into slabs, manufacture articles, and ground talc. The variation in the value of the manufactured articles as compared with that of the tonnage is due to the character of the article made, some years there being a larger number of expensive articles manufactured than in other years.

In the table below are given the production and value of talc and soapstone from the year 1893 to 1902, inclusive.

Production of talc and soapstone, 1893-1909,

Condition in which marketed.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

X?&quot;

Value.

Quantity.

Value.

Rongh

Sawed into slabs...

Manufactured articles a

SkoH Umt,

Short Umt,

Short tons.

Short

iOM,

Short

tOM,

Ground b

Total©

Condition in which marketed.

Quantity.

Value.

Value.

X?&quot;

Value.

&#x27;X:

Value.

Quantity.

Value.

Romrh

ShoH ton:

U,886 8,210

Short UyM.

Short UyM,

Short

tOM.

iOM,

Sawed into slabs...

Manufactured articleso

Ground*

Totale

o Includes bath and laundry tubs; fire brick for stoves, heaters, etc.; hearthstones, mantels, sinks, griddles, slate pencils, tailors' pencils, gas tips, and numerous other articles of everyday use. h For foundry facings, paper making, lubricators, dressing skins and leather, etc. o Exclusive of the amount used for pigment, which is included among mineral paints. d Includes manufactured materials to the value of 840,275, for which no quantities were given.

As is seen from the above table, there was a considerable decrease in the amount of rough talc sold, and of this amount nearly one-half was of the North Carolina production. With but a small increase in tonnage of the manufactured articles, there has been a large increase in value, due partly to the increase of the North Carolina talc that was manufactured into tailors' pencils and gas tips, and to the expen-

Talo And Boapstonb.

sive articles made from the Virnia soapstone. Nearly all of the Virginia product is put on the market in the form of manufactured articles; most of that from New Jersey, Pennsylvania, and Maryland is put on the market as ground talc. The quantity of talc sawed into slabs was nearly double that of 1901, but sawed talc still represents but a small percentage of the total quantity mined.

There was a considerable falling off in the number of producers of talc in 1902 as compared with the number in 1901, and in some States there was but one producer. For this reason it has been necessary to group a number of the States together. Pennsylvania and New Jersey fall naturally together, as the principal deposits in these States are separated only by a river. In the following tables are given the production by States in 1902 and also from 1898 to 1901:

Pfodaction of talc and wapstone in 1902 by SUiJUs,

State.

Quantity.

Aalue.

Nw JftTWBV and PATitiavlvanla

Short Umt.

Mftrrlan'i and Vinrinla , ,-.-,,,,,.,,, , ,

North Carolina

Total

a California, Maaaachiuetta, and Georgia. Production of talc and goapttone in 1898, 1899, 1900, and 1901, by States.

State.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Georgia

torttom. 1,062 1,817 6,012 10,886 5,968

a$42,085 81,880 82,872 107,062

North Carolina

Pennsylvania

other States

Total

a Includes manufactured articles to the value of 886,000 for which no quantities were given. b California, Maryland, MasBachusetts, New Hampshire, New Jersey, and Vermont; also Pennsylvania in 1900. e Includes $40,275 value for which no quantity was reported.

From these tables it appears that there was an increase in the value of the production from North Carolina, but a decrease in tonnage, this being due to the smaller quantity of the pyrophyllite soapstone mined in 1902 and to the increase in the quantity of the better quality of talc from the western part of the State. There was a still further decrease in the production of talc in Georgia and also a smaller number of producers. There was a slight increase in the qitantity of soapstone mined by those who produced this material in Virginia, with"

Minebal Resources.

a large increase in value in 1902 over the value of 1901, although there was a smaller number of producers.

The quantity and value of talc and soapstone produced in the United States since 1880, exclusive of that used as a mineral pigment and of the fibrous talc from New York, are given in the following table:

Annual production of talc and oapetonef 1880-190e.

Year.

Quantity.

Value.

Year.

Quantity.

Value.

Production Of Fibrous Talc In New York.

The fibrous talc mined in the State of New York is found in St. Lawrence County, and its production is treated separately for the reason that it is nearly double that of all the other States together, although the value is nearly the same, and that it is used principally for the one purpose of paper making. It is on account of its fibrous character that it is especially adapted for this purpose. In 1902 the production was 71,100 short tons, valued at $615,350, an increase of $131,750 in value but of only 1,900 tons in quantity, as compared with the production of 69,200 short tons, valued at $483,600, in 1901. In 1901 there was an increase of 5,700 tons in quantity, but a decrease of $15,900 in value, aa compared with the production of 1900, which was 63,500 tons, valued at $499,500.

In the table below is shown the production of fibrous talc in New York since 1897:

DispoUion of fibrous talc produced since 1897 ,

Uses.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Sold crude . . . Paper filling .

Paint ,

Wall plasters.

Total...

Short Umt. 9,800

Short U/M.

Short tona.

TALO AND 80APST0NE, Disponlion of fibrous talc produced since 1897 — Continued.

Ueea

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Sold crude

Short Um$.

Short tons.

Woo 488,000

S360

Paper fllling

Paint

Wall plasters

Total

The production of fibrous talc in 1902, both as to quantity and value, is the largest of any year since the productions have been recorded. During the last two years there has been a consolidation of a number of the smaller properties, and it was expected that there would be a correspondingly larger increased production, as there is a constantly increasing demand for this fibrous talc in the paper industry. Talc has almost entirely replaced the clay materials that were formerly used as fillers in paper, as it gives greater strength to the paper, but with the continued increase in the price of the talc these clays may again be introduced. With, however, a uniform price for the talc its use should increase very materially.

In the following table is well illustrated the constant increase in the production of the New York talc since 1880:

Production of fibrous tcUc, 1880-190IB.

Year.

Quantity.

Value.

Year.

Quantity.

Value.

Short Uma.

Short tons. 41,925 35,861 89,906 89,240 46,069 67,009 54,866 54,665 63,600 69,200 71,100

1472,485 403,436 486,060 870,897 899,443 4U,480 438,160 499,600 488,600 615,860

Imports.

The quantity of talc imported into the United States has been very irregular since 1889, which has been due to the constant development of the good deposits of the mineral in this country. The imported material comes mainly from France and Italy, and although it is superior in quality to most of that mined in the United States it is not

T

Mineral Besouboes.

better than some of that obtained in Swain and Cherokee counties, N. C. The amount and value of the talc imported into the United States since 1880 are shown in the following table:

Ta2c imparted into the DnUed States, 1880-190$,

Year.

Quantity, a

Value.

Year.

Quantity.

Value.

Short toM,

Short Um,

o Quantity not reported preylous to 1888.

CAN AjyULS PRODUCTION.

The production of talc in Canada since 1886 is given in the table below, and it will be observed that the fluctuation in value is much more pronounced than in the value given for the United States product:

Production ofaoapttone in Canada, 1886-1901,

Year.

Quantity.

Value.

Year.

Quantity.

Value.

Short tOM. None. 1,874

Short tons.

None.

None.

Abrasive Materials.

By Joseph Hyde Pratt.

Esttroduction.

The abrasive materials treated in this report are as follows: Oilstones and whetstones, grindstones and pulpstones, buhrstones and millstones, pumice, infusorial earth and tripoli, crystalline quartz, garnet, corundum and emery, carborundum, crushed steel, artificial corundum, and adamite. These abrasive materials can readily be divided into three groups:

1. Those which occur as a rock formation and are cut and manufactured directly into the form desired, while retaining their original rock structure and appearance, as grindstones, whetstones, etc.

2. Those which occur as a constituent of either a rock or a vein and have to be mechanically separated from the associated gangue and cleaned, as corundum, garnet, etc.

3. Artificial abrasives, as carborundum, crushed steel, etc.

A few of the materials included under the head of abrasives are not used entirely for abrasive purposes, as crystalline quartz and infusorial earth. In the present report there is included only that production of the former that is used in the manufacture ef sandpaper, scouring soaps, etc., and in the manufacture of wood finishing materials, the greater production of the quartz being used in the pottery and glass industries.

The entire production of infusorial earth and tripoli is included in this report, although but a small amount is actually used for any abrasive purposes.

While the aggregate amount of these abrasives produced each year is increasing, there is a noticeable variation in the production of the different kinds of abrasive materials. As their use is to a certain extent dependent on the growth of manufacturing industries, there will be a change in their production corresponding to the increase or decrease of these industries.

Mineral Besoubces.

In 1902 the total value of all the natural abrasives produced in the United States was $1,326,756, as compared with $1,194,772 in 1901. A list of the values of the production of the different abrasives for the years 1900, 1901, and 1902 is given in the following table:

VcUue of abrasives produced in Untied States during 1900, 1901, and 190S,

Kind of abrasive.

Value.

OilBtones and Bcythestones. .

Grindstones

Bahistones and millstones . .

Pumice

Infusorial earth and tripoli .

Crystalline quartz

Oamet

Corundum and emery

Total

S2,858

Artificial aJbrasives produced in United States during 1900, 1901, and 190S.

Kind of abraalYe.

Carborundum

Pound: 2,401,000 700,000

Crushed steel

OIIiSTONES, WHETSTONES, ETC.

' There is included under this head all kinds of oilstones, whetstones, water hones, knife sharpeners of all varieties, razor hones, dental points, etc., that are manufactured from various sandstones and schists.

Production.

There was a decided increase in the production of oilstones and scythestones in the United States during 1902, the value of which amounted to $221,762.* This is an increase of $63,462 over the value of the production of 1901, which was $168,300, and it is also the highest value recorded for these abrasives since their first publication in 1880. Until 1902, the year of maximum production was 1899, when the value of the output amounted to $208,283. This general increase in the production of this type of abrasives is due to the larger demand for the various abrasive articles manufactured from the novaculite (sandstone) found in Arkansas, and also to the successful introduction of the American stones into foreign markets.

As the producers of the abrasive materials used in the manufacture of oilstones and whetstones are in nearly all cases also the manufac-

a The crude product In 1902 as by the Census was valued at 13t968.

Abbabivb Materials.

turers, the statistics given are for the finished product instead of the raw material. This production was confined to the following States: Arkansas, Michigan, Indiana, Ohio, and Kentucky, in which the material used was sandstone; and New Hampshire and Vermont, in which a quartz-schist was the material used.

The following table gives the value of the oilstones, whetstones, etc., produced from 1891 to 1902, inclusive:

Value of oilstones f whetsUmes, etc,, produced in the United States, 1891-190S,

Year.

Value.

Year.

Value.

From 1880 to 1890, inclusive, the production and value of the rough stone have been published in these reports, except in the case of the output for 1890, when the value for the unfinished product was given for the novaculite of Arkansas, while in all other cases the value of the finished stones was given. The annual production from 1880 to 1890 was as follows:

Production of oilstones and whetstones, 1880-1890,

Year.

Quantity.

Value.

Year.

Quantity.

Value.

Pounds. 420,000 500,000 600,000 600,000 800,000

Po*.

Imports.

Although there has been a general increase in the production of oilstones and whetstones in the United States, there continues to be imported into this country from $30,000 to $60,000 worth of these abrasives. In 1902 this amounted to $56,456. They consist principally of razor hones from Belgium and Germany, and of "Turkey" oilstones from France and Italy.

The total value of all kinds of hones, oilstones, etc., imported into the United States since 1880 is shown in the following table:

MINEBAL BESOIJB0E8. Imports of hones and whetstones, 1880-190.

Year endlzig—

Value.

Year ending-

Value.

June 30—

December 31—

December 31 —

Exports.

Although no separate record is kept of the exports of oilstones and scythestones, it is undoubtedly true that the value of these is in excess of the imports and that it is gradually increasing in quantity, while there will be but little increase in the imports. The material exported consists chiefly of New Hampshire scythestones, with smaller amounts of Indiana and Arkansas oilstones. There is a growing demand for the latter stone at good prices.

Production.

The States producing grindstones in 1902 were Michigan, Montana, Ohio, West Virginia, and Wyoming, with by far the largest amount from Ohio. Pulpstones were produced in Ohio alone, and the Tippecanoe Pulp and Grindstone Company, of Empire, which is the largest producer, is using* nearly all of its stone for this purpose. The total value of all kinds of grindstones produced in 1902 waa $667,431, which is $86,728 greater than their value in 1901, which was $580,703. The production of 1900, valued at $710,026, is still the largest production recorded for any year. In comparing the values of the productions of the earlier years with those of the last few years it must be borne in mind that the price per ton has decreased from $15 to from $8 to $10, and that, therefore, the tonnage of grindstones used in the last four years is greater than that of any year before. Of the value of the production of 1902, $667,431, the sum of $23,088 is due to pulpstones, an increase of $4,288 over the value in 1901, which was $18,800.

This decided increase in the production of grindstones since 1898 has been largely due to the marked increase in all kinds of manufactur-

Abba8Ive Materials.

In making reports of production to the Survey, some manufacturers use the ton as the unit of measurement and others state the number of grindstones made. In 1902, exclusive of pulpstoncb, the number of grindstones reported aggregated 29,543 pieces, valued at $100,875, as compared with 40,948 pieces, valued at $396,238, in 1901. The product reported by weight amounted to 44,504 tons, valued at $543,428, as compared with 16,807 tons, valued at $165,665, in 1901.

The value of the grindstones, including pulp stones, produced in the United States during 1902, by States, is given in the table below.

Value of ffrindsUmes produced in the United States during 190£, by States.

state.

Value.

Ohio

Michigan, Montana, and Wyoming

Total

In the following table is given the value of the production of grindstones, including pulpstones, from 1880 to 1902, inclusive. The table illustrates the depression and revival of this industry during and since the financial depression of 1893 and the years immediately following.

Value of grindstones produced i

in the United States, 1880-1902.

Year.

Value.

Year.

Value.

Imports.

There has been a gradual decrease in the imports of grindstones during the last three years. In 1902 these imports amounted to 5,456 long tons, valued at $76,906, as compared with a value of $88,871 in 1901, and of $92,581 in 1900. A large proportion of the above impoiiation was of pulpstones from Newcastle-upon-Tyne, England. Other grindstones imported were from Bavaria and from Scotland. In reporting the impoi-ts of grindstones the Bureau of Statistics of the Department of Commerce and Labor has not made any separation of the amount of the finished and of the unfinished products since 1883/

Minebal Besouboes.

The quantity and value of the grindstones imported into the United States since 1868 are given below.

Grindstones imported and entered for consumption in the United StateSj 1868-190$.

Year ending-

Finished.

Unfinished or rough.

Total

Quantity.

Value.

Quantity.

Value.

value.

June 80—

Long Una.

Long tons.

m,93S 106,010

a86,286

December 31—

a Since 1884 not separately classified.

As the production of the American pulpstone increases, a constant decrease in the importation of these stones is to be expected, since the American stone is giving good satisfaction. The export of grindstones is on the increase, and now the total of the exports is about equal to the total of the imports.

BUHESTONE8 A2ST> MXLIiSTONES.

The American millstone varies from a sandstone to a quartz con glomerate. The rock from which it is made occurs

rn

Abbasive Matkbials.

slopes of the Appalachian Mountains from New York to North Carolina, and is known by various names, according to the locality from which it is obtained. Most of the buhrstones are obtained from New York, though-smaller amounts are made in Vermont, Pennsylvania, Virginia, and North Carolina, Besides the production recorded from these States, a small number of buhrstones are made in the mountain sections of North Carolina and Tennessee for local uses. There were formerly a very large number of buhrstones used in the United States, principally in grinding wheat, but at the present time there are but very few used for this purpose on account of the introduction of the rollermill process. They are, however, now used extensively for grinding the coarser cereals, mineral-paint ores, fertilizers, cement rock, barytes, and other minerals, and for these uses the demand is increasing each year. For this kind of grinding the American stone is as satisfactory as the foreign stones which were formerly imported in large numbers from France, Germany, and Belgium.

Production.

The value of the production of buhrstones in 1902 was $59,808, an increase of $2,628 over that of 1901, which was $57,179. This was more than twice the value of the production of 1900, which amounted to $28,115. From 1886 to 1894 there was a very large decrease, from $140,000 to $13,887, in the production of buhrstones. Since 1894, however, there has been a gradual increase in the production. This increase will probably continue for some years to come.

The production of 1902 was divided as follows: New York, $39,570; Pennsylvania, $1,978; Virginia, $11,435; North Carolina and Vermont, $6,825.

In the following table are given the value of the production of buhrstones in the United States since 1880:

Value of buhrstones produced in the United States, 1880-190S.

Year.

Value.

Year.

Value.

Minebal Se80Ub0Es.

Imports.

The importation of buhrstones began to decline sharply in 1883, and there has been a gradual falling off since then. There was some increase in the value of the imports in 1900 and 1901, but in 1902 they amounted to only $16,158, which is the smallest importation recorded. This general decrease in the imports is due not only to the introduction of the roller-mill process for making wheat flour, but also because the buhrstones produced in this country are as satisfactory as the foreign ones for the purposes for which the stones are now used.

The value of buhrstones and millstones imported into the United States since 1868 is given in the table below:

Value of buhrstones and millstones imported into the United States,

Isgs-Iqos.

Year ending-

Rough.

Made

into millstones.

Total.

Year ending—

Rough.

Made

stones.

June 30—

December 31—

9i Ifift

fll8,087 a20,816 a26.965

a Not separately dasslfled.

Pumice.

Pumice is a general name given to the loose, spongy, cellular, or frothlike parts of lava, this peculiar structure being undoubtedly due to the escape of steam or gas through the mass while in a state of fusion. Commercial pumice is also made from another volcanic product known as volcanic ash, which includes the finer detritus that is ejected in many eruptions and is often deposited at considerable distances. Both the solid pumice stone and the volcanic ash are mined as a source of commercial pumice.

The volcanic-ash deposits of Nebraska have been worked to some extent during 1902, the product being used largely in the manufacture

Abrasive Materials. 881

of certain soaps and scouring powders. This production amounted to 700 tons, valued at $2,750.

Almost the entire demand for pumice is supplied by a deposit in the northwestern part of the island of Lipari, about 80 per cent of that used in the United States being shipped directly here from that island. If the Hawaiian product can compete with that from Lipari, it is in sufficient quantity to more than supply the demand of this country.

Imports.

No record is kept by the Bureau of Statistics of the quantity of pumice imported into the United States, only its value being recorded. There has been no regularity in the importation of pumice; some years enough is imported to satisfy the market for a j'ear or more. Thus, in 1896 no pumice was reported as imported into this country, and in 1902 the imports were valued at only $22,448. In other years it has varied in value from $43,788 to $65,930.

Infusorial Earth And Tripoi.I.

Occurrence And Uses.

There are included under this head all porous siliceous earths of organic origin, such as infusorial earths, diatomaceous earth, and tripoli. These are formed from the siliceous shells of diatoms and other microscopic species and occur in deposits that are sometimes many miles in area. This material has been mined during the last year in New Hampshire, New York, Maryland, Virginia, Georgia, Missouri, and California. There is also included under infusorial earth the siliceous material found near Carthage, Newton County, Mo., which extends over into Indian Territory and which is evidently residual silica left from an impure siliceous limestone by the leaching out of the calcium carbonate. It is especially adapted for filtering purposes and can readily be cut into any shape desired. Quartz is sometimes ground and put on the market under the name of infusorial earth or tripoli.

The infusorial or diatomaceous earth from near Richmond, Va., has been examined under the microscope, and diatom remains were readily recognized. The material contains only 70.14 jer cent of silica, considerable alumina, and a little iron oxide. It is probably an infusorial earth mixed with more or less of clay material.

The deposits of California, near Lompoc, Santa Barbara County, are being vigorously investigated and developed by Mr. H. M. Hanmore, of Los Angeles. The material occurs within a few feet of the surface and can be quarried out in blocks of any dimensions required.

iC H R 1902 56

It is nearly pure white in color, contains, wlien free from water, as high as 97 per cent of silica, and is a true diatomaceous earth, as is readily determined when it is examined under the microscope. The deposit is of considerable thickness, has apparently been disturbed but very little, is light and porous, and can readily be cut into slabs. It is very homogeneous and is ready for use as soon as crushed. There was observed near the upper portion of the deposit an opaline silica which was very compact and dense.

Prof. W. P. Blake has recently described a deposit of diatomaceous earth from Pinal County, Ariz., but on account of its distance (70 miles) from the railroad, it is not at present a commercial deposit.

But a small proportion of the infusorial earths and similar materials mined are used for abrasive purposes, such as the manufacture of polishing powders and scouring soaps. Their most extensive use is in the manufacture of dynamite, packing for boilers, steam pipes, and safes, and as a base for fire and heat retarding cements. It is also beginning to be used in some quantity for the manufacture of fireproof building materials, such as solid brick and hollow brick for partition walls, floors, etc. The California material is also being introduced into the manufacture of plasters, and the experimental work has thus far been very satisfactory; it is also used in the manufacture of tile. The Missouri product is largely used in the manufacture of various filtering apparatus, and it can be cut into any desired shape. It is probable that the California diatomaceous earth could be used for this same purpose, as it is firm, can be cut into any desired shape, and is affected , but little or not at all by water.

Production.

A considerable variation will be noticed in the quantity and value of infusorial earth produced in the United States from year to year, which is due partly to the substitution of other materials for it and partly to the production by some companies in one year of an amount of the raw material suflicient to last a year or two. The variation in value is chiefly due to the different conditions in which the material is marketed. The following table shows the value of the product when ready for sale to the manufacturer. In the case, however, of the Missouri product the value of the manufactured articles is used. In 1902 the production amounted to 5,665 short tons, valued at $53,244, which is an increase of 1,645 tons in quantity, and an increase of $294 in value, as compared with the production of 4,020 tons, valued at $52,950, in 1901. This slight increase in value is due to the fact that in 1902 the valuation refers to more of the raw material than it does in 1901.

a Am. Inst. Min. Eng., Feb. Meeting, 1902.

Abbasive Matebial8.

In the table below are given the value and quantity of infusorial earth obtained in the United States since 1880:

Produdixm of infusorial earth, 1880-190.

Year.

Quantity.

Value.

Year.

Quantity.

Value.

Short tons. 1,888 1,000 1,000 1,000 1,000 1,000 1,200 8,000 1,600 8,466 2,682

Short UmB.

2,584 4,954 3,846 8,888 2,788 8,302 8,615 ' 4,020 5,665

Imports.

The tripoli imported into the United States is included with rotten stone, which is used for similar purposes. The value of the imports in 1902 was $39,926, which is nearly the same as the value of the production in this country. No record was kept by the Bureau of Statistics of the number of tons of this material imported.

CRYSTAIililNE QUARTZ.

But a small amount of the quartz that is mined is brought under the head of abrasives, and of this amount less tlian a third is used in the manufacture of sandpaper and scouring soaps. The larger proportion of the production included here is used as a wood finisher, and is obtained from Connecticut. The larger amount reported as used in the manufacture of sandpaper was mined in Pennsylvania. In addition to these uses large quantities are used in the stone-cutting trade, especially by the marble dealers.

Production.

In 1902 the production of cr3stalling quartz included under abrasives amounted to 16,104 short tons, valued at 84,335, as compared with 14,050 tons, valued at $41,500, in 1901. This large variation in the value is due to the fact that in 1902 the valuation reported was in some cases after the quartz had been crushed or ground. The actual value of the crude quartz varies from $2.50 to %b per ton, and will average

Mineral Be80Ub0Es.

about $3 per ton. Using this valuation per ton for the crude quartz mined, the total value was $4:3,085. In the following table are given the value and quantity of crystalline quartz produced in the United States since 1894:

Production of quartz crystal 1894-1902.

Y&a.

Quantity.

Value.

Year.

Quantity.

Value.

Short toru. 9,000 6,000 7,600 8,312

Short tons. 13,600 14,461 14,050 15,104

Garnet.

There were no new garnet deposits that were producers in 1902, and the production was confined entirely to Connecticut, New York, Pennsylvania, and North Carolina. To be of commercial value the deposits of garnet must have good railroad facilities.

Production.

The production of garnet in the United States during 1902, as reported to the Survey, amounted to 3,926 short tons, valued at? 132,820, as compared with 4,444 tons, valued at $158,100, in 1901. The price of garnet varies considerably, according to the locality from which it is obtained. As reported to the Survey, the prices have varied from 20 to $60 per ton, the higher price being obtained for the North Carolina garnet. The average value per ton of the production in 1902 was 135.10, as compared with $35.57 per ton in 1901, and with $38.76 in 1900. The large increase in the production of garnet since 1900 is accounted for by the fact that the North Carolina production was not included in these statistics until that year.

The table below gives the production of each year since 1894.

Production

of abrasive garnet, 1894-190$.

Year.

Quantity.

Value.

Year.

Quantity.

Value.

Short tons. 2,401 3,325 2,686 2,554 2,967

Short Urns. 2,765 4,444 8,926

Abba8Ive Materials.

Corundum And Emery.

There is a constant increase in the demand for such abrasives as corundum and emery, which is due to the large increase in manufacturing, especially of agricultural machines, and also to the improved jnetbods that have been devised for manufacturing emer} and corundum stones and wheels of all shapes and sizes. That the supply could readily exceed the demand is very evident when it is considered that there are only about 16,000 tons of corundum and emery used in the United States. Of this amount, however, about 10,000 tons are imported, so there is room for a large increase in the domestic production of these abrasives. At the present time there are less than 500 tons of corundiun used; this is not due to the small demand for it, but to the lack of this material on the market. If the price is maintained at 8 to 10 cents per pound there will be but a relatively small amount of coinindum used; but with a slight decrease in price there will be a great increase in the use of corundum, which will be at the expense of the emery. At the same time, with a decrease in price, the more favorable must be the location of the deposits for mining and for railroad facilities in order to bear the competition with the emery. With the known occurrences of corundum in the United States there should be no difficulty in such production of it as fully to satisfy the market's demand.

In the North Carolina corundum fields there was no production of this mineral during 1902. The North Carolina Corundum Company, which was carrying on development work in 1902, expects to become a producer in 1903. These deposits are on Buck Creek, Clay County, associated with the largest peridotite area in the Southern Appalachians. There has been one find made in this section of a mass of solid yellow corundum weighing 125 pounds. The companj' is equipping the property with machinery for mining, cleaning, and preparing the corundum for market.

The Montana corundum deposits were producers of crude coiTindum ore to the extent of about 325 tons, most of which, however,.is still lying on the dump. During January, 1903, about 25 tons were cleaned, but none was placed on the market, mainly on account of unfavorable freight rates. A favorable rate to Chicago has now been obtained, and the Montana Corundum Company is now (July, 1903) producing corundum at the rate of 800 to 1,000 tons per year. The commercial product has been tested by a number of users of this abrasive, and they have reported favorably regarding it. The Bozeman Corundum Company has been developing its property about 14 miles southwest from Bozeman. The corundum veins vary from a few inches to 3 feet in thickness, and are being exploited by means of shafts and

Mineral Besouboes.

drifts. About 5 miles west of the Montana Corundum Company's mine is the Anceny corundum deposit, which promises to develop into a property containing a large quantity of corundum.

A recent discovery has been made of corundum in Connecticut, which has been described by Prof. B. K. Emerson.* It occurs in Litchfield County, near Barkhamsted, but does not give any evidence of occuiTing in commercial quantity.

The deposits of corundum occurring in serpentine near Spanish Peak, California, described in the report for 1901, have been described in detail by Prof. Andrew C. Lamson.* He considers the rock as a new type, to which is given the name "plumasite."

The Canadian corundum deposits have continued to be operated during 1902, and the larger part of their production has been shipped to this country. The total production was nearly double that of 1901.

Production.

In 1902 the production of corundum in the United States was almost entirely of the emery variety. The production of emery was confined to the same localities as the year before — the mines at Chester, Mass., and those in the vicinity of Peekskill, N. Y., there being an increase in the production from the latter locality and a large falling-off in the production from the Chester mines. The quantity of emery produced did not come up to what was expected. The total quantity of corundum and emery produced during 1902 was 4,251 short tons, valued at $104,605, a decrease of 54 tons, and of $41,435 in value, as compared with the production of 4,306 tons, valued at $146,040, in 1901. There was also a large falling oflf in the imports of emery and corundum for

In the table below are given the quantity and value of the production of emery and corundum in the United States since 1881, but in each case it is the total amount of the two that is given.

Annual production of corundum and emery , 1881-1902,

Year.

Quantity.

Value.

ShoH tons.

Year.

Qu&ntity.

Short ton*, 1,713 1,496 2,102 2,120 2,165 4,064 4,900 4,306

Value.

a Am. Jour. Sci., vol. 14. Sept., 1902. IC

b Univ. of Cal. PubUcations, Bull. Dept. of Qeol., vol. 3, p. 219, 1903. O

Abbasive Materials.

Imports.

There was a large falling off in the imports of corundum and emery in 1902, which amounted altogether in value to $214,842, as compared with $294,999 in 1901, a decrease of over $80,000 in value. There was, however, a decided increase in the importation of corundum as compared with the year before, most of which was obtained from Canada. The table below shows the quantity and value of emery and corundum imported into the United States from 1867 to 1902:

Emery and corundum imported into the United SicUeXj 1867-1902,

Year ending-

June 80—

18T2

December 31—

Orains.

Quantity.

Pounds.

Value.

Ore or rock.

Quantity.

S29,706 16,216 18,999 16,615 16,869 24,466 20,066 22,101 26,814 22,767 6,802 9,886

tons.

1,475 2,478 8,400 2,884 2,765 2,447 4,14p 2,445

Value.

Pulverized or ground.

25,835 15,870 41,821 26,065 43,886 81,972 40,027 21,9&l 38,454 58,065 76,481 67,781 69,432 59,282 121,719 66,868

Quantity.

Poundis.

Im, 314

3ft6,947

a 144, 380

Value.

other '

manufac- I Total tures. ! value.

Value.

S107

$52,604 88,060 77,916 &l,866 44,811 77,424 70,919 62,366 58,327 61,053 42,182 66,601 87,506

10,926 j 294,999 13,776 , 214,842

a To June 30 only; since classed with grains.

Jigitized by Vj

uogle

Minebal Bes0Urce8.

Canadian Corundum.

As Canada is constantly increasing her production of corundum, and as over one-half of this production was exported to the United States, it may be of interest to give here the output of these Canadian mines. The total amount of commercial corundum produced was 1,611,200 pounds, which is approximately 805 tons, valued at or about $110 per ton. This is an increase of 742,610 pounds over the production of 1901, which was '868,590 pounds, and indicates a healthy growth in the corundum industry of Canada. But a small part of this production was sold in Canada, most of it being exported. Of this production there was sold in Canada 211,887 pounds, in England 176,342 pounds, in other parts of Europe 362,554 pounds, and in the United States 784,947 pounds. The increase in the amount of corundum sold in these countries in 1902 over that sold in 1901 is shown in the following table:

Sales of Canadian corundum in J 901 and 1902,

Where sold.

Canada

England

other parts of Europe United States

Total

Quantity.

Pounds.

Pound*. 211,887 176,342 362,554 7M,947

Increase.

Pounde.

&#x27;208, M5

The demand for corundum in England, Germany, France, and Sweden is beginning to be partly filled by the Canadian supply, as is also the demand in the United States. There are large deposits of this mineral in this country, and if they were thoroughly and systematically developed the United States should be in a position to export corundum instead of importing it.

Artificiai. Abrasives.

Carborundum.

There was a slight decrease in the amount of carborundum produced in 1902 as compared with that of 1901, which was due to interruptions during the early part of 1902 in the Carbonmdum Company's supply of electrical current and the inability of that company during the latter part of the year to obtain a sufficient supply of raw materials — a result of the anthracite coal strike. If it had not been for these obstacles the production would have been considerably increased over

Vic

Abrasive Materials.

that of 1901. It amounted in 1902 to 3,741,500 pounds, a decrease of 96,675 pounds, as comjMired with the production of 3,838,175 pounds in 1901. This is the first year since carborundum began to be manufactured that there has not been a large increase over the production of the year before. In 1903 there will undoubtedly be a large increase over last year's production. Much of the carborundum that is manufactured is now exported. The value of the carborundum varies from 8 to 10 cents per pound.

In the following table is given the production of carborundum since 1892, when it was first put on the market:

Production of carborundum, 1892-1902,

Year.

Amount.

Year.

Amount.

Pounds.

Crushed Steel.

The production of crushed steel by the Pittsburg Crushed Steel. Company in 1902 was close to that of the last two years, and amounted to 735,000 pounds, as compared with 690,000 pounds in 1901. The value of this product is cents per pound free on board at Pittsburg.

The table below shows the production of crushed steel for the last five j'ears.

Production of crushed steel in the T'hinted States, 189S-1902.

Year.

Amount.

Year.

Amount.

l*tmmU. 675,000 700,000

Pounds. 690,000

The production of crushed steel, which is used largely by the building trades, is apt to fluctuate with their condition; New uses are being found for the different grades of crushed steel, and some grades are meeting with considerable success. The finer gi-ades of crushed steel, known as steel emery" and "rouge," are used in considerable quantity by the glass trade.

Mineral Resources.

Artificial Corundum.

The manufacture of artificial corundum from bauxite, which was recently started by the Norton Emery Wheel Company, has been carried on by that company at its plant at Niagara Falls during most of the year 1902. Thus far its manufactured product has been used entirely by the company itself, and none has been put on the market as raw material. This artificial corundum is reported to give very good satisfaction, and the company expects in the near future to produce this material to the full capacity of the plant. It will then undoubtedly be put on the market.

Adamite.

Another artificial abrasive that has recently been introduced to the market is adamite, which at the present time is being manufactured at Vienna, Austria, and is handled in this country by the Adamite Abrasive Company, which crushes and grades the iraw material received from Germany at its plant at North Tonawanda, N. Y. The Company intends in the near future to erect a plant at North Tonawanda to manufacture the adamite. This material makes a hard and tough abrasive, but no comparative tests as to its abrasive eflBciency are as yet available. It breaks with a rough fracture, which is favorable for sustaining a good cutting edge.

Borax.

By Joseph Struthers.

Introduction.

The known deposits of boi*ax in the United States are in California, Nevada, and Oregon, and the production on a commercial scale was begun in 1864, at Clear Lake, 80 miles north of San Francisco, by the evaporation of the saline waters. The industry progressed favorably at this and other lakes in California until, in the early seventies, large quantities of the pure mineral were discovered in the alkaline marshes of California and of western Nevada, which caused the abandonment of the lake refineries and the erection of new plants, notably near Columbus, Nev., at Searles Marsh in the Armagosa Valley, and at the mouth of Furnace Creek in Death Valley, (Mifornia. In spite of the diflSculty and great cost of transporting the refined product by teams 100 miles to the railroad, the refineries continued in operation for several years, until the large increase in the domestic production, coupled with the increased imports from Italy, so reduced the price that this method of refining became no longer profitable, and the refineries were abandoned. About the year 1890 it was discovered that the boi-ax crust on many of the marsh deposits was derived from the Tertiary beds of calcium borate (borate of lime) abounding in that region. The marshes were abandoned and a mine was established on a bedded deposit of mineral from 6 to 10 feet in thickness at Borate, 12 miles northeast of Daggett, Cal. The Pacific Coast Borax Company owns this plant at the present time and is the chief producer of borax and boric acid in the United States. The ore, which occurs in large masses more or less connected by stringers and bands, consists of the mineral colemanite (calcium borate) in a bedded deposit from 5 to 30 feet thick. The refined product reaches the market in the form of prismatic sodium borate (borax, NagBO.lOHO) and boric acid (old name, boracic acid, H3BO3). There is another variety of borax called "octahedral borax," which differs from the common variety in that it contains five molecules of water of crystallization (NaBO-SHjO) and is octahedral in form. The prismatic borax remains unaffected in transparency by exposure to the air, but the octahedral variety rapidly becomes opaque, and, absorbing five equivalents of water, is converted into the prismatic salt. Large plants for the concentration and refining of the crude ore have teen erected in California at Alameda,

Ic

Minebal Besouboes.

near San Francisco (inoperative during 1902), at Marion, and at Daggett. The largest refinery, however, is situated at Bayonne, in New Jersey.

Other bedded deposits hve been found in a number of places in Death Valley and about Owens Lake, both in Inyo County, Cal., but they have not yet been exploited sufficiently to determine their limits. The saline deposits of California have been fully described by M. R. Campbell in Bulletin No. 200 of the United States Geological Survey (1902) and by Gilbert E. Bailey in Bulletin No. 24 of the California State Mining Bureau (1902).

Production.

The production of borax in the United States continues to be derived mainly from the colemanite deposits of California, although a small quantity is produced from the marsh deposits of California, Nevada, and Oregon. The reported returns for 1902 gave an aggregate commercial production of crude borax of 2,600 short tons, valued at $91,000, and of refined borax and boric acid 17,404 short tons, valued at 12,447,614, of which 862 short tons, valued at 1165,000, were stated to be boric acid— a total of 20,004 short tons, valued at $2,538,614. The production during 1901 was 17,887 short tons of crude borax, valued at $314,811, and 5,344 short tons of refined borax, valued at $697,307, a total value of $1,012,118 in 1901.

The statistics of the production of borax in California are given in the subjoined table.

Production of borax in California, 1864-190,

Year.

Quantity.

Value.

Short tans.

Nil.

Nil.

Nil.

Nil.

Nil.

Nil.

' 1,437

Year.

Quantity.

Value,

Short Ions,

tl98,705

a20,004

a CemniR reported total production as 19,142 short tons, valued at 2.883,614.

Bobax.

Imports.

The following table gives the imports of borax and borates into the United States from 1867 to 1902, inclusive.

Imports of borax and borates into the United Stales, 1867-190S.

Year.

Borax.

Quantity.

Poundt,

Value.

Borates, calcium, and sodium (crude and refined sodium borate).

Quantity. ! Value.

Pound9.

Nil.

Nil.

Nil.

Nil.

Nil.

Nil.

Nil.

Nil.

Nil.

Nil.

Nil.

Nil.

Nil.

Nil.

Nil.

Nil.

Nil.

Nil.

Boric acid.

Quantity.

Pound*.

Value.

Revikw Op The Borax Industry During 1902.

California. — The colemanite mines at Borate, 12 miles northeast of Daggett, which are operated by the Pacific Coast Borax Company, continue to yield a sufficient quantity of ore to satisfy the market requirements. In the mining of this material the increasing depth has added to the cost of extraction. During 1902 this company continued the search for colemanite deposits in the Death Valley region

and acquired much additional property. The deposits in the Armagosa Valley are under careful examination, the ore therefrom being* carried by traction engines to the railroad at Manvel, a distance of 100 miles, whence it is shipped to the refinery in order to determine its value. The extent of the deposits on this property will soon be ascertained. The large refining plant at Bayonne, N. J., which was destroyed by fire in April, 1902, has been entirely rebuilt. The Pacific Coast Borax Company continues to supply by far the greater part of the borax output of the United States, as well as a large proportion of the boric acid production, and the control of the domestic market of borax is practically in its hands.

The American Borax Company, which is under the control of the Standard Sanitary Company, of Pittsburg, Pa., has greatly extended its plant at Daggett and now has installed ten digesters in which the crude material from the mud deposits in that vicinity is treated by sulphurous acid. The new plant has largely increased the output of boric acid and boric-acid concentrates by this company, and, owing to the satisfactory results obtained, the company contemplates extending the works still further during the coming winter season. A new refinery is being erected near Pittsburg, Pa., for the final treatment of the products from the works at Daggett.

The Stauffer Chemical Company, of San Francisco, is actively developing the colemanite mines in Ventura County, which yield at present from 75 to 100 tons of very high-grade ore per month. This ore is used solely for the manufacture of refined boric acid at the company's works in San Francisco.

There has been a small output from the marsh deposits in California and Nevada, but the quantity is comparatively so insignificant that it has had no effect on the market.

Oregon. — In recent years the marsh deposits of sodium borate in Harney County have contributed yearly an output of refined borax amounting to about 400 tons. For 1902, however, no production was reported, the operations at the deposits having been confined solely to development work. The principal concern in this region is the Rose Valley Borax Company, which controls 2,000 acres of the richest portion of the marsh deposit near Lak Alvord, which extends over a total area of 10,000 acres. The description of this deposit and of the method of obtaining the ore is given in the report on borax contained in Mineral Resources for 1901.

Price. — The price of borax fluctuated but little during 1902, averaging from 7 to 7.25 cents per pound for refined borax and 6.75 to 7 cents per pound for concentrated borax. The latter grade is gradually disappearing from the market owing to its nonuniform quality. The refined article is now marketed under guarantee.

Bobax.

WORIiD'8 PRODUCTION.

The following table gives the production of borax and boron compounds in the principal countries of the world from 1896 to 1901, inclusive:

The worlds 8 production ofhoraieSy etc., 1896-190

Year.

United States. Calcium borate.

Chile. Calcium borate, b

India. Borax.ft

Germany. Boracite.

Italv. Boric acid, crude.

Peru. Calciimi borate.ft

Turkey. Pandermite.6 0

o From official reports of the respective countries except the United States.

b Exports,

0 Fiscal shears.

d Total exports 1897-1901 amounted to 43,851 tons, valued at £789,818.

e Statistics not yet available.

PRODUCTION rS FOREIGN COUNTRIES.

The Borax Consolidated, Limited (the international borax combination), has issued £400,000 of 6 per cent second mortgage debenture stock, the company now being capitalized at £2,800,000. For the fiscal year ending September 30, 1902, gross profits are reported of £250,209, as compared with £258,021 for the year preceding. From the gross profits for 1902, the following disbursements were made: Interest, £4:7,625; dividends on common and preferred shares, £52,000 (the total dividends thus amounting to £99,625); income tax, £3,201; which gave a balance of £147,383. Adding to this balance £15,795 brought forward from the previous year, and subtracting £17,825 for depreciation on reserve and sinking fund, leaves a surplus of £142,353, out of which it is proposed to pay a dividend of £1 per share, less income tax on the ordinary shares, making a total dividend payment of 17.5 per cent for the year. The net profits for 1902 amounted to £181,658, as compared with £190,278 in 1901. The working of the mines, deposits, and factories has been satisfactory, and by effecting economies in the cost of production the lower prices obtained for some of the products have been counterbalanced. There is a steady demand for borax: but, according to the manufacturers, the low prices in London during 1902, which varied from £12 to £13 per ton, left very little margin for profit.

Argentina, — Calcium borate deposits varying in thickness from a few inches to 3 feet are found in the "National Territory of the

Ic

Andes" (now a part of Argentina); the principal districts being Caurchari, Antuco, Partos Grandes, Hombre Miierto, Ratones, and Diablillos. The altitude of these districts ranges from 18,000 to 18,500 feet, and the transport of the mineral is accomplished by mule back over precipitous trails to the railroad at Salta, a distance of from 150 to 200 miles. A load of 300 pounds is carried by each mule and the time occupied in transport amounts to seven or eight days. Under the present conditions of labor the cost per ton, including mining, transportation, and delivery free on board ship at the coast, is about £7 6s. 5d. If to this amount the ocean freight, £1, and the insurance, etc.. Is. 6d., be added, the total cost per ton delivered in England is about £8 7s. lid.

Bolivia. — The production of calcium borate in Bolivia during 1901 amounted to 3,065 metric tons, valued at$410,52tl: (Bolivian currency), as compared with 1,485 metric tons, valued at $148,510, in 1900.

CTiile. — The bomte deposit of Ascotan in the interior of the province of Antofagasta produces the greater part of the total output of boracite and borax. Of the production during 1900, which amounted to 13,177 metric tons of calcined boracite and 27 metric tons of borax, Ascotan contributed 10,920 metric tons, the remainder being obtained from the deposits in the province of Carcota. The exports of calcium borate during 1901 amounted to 11,464 metric tons, valued at $1,302,401 (Chilean currency), as compared with 13,177 metric tons, valued at $1,317,676 (Chilean currency), in 1900. Valuable borate deposits, said to contain more than 600,000 tons of mineral, are reported within reach of the port of Taltal.

Italy. — The production of boric acid in Italy during 1901 amounted to 2,558 metric tons, valued at $194,408, as compared with 2,491 metric tons, valued at $169,425, in 1900. The entire production is obtained from the natural fumeroles in the provinces of Pisa and Grosetto.

Peru, — Though borates occur in many localities in Peru, the only deposit which is operated with profit is at Salinas, near the boundary of the provinces of Arequipa and Moquegua. In 1900 the exports of borates amounted to 7,080 metric tons, valued at £56,638. The statistics for 1901 are not yet available.

Turkey. — The boracite deposits in Turkey were discovered in 1856, but were not operated until recent years. The mines of Sultan-Tchair are situated within the Sandjak of Karassi and in the Merkez-caza of Balikesser and Nahi6 of Iv&t, and all are now under control of the Borax Consolidated, Limited. The description of these deposits and the method of manufacturing borax from the mineral are given in Mineral Resources for 1901, pages 871-872. The total quantity of mineral exported from 1897 to 1901, inclusive, amounted to 43,851 tons, valued at £789,318,

&#x27; &#x27; Vic

By Joseph Struthers.

Production.

The production of bromine in the United States during 1902, including the quantity of bromine contained in potassium bromide, amounted to 613,890 pounds, valued at $128,472, as compared with 652,043 pounds, valued at $154,672, in 1901, a decrease for the year of 38,153 pounds in quantity and of $26,100 in value. The price per pound during 1902 averaged 25 cents, as compared with 28 cents in 1901 and with 27 cents in 1900. The production of bromine in the world continues to be controlled by the associated American producers and by the Leopoldshall-Stassfurt Convention, the latter being operative for several years to come.

There has been practically no change in the bromine industry in the United States during 1902. Nearly half of the output was obtained from Michigan and amounted to 61,452 pounds of bromine in potassium bromide, which, with the 165,000 pounds of liquid bromine produced, is equivalent to an aggregate of 226,452 pounds, as compared with the aggregate productioir in Michigan of 217,995 pounds in 1901.

The brines of Michigan have been well described in Water-Supply and Irrigation Paper No. 31. So far as known, the entire central basin of the lower peninsula of Michigan contains one vast brine deposit, which carries a larger percentage of bromine than any brine yet discovered. The deposit extends from the Indiana boundary line on the south to Grayling on the north, and from the Saginaw Valley on the east to Lake Michigan on the west. The highest percentages of bromine are reported from the wells in Midland and Gratiot counties. The supply of brine seems to be unlimited, and wells in Midland County which have been pumped for more than twenty jears show no signs of exhaustion. Since 1883 thirteen companies have been engaged in the bromine industry in Midland, and eight companies at different times have manufactured bromine at other localities in this basin. At present the entire production of the State is made b}'- two companies in Midland. The St. Louis Chemical Company, at St. Louis, Gratiot County, is drilling a second well and will probably become an active producer in the near future.

a Lower Michigan Mineral Waters; A Study into the Connection between their Chemical Composition and Mode of Occurrence, by Alfred C. Lane; Water-Supply and Irrigation Paper No. 31, U. 8. Geol, Survey, 1899.

„ R 1902 57

MrWERAL RESOUROE8.

The subjoined table gives the production of bromine in the United States from 1880 to 1902, inclusive, which shows that Michigan is the most important producer, followed by Ohio, Pennsylvania, and West Virginia.

Production of bromine in the United States 1880-1909,

Michigan.

Ohio.

Pennsyl-

West Virginia.

Total.

Value.

Year.

Total.

CeDtsper pound.

Pounds.

Pounds.

Pounds.

Pounds. 404,690 800,000 250,000 801,100 281,100 320,000 428,884 199,087 807,386 418,891 887,846 368,786 376,667 348,898 879,544 894,854 559,285 487,149 486,978 488,003 521,444 552,048 513,890

S114,752

So

a 141, 232

a 138, 272

a 210, 400

a 217, 995

a 226, 452

a Including the bromine equivalent of the product recovered as potasBium bromide.

Fluobspar And Cryolite.

By Joseph Hyde Pratt.

OCCURRENCE, a

Fluorite or fluorspar has been found widely distributed throughout the United States, but only in a few localities has it been found in sufficient quantity to be of value for commercial pui-poses. The largest deposits are in Hardin and Pope counties, 111. , and in Crittenden and Livingston counties, Ky. Fluorspar deposits have also been recently discovered in Smith, Trousdale, and Wilson counties, Tenn., and some of these have been worked during the last year by the Tennessee Fluorspar and Mining Company and the Tennessee Fluorspar Company. In the vicinity of Dome, Yuma County, Ariz., the Castle Dome Mining and Milling Company is mining the fluorite that occurs abundantly as a gangue mineral in many of the veins of that district, and during 1902 this territory was a producer of fluorite.

Production.

There was a very large increase in the production of fluorspar in 1902 over that of 1901, which was partly due to its increased use for metallurgical purposes. The total production in 1902 was 48,018 short tons, valued at $271,832, as compared with 19,586 tons, valued at $113,803, in 1901. This increase in the production was not due to any one State, but there was a large increase in the production of both Illinois and Kentucky, and also additional production in Arizona.

Of this production 43,310 short tons, valued at $224,832, was reported to have been sold in the crude state, as compared with 16,460 tons, valued at $77,500 in 1901, which is an increase of 27,860 tons in quantity and of $147,332 in value. The amount of ground fluorspar sold in 1902 was 4,708 tons, valued at $47,000, as compared with 3,700 tons, valued at $34,100, in 1901. This is an increase of 1,008 tons in

aSee Mineral Resources, U. S., 1901, p. 879; Bull. U. 8. Geol. Surrey, No. 213. pp. 206-218.

J

Mineral Resources.

quantity and of $12,900 in value. It would have been expected that with this very large increase in the production of fluorspar in 1902 there would have been a decrease in price. The reverse, however, was true, and there was a decided increase in price of both the crude and ground flourspar, the average price of the former being 15.19 and of the latter $9.98 per ton. As compared with the prices for 1901, which were $5 for the crude fluorspar and $9.22 for the ground, this is an increase per ton of 19 cents for the crude and of 76 cents for the ground fluorspar. The highest recorded price is $11.50 and the lowest $2.85 per ton.

There were 18 producers of fluorspar in 1902, divided as follows: Two in Arizona, 5 in Illinois, 10 in Kentucky, and 1 in Tennessee. The State to produce the largest amount of fluorspar was Kentucky, with a production of 29,030 tons shipped, valued at $143,410, which is at the rate of $4.94 per ton. In the table below are given the amount and value of the production of fluorspar in the United States for 1902, by States.

Ptodudion of fluorspar in the United States in 190S by States,

State.

Quantity.

Value.

Arizona and Tennessee

S/ioHtofu.

I6.S72

Kentucky

niinois

Total

In addition 800 tons of fluorspar, valued at $3,860, were mined but not marketed in 1902— a total of 48, 818 tons, valued at $275,682.

There should be a continued increase in the use of fluorspar for metallurgical purposes and thus an increase in the production of this mineral. The annual production of fluorspar since 1882 is given in the table below:

Pfoductixm of fluorspar in the United States from 1881S to 1902, indusioe.

Year.

Quantity.

Value.

Short tons.

Year.

Jigitized

Quantity.

Shoritom, 12,400 7,500 4,000 6,500 5,062 7,676 16,900 18,460 19,686 048,818

Value.

184,000 47,500 24,000 62,000 ST.lfiO 6a. 060 96,650 118,808

a Reported by the CeDfius.

Fluoespab And Cryolite. 901

A calcium fluoride is produced as a by-product in the reduction of the mineral cryolite in the manufacture of aluminum salts by the Pennsylvania Salt Manufacturing Company, of Philadelphia. This amounts to 3,000 to 4,000 tons per year, and is used as a flux in openhearth furnaces, acting in the same manner as fluorite, the natural fluoride. The material is not a pure calcium fluoride, but, as would be expected, it contains the impurities originally in the cryolite and the excess of the reagents added to carry out the reaction described below. The general composition of this product is as follows:

Per cent.

Calcium fluoride 60.04

Calcium carbonate 12.24

Calcium hydrate 8.83

The remaining 18.39 per cent is composed chiefly of silica, alumina, ferric oxide, etc.

The records of the Bureau of Statistics of the Treasury Department do not make any separate statement of fluorspar imported into the United States, and it is included among minerals and oils not elsewhere specified.

The mineral cryolite, from which the manufactured calcium fluoride is made, is imported from Greenland, and its importation determines the amount of the production of this artificial fluoride.

Occurrence And Use.

There have been no localities found in the United States that contain cryolite in commercial quantity, and Greenland continues to supply all of this mineral that is used. In a monograph on cryolite by I. I. Moltkehansen the statement is made that the average Greenland ore contains 90.4 per cent of cryolite, 4.37 per cent of siderite, 4.47 per cent of quartz, 0.30 per cent of pyrite, 0.03 per cent of chalcocite, and a trace of galena. Many tons have been found, however, that were 99.5 per cent pure cryolite. The deposit at Ivigtok, Greenland, which has been worked to a depth of 120 feet, has been shown by boring to extend at least 120 feet deeper. There are only three months in the year when these cryolite deposits can be worked, and as the Danish Government controls the deposits they control the production. The largest amount of cryolite produced in one year was 30,000 tons mined in 1897.

The cryolite imported into the United States is used in the manufacture of aluminum and sodium salts.

a To be published shortly.

Mineral Besouroes.

The reduction of the cryolite to soluble salts is by calcining with lime, the reaction being represented by the following equation:

6CaO+2Na,AlF,=6CaF,+3Na,O.Al,0,

There is now used in this reduction a certain amount of bauxite, which gives a double sodium aluminum oxide containing two parts of AljO, instead of one.

Another reaction has been advanced for the reduction of cryolite, which is by means of superheated steam, represented by the equation:

2Na3AliF.+6H,0=12HF+Al,0,.3Na,0

Dr. Charles Doremus, of the City College of New York, who discovered this reaction, has obtained very satisfactory results in adapting this reaction to the commercial reduction of cryolite. The hydrofluoric acid could be saved directly or be readily converted into the sodium fluoride by passing it into a sodium carbonate solution.

Production And Imports.

Each year there is imported into the United States from 5,000 to 10,000 tons of cryolite. In the table below are shown the imports of cryolite since 1871.

Imports of cryolite 1871-1909,

Year ending-

Amount.

Value.

Year ending-

Amount

Value.

June 30—

S71,058 75,195 M,226 28,118 70,472 103,530 126,692 66,042 91,366 103,529 51,589 97,400 106,029

December 81—

Longtofu.

S138.068 116,168 78,850 126,868 88,601

December 31 —

Gypsum And Gypsum Products.

By George I. Adams.

PRODUCTION BY CIjASSES OF PRODUCT.

The production of gypsum is reported as crude gypsum, land plaster, plaster of Paris, and wall plaster, which represent the conditions in which gypsum first reaches the market. The quantity and value of each of these classes and the totals for 1902 are set forth in the following table. For the sake of comparison the production for 1901, somewhat diflferentl'y classified, is also given below. The total production is estimated as crude, while the total value is that of the product as it first reaches the market.

Production of gypmm in United StateSy 1902.

Grade.

Crude

Land plaster . . Wall plaster... Plaster of Paris

Quantity.

c 816, 478

Value.

Averafire

price per

ton.

S1.15

Production of gypsum in United States, 1901.

Grade.

Quantity.

Value.

Average

price per

ton.

Crude

Short tons. 69,058 399,686

fl.05

Land plaster

Calcined

e 683, 791

a For a discussion of the gypsum deposits of the United States, their geologic occurrence and economic development, readers are' referred to a bulletin of the U. 8. Geological Survey by George I. Adams, now in press. It may be had upon application to the Director.

bThe statistics presented in this report have been checked and corrected to agree with all the available data on record in the division of mining and mineral resources.

0 Estimated as erode.

Re80Ue0E8.

During recent years there has been a considerable advance in the industry, which has resulted mainly from the increased use of gypsum wall plasters in modern buildings. The table of production shows that the amount of gypsum manufactured into wall plaster and plaster of Paris is about one-fourth greater than in 1901. Much of the gypsum sold as plaster of Paris is subsequently manufactured into wall plaster by local firms, who add retarder and sand and fiber in proportions as prepare it for immediate use with the addition of water. A considerable amount (about 3,000 tons annually) is utilized in bedding plate glass during the process of grinding and polishing. The production of land plaster is confined to certain of the Eastern States where it is used as a fertilizer, and to a few localities in the West, where it is employed in neutralizing "black alkali." The gypsum which is sold crude is in large part ground locally and utilized as land plaster. Some of it enters as a small percentage into the composition of certain Portland cements.

The following table has been compiled to show the progress of the gypsum industry during the last thirteen years. The annual production and value of the three varieties of gypsum are given, together with the value per ton of each. This table shows particularly the remarkable increase in the amount of gypsum calcined into plaster of Paris and wall plaster, which now approximates 82 per cent of the total output of gypsum. The value assigned to calcined plaster is for the quantity produced after calcination, and not for the crude gypsum used:

Production of gypsum in the United States, 1890-1902 , classified as to variety.

Total quantity ' produced.

Sold crude.

Ground into land plaster.

Year.

Quantity.

Value.

Averasre

price per

ton.

Quantity.

Value.

Average

price per

ton.

Short toTU. 182,995 208,126 266,259 253,615 239,312 265,503 224,254 288,982 291,638 486,235 594,462 638,791 816,478

Short tons. 56,525 51,700 47,668 50,408 41,996 85,079 27,864 81,562 40,929 50,038 45,682 59,058

1 gi

Gypsum.

Production of gypsum in the United States, 1890-1902, classified as to variety— Continued,

Calcined into wall plast

er and plaster of Paris.

Year.

Weight before calcining.

Calcined plaster produced.

Value.

Average

price per

ton.

Total value.

Short tons. 107,728 137,862 150,511 160,399 162,614 203,800 179,598 234,256 214,951 377,850 513,301 506,064 674,232

Short tone. 79,267 110,006 106, 141 122,937 127,158 150,801 137,505 180,935 190,083 286,227 396,284 899,686 639,887

Production By States.

At present the gypsum industry is carried on commercially in 16 States and Territories, which, named in the order of their importance as producers, are Michigan, Iowa, Texas, New York, Ohio, Kansas, Oklahoma, California, Wyoming, Colorado, Virginia, Utah, Montana, South Dakota, Nevada, and Oregon.

The deposit formerl} worked in the Indian Territory has been exhausted, and the crude material to supply the plant there is obtained from Oklahoma. There is a deposit of gypsite in Florida, near Lake PanasolBfkee, which may prove to be of economic importance. It is well situated in regard to the general market. The new developments are principally in the West. The wide distribution of the deposits in tliat section permits of the utilization of only those which are of high grade and are conveniently situated with respect to transportation facilities. An attempt has been made to govern the industry in a large section of the country by the organization of the United States Gypsum Company, which controls the gi'eater portion of the deposits in Iowa, and in part also those which have been developed in Kansas, Michigan, New York, and Oklahoma.

JTew York, — The gypsum deposits of New York extend in a narrow belt through the central part of the State. They are developed at Oakfield, Wheatland, Mumford, Garbutt, Victor, Port Gibson, Alabama, Union Springs, Marcellus Falls, Fayetteville, Manlius, Jamesville. Cottons, Clocksville, Perryville, and Valley Mills. At a number of these places the industry is of only local importance, the production being confined to land plaster. There are, however, some

Ic

large plants which produce principally wall plaster. The latest developments of the industry in this State have been the erection of modern mills for the manufacture of wall plaster.

Virginia. — The gypsum -producing localities in Virginia are confined to a small area near Saltville. At Plasterco there is a plant having railroad facilities. At this place wall plaster is manufactured. In addition there are a number of quarries which produce small quantities of gypsum, which is used locally as land plaster.

Ohio. — The gypsum industry' in Ohio is in the vicinity of Gypsum, which lies between Sandusky and Port Clinton. The product is converted principally into wall plaster.

Michigan. — Grand Rapids and vicinity is the chief center of the gypsum industry in Michigan. At this place there are a number of mills. The deposits at Alabaster, on the border of Lake Huron, are coming into more importance. The new developments are principally at this place.

Iowa. — Fort Dodge is the center of the gypsum area in Iowa. The deposits are confined to a limited territory, but are extensively utilized, especially in the manufacture of wall plaster.

Komsas. — In this State the principal producing localities at the present time are Blue Rapids, Hope, Gypsum City, Burns, Dillon, Mulvane, and Medicine Lodge. The deposits consist of rock gypsum and gypsite. The first gypsite deposits utilized in this country were those of Kansas. At the present time, however, gypsite is known in other States, and is more eagerly sought than the rock gypsum, since it can be manufactured at less cost and is especially suitable for making wall plaster.

Oklahoma. — The building of railways in Oklahoma during the last few years has permitted the development of gypsum at a number of places. The deposits are of vast extent. Only those which are well located are utilized. The plants are situated at Peckham, Okarche, Watonga, and Ferguson. The deposits at Cement are worked to supply a mill at Marlow, Ind. T.

Texas. — The gypsum in Texas, although of great extent, at the present time is utilized in a commercial way only at Acme and Quanah, in the northern part of the State.

Montana. — The gypsum deposits which have been developed in Montana are situated at Bridger and Armington. The material used is rock gypsum.

South Dakota. — The deposits in the Black Hills of South Dakota are utilized for the manufacture of wall plaster at Spearfish and Hot Springs.

Wyoming. — The principal economic developments of gypsum in Wyoming are at Laramie and Red Buttes. At Laramie the material used Ib gypsite, and at Red Buttes rock gypsum. In addition there

Gypsum.

is some development in the vicinity of Sheridan, in the northern part of the State.

Colorado, — The principal production of gypsum in Colorado is in the locality of Loveland. The material used is rock gypsum.

New Mexico, — There are vast deposits of gypsum in New Mexico, and a plant is now under construction at Ancho for the manufacture of wall plaster. The deposits in this Territory include an area of gypsum sand known as "the white sands," which is of considerable interest. The material occurs in dunes and is readily available for manufacturing, but there are no railroad facilities in the locality of the deposits.

Arizona, — The principal production of gypsum in former years has been in the vicinity of Tucson. Recently deposits have been opened at Woodruff and Snowflake, but have not been developed in a commercial way.

Utah, — There is a large plant at Nephi which is engaged in the manufacture of various classes of gypsum products.

Nevada, — The deposits at Moundhouse are worked, and the product is manufactured at Empire. Formerly the deposit at Lovelocks was worked, and recently new developments at that place have been undertaken.

California, — In southern California gypsum is manufactured, principally at Los Angeles. At a number of places it is developed in a small way. In this State local deposits are utilized as land plaster for neutralizing black alkali.

Oregon, — The only plant in Oregon is on the eastern border of the State, at the station of Lime.

In the following tables, which show the production of gypsum, by States, for 1901 and 1902, it has been necessary to combine the output of certain States in which there are less than three producers, in order to protect individual statistics.

Production of gypsum in the United Stales in 190S by States,

State or Territory.

California, Ohio, and Virginia

Colorado and Wyoming .. Iowa, Kansas, and Texas.

Michigan

Oklahoma

other States

Total 816,478

Total quantity.

Short Urns.

Sold crude.

Quantity.

Short tona,

Value.

Ground into land plaster.

Quantity.

Short tons,

Value.

Calcined into wall plaster and plaster of Paris.

Before

calcining.

tOM.

After calcining.

Short tons.

Value.

Total ▼alne.

Mikebal Besouboes.

Production of gyptum in the United States in 1901, by States.

state or Territory.

Total quantity.

Sold crude.

Quantity. Value.

Ground into land plaster.

Quantity. Value.

California

Colorado and Wyoming . . Iowa, Kanaas, and Texas.

Michigan

New York

Oklahoma

Vliginla

Other States

Total

Short tons.

Short tons.

Short tons.

State or Territory.

Calcined into plaster of Paris.

Before After

calcining, calcining.

Value.

Total value.

Short tons.

Short tons.

California

Colorado and Wyoming. . . Iowa, Kansas, and Texas .

Michigan

New York.

Oklahoma

Viiginia

Other States

Total.

Since the Eleventh Census the statistics of production are relatively complete, and the total production and value of each State and of the United States, from 1890 to 1900, inclusive, are shown in the following table:

Production and value of gypsum by States, 1890-1900.

state.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

California

Sliort Urns. 4,249 4,680 20,900 20,250 74,877 32,903 12,748 2,900

Short tans.

Colorado

Iowa

Kansas ,

Michigan

New York

Ohio

South Dakota

Texas

Utah

Virginia

Total

Gypsum. 909

Production and value of gypsum by States, 1890-1900 — Oontinaed.

State or Territory.

California

Colorado

Indian Territory .

Iowa

Kansas

Michigan

Montana

New York

Ohio

Oklahoma

South Dakota

Texas

Utah

Virginia

Wyoming

Total.

Quantity. Value.

Short loM.

S65,638 181,599 808,921

Quantity. Value,

Shorttons.

Quantity. Value,

Short toM. 5,158 1,871 13,100 25,700 72,947 66,519

State or Territory.

Quantity. Value.

Quantity. Value.

Quantity. Value.

Arizona

Calilomia

Colorado

Indian Territory. Iowa

Michigan

Montana

Ohio

Oklahoma Territory .

Oregon

South Dakota

Texas

Utah

Virginia

Wyoming

Total.

Short toM.

Short tons.

Short toru.

Production and value of gypaum by StateSy 1890-1900 — Continued.

State or Territory.

Quantity. Value.

Quantity. Value.

Arlxona

California

Colorado

Indian Territory

Iowa

Kansas

Michigan

Montana

New York

Nevada

Ohio

Oklahoma Territory .

Oregon

South Dakota

Texas

Utah

Viiginia

Wyoming

Short tons.

Short torn.

Total-

Imports.

The gypsum which is imported into the United States comes chiefly from Nova Scotia and enters the ports of the New England and northern Atlantic States. A considerable amount has been received from Mexico in previous years and has entered at San Francisco, but none was imported from there in 1902.

The gypsum which is imported is nearly all calcined and converted into wall plaster. A small amount of it is used as land plaster, and some manufacturers of fertilizers mix it with their product. The following tables show the imports by countries and by customs districts in which they were entered:

Gypsum.

Imports of crude, ground, or calcined {dutiable) ffypsum, by countries, in 1900, 1901, and

Country from which imported.

Quantity.

Value.

Quantity. 1 Value.

Quantity.

Value.

France

Tvm.

United Kingdom

Nova Scotia and New Branswick . Mexico

Other conntrles . , ,

Total

Imports of crude, ground, or calcined (dutiable) gypsum, by customs districts, in 1900,

Customs district into which imported.

Aroostook, Me

Bangor, Me

Bath, Me

Passamaquoddy, Me

Portland and Falmouth, Me . .. Boston and Charlestown, Mass .

Gloucester, Mass

Fairfield, Conn

New Haven, Conn

NewYork, N. Y

Newark, N.J

Perth Amboy, N. J

Philadelphia, Pa

Delaware

Baltimore, Md

Norfolk and Portsmouth, Va. . .

Alexandria, Va

Ban Francisco, Cal

Other districts

Total.

Quantity. Value.

Quantity. Value,

Tons.

Quantity. Value,

Tons.

Mineral Re80Ubces.

Gypmm imported into the Uniled States, 1S67-1902.

Year ending-

June 80— 18G9...

Dec. 81—

Ground or calcined.

Quantity." Value.

Long totis.

5,737 4,291 4,&96 6,418 5,911 4,814

3,3-iO 5,466 7,568 9,560 6,832 3,363 2,027 3,295 3,292 2,664 2,973 3,265 3,109 3,106 3,647

Unground.

Quantity. Value.

Long Urns.

166,697 170,965 171,289 110,257 181,104 1&1,300 162,500 192,549 180,269 163,201 166,066 196,579 209,881 235,201 306,867

170,023 179,849 174,609 129,003 180, 2M 179,237 215,705 193,544 178,686 181,364 220,603 229,878 238,440 284,942

Value of manufactured plaster of Paris.

Total value.

t844

S125,281 114,350 186,612 164,018 168,873 165,469 170,901 171,096 179,070 162,917 140,587 126,642 150,409 171,724 200,922 218,909 210,904 178,752 168,838 199,890

a Quantity not reported previous to 1H82.

ft Not specified from 1884 to 1894, inclusive.

World&#x27;S Production.

The United States is the second country in the world in the production of gypsum. France produces 63 per cent of the entire amount. The United States produces about 19 per cent. Canada is third, producing about 9 per cent, and Great Britain fourth, with approximately 7 per cent; after which follow Germany and Algeria as important producers, with less than 2 per cent each. In the following table the production of the various countries since 1893 is set forth:

Otpsum.

The world's production of gypsum 189S-190S.

Year.

Quantity. Value.

Short tons.

1,693,831 2,175,448 1,866,496 1,845,874 l,931,n2 1,802,812 1,761,835 2,182,229

t2, 891. 366 3,392,768 2,661,200 2,678,033 2,777,816 2,641.020 2,772.221 8,449,747

United States.

Quantity. Value.

Canada.

Quantity. Value,

Short tons. 192,668 223,681 226,178 207,032 239,691 219,256 244,666 262,001 298,879 332,045

Year.

Great Britain.

German Empire.

Algeria.

Quantity. Value.

Quantity. Value.

Quantity.

Value.

Year.

India.

Cyprus.

Quantity.

Value.

Qi antity. Value.

a Not yet available. M R 1902 58

5 Includes Baden.

Phosphate Rock.

By Joseph Struthers.

The phosphate rock industry in Florida and South Carolina is gradually recovering from the setback it received in 1900 from the scarcity of transportation facilities, combined with high ocean freight rates and low prices. In Florida during 1902 the production, based on the marketed output, was greater than in 1901, and although in South Carolina and Tennessee the output was slightly below the report for 1901, the general conditions were more satisfactory than in the earlier year. In reporting the production of phosphate rock in the United States it has been deemed more desirable to consider the quantities sold during the year as equivalent to the production rather than the phosphate actually mined, an arrangement which shows more clearly the relation between the consumption and the actual supply.

The tendency toward consolidation, which began to make itself evident a few years ago, continued during 1902. The larger companies have acquired much additional property and are appljung modern business methods in the endeavor to establish a uniform price for the product — a condition which is highly desirable for the future of the industry. Fuilhermore, the large fertilizing interests have extended their property holdings in order that they may become independent of the market by controlling their own supply of raw material. The necessity for centralized effort with its concomitant advantages is particularly evident in the phosphate industry, as the deposits of high-grade rock are limited; no new discoveries of note have been recorded and the older mines are gradually becoming exhausted.

Summarizing the present condition of the phosphate industry as a whole, it may be stated that the speculative element which predominated the field in early years of development has become almost entirely eliminated, and the industry in all States is now established on a substantial and permanent basis.

A description of the methods of mining phosphate rock in Florida, South Carolina, and Tennessee will be found in the earlier volumes of Mineral Resources.

The State of Florida has been the chief producer of phosphate rock since 1894, and the progress of the industry continues to show an improvement, although the value of the marketed output during 1902 was considerably less than in the preceding year. The decrease in the production was chiefly that of river pebble, which resulted from the destruction by fire early in January, 1902, of the calcining plant of the sole operating company. Making an allowance for this circumstance by assuming an output equal to that of the preceding year, the total production of phosphate rock in Florida during 1902 would have been considerably greater than in the year 1901. The small decrease in the production of hard rock during 1902 was more than counterbalanced by the increase in the production of land pebble, so that, all things considered, the progress of the industry in Florida was very satisfactory. There has been no production of soft rock in Florida since 1897, in which year an output of only 2,300 tons was reported. Comparing the production by varieties during 1902 and 1901, the record as given in the table is, respectively, as follows:

Hard rock, 429,384 long tons, valued at $1,743,694, as compared with 457,668 long tons, valued at $2,393,080, in 1901.

Land pebble, 350,991 long tons, valued at $810,792, as compared with 247,454 long tons, valued at $660,702, in 1901.

River pebble, 5,055 long tons, valued at $9,711, as compared with 46,974 long tons, valued at $105,691, in 1901.

A total of 785,430 long tons, valued at $2,564,197, as compared with 751,996 long tons, valued at $3,159,473, in 1901.

In South Carolina during 1902 the total production of phosphate rock was 313,365 long tons, valued at $919,725, as compared with 321,181 long tons, valued at $961,840, in 1901, the respective reports being: Land rock, 245,243 long tons, valued at $753,220, in 1902, as compared with 225,189 long tons, valued at $716,101, in 1901, thus showing an increase of 20,054 tons and $37,119. Oflfsetting this increase, however, was the decreased production of river rock, which amounted to 68,122 long tons, valued at $166,505, in 1902, as compared with 95,992 long tons, valued at $245,739, in 1901, a decrease in quantity of 27,870 long tons, and in value of $79,234.

The total production of phospate rock in Tennessee, based on the marketed output during 1902, was 390,799 long tons, valued at $1,206,- 647, as compared with 409,653 long tons, valued at $1,192,090, in 1901, a decrease of 18,854 tons; the value, however, increased $14,557 owing to the better prices that ruled during 1902.

The production of phosphate rock from other States, which is referred to in detail in the next section, aggregated 720 tons, valued

Phosphate Rook.

The total quantity of phosphate rock reported to the United States Geological Survey as marketed during 1902 amounted to 1,490,314 long tons, valued at $4,693,444, as compared with 1,483,723 long tons, valued at $5,316,403, in 1901, an increase in quantity of 6,591 long tons and a decrease in value of $622,959.

The total quantity of phosphate rock reported as mined during 1902 was 1,548,720 long tons, valued at $4,922,943, as compared with 1,440,408 long tons in 1901.

The following table gives the production in the United States of phosphate rock, classified by grades, from 1892 to 1 902, inclusive, based on the marketed product:

Production of phosphate rock in the United States, 189£-I90, based on the quantity

marketed.

state.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Florida:

H&rd rock

Long tons.

a 156, 908

W59,276

Long tons.

Long tons. 326,461

Soft rock

l/RTid pebble© T ,

River pebble

Total

South Carolina:

Tiftnd Tock

River rock

Total

Tennessee

' 1

Grand total

state.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Florida:

Hard rock - . . Soft rock

Long tons.

Long tons. 366,810

Land pebble . River pebble.

Total

l,847,79e

South Carolina: Land rock ... River rock . . .

856,22b 251,04

Total

Tennessee

North Carolina ..

Grand total.

a Includefl 62,708 tons of hard rock carried over in stock from 1891. j

fr Includes 12,120 tons of river pebble carried over in stock fpm 1691. ( IC

Production of phosphate rock in the United States, 189S-190S, etc. — Continued.

State.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Florida:

Hard rock ... Land pebble. River pebble.

Long tons.

t2, 229, 378 612,703 141,236

Long tons.

Long tons.

Total

South Carolina: Land rock ... River rock...

Total

Tennessee

North Carolina . .

Pennsylvania Alabama, .

Other States

Grand total.

a Value included in South Carolina land rock.

In considering the foregoing table, as well as those relating to the domestic production which are given later in this section, it must be remembered that the marketed product is taken as a basis of production. The quantit} of phosphate rock which was actually mined in Florida during 1902 was 8,868 long tons more than the quantity marketed in that year. The total quantity of hard rock mined in Florida during 1902 was 447,445 long tons, which is 18,061 long tons more than the reported marketed output. With regard to land pebble, there were 331,397 tons mined, as compared with 350,991 long tons sold, which shows a decrease in stock carried over from 1902 of 19,594 long tons from the quantity on hand at the first of the year. The marketed product of river pebble during 1902 was 5,055 long tons, whereas the quantity mined amounted to 5,456 long tons, an increase of 401 long tons to be added to the stock on hand at the first of the year.

In South Carolina during 1902 the quantity of land rock reported as mined was 254,566 long tons, as compared with 245,243 long tons sold, which shows an increa.se of 9,313 long tons to be added to the stock on hand at the first of the year. With regard to river rock, the quantity mined was 75,803 long tons, and that marketed was 68,122 long tons; in this case also the stock on hand at the beginning of 1902 should be increased by 7,681 long tons to give the stock. on hand at the end of the year.

The phosphate mines in Tennessee during 1902 yielded a product of 396,015 long tons, and the quantity sold was 390,799 long tons, which gives an increase of stock at the end of the year of 5,216 long tons.

Phosphate Rock.

Imports.

The following table shows the imports of fertilizers of all kinds into the United States from 1868 to 1902, inclusive:

Fertilizers imported and entered far consumption in the United States, 1868~190S,

Year ending-

June 80—

Dec. 31—

Quano.

Quantity. Value.

Crude )>hoBphate8 and ibfltances used

other sub

for fertilizing poses.

pur-

Quantity. Value.

Long ions.

82,606 53,100 36,405 35,661 29,743 92,476 106,549 126,820 80,068 113,955 200,598 17,'966 17,830 21,252 24,439 57,558

Total value.

a Until 1898 the crude potassium wilts, kieserite and kainite, were included under "Other substances used for fertilizing purposes" in addition to apatite and bone duHt or bone ash. The imports of kieserite and kainite since 1898, inclusive, are as follows: 1898, long tons, 121,606 (9621,448); 1899, long tons, 133,472 (9777,602); 1900, long tons, 181,353 (91,201,272); 1901, long tons, 240,987 (91.360,619); 1902, long tons, 225,413 (91,016,032).

Mikeral Besouroes.

WORIiD'S PRODUCTION.

In the following table will be found a statement of the world's production of phosphate rock from 1896 to 1901, inclusive:

WorUTs production ofphotphaU rock, 1896-1901. [Metric tons.]

Country.

Algeria

Belgium

Canada

France

Norway

Russia

Spain

United Kingdom

United States

Quantity. Value.

Quantity. Value.

Quantity. Value.

Country.

Algeria

Belgium

Canada

France

Norway

Russia

Spain :

United Kingdom

United States

Quantity.

Value.

a 190. 090

Quantity.

Value. Quantity. Value.

r>. 359. 248

Nil.

a Cubic meters.

Statistics not yet available.

V Value not reported.

8 A.Il.T.

By Joseph Struthbrs.

Production.

The production of salt in the United States during 1902 amounted to 23,849,221 barrels (of 280 pounds), valued at $5,668,636, as compared with 20,566,661 barrels, valued at $6,617,449, in 1901, and 20,869,342 barrels, valued at $6,944,603, in 1900. The largely increased production during 1902 is a fair reflection of the continued general prosperity of the United States, and the increase would' have been much greater had it not been curtailed in the Eastern States by the shortage of coal for fuel. Even with this hindrance the aggregate production of all varieties shows the largest quantity yet recorded for any one year.

For convenience in discussing the details of the industry, salt is classified into "table and dairy," common fine," "common coarse," "packers," "coarse solar," "rock," "milling," and "other grades." The last-named division embraces products not properly classible among the preceding, and includes salt in the form of brine, which is used in very large quantities for the manufacture of soda ash, sodium bicarbonate, sodium h'drate (caustic soda), and other sodium salts. During 1902 the aggregate quantity of all varieties of sodium salts, reduced to a basis of 58 percent ash, manufactured in the United States (not including sodium chloride, or common salt) amounted to 619,492 short tons, equivalent, approximately, to more than 2,500,000 barrels of salt in the form of brine, as compared with 529,104 short tons, equivalent to more than 2,000,000 barrels, in 1901.

The tables on the following pages illustrate clearly the progress that has been made in the salt industry in the United States since 1880, and record the enormous increase in the production, from 5,961,060 barrels in 1880 to 23,849,221 barrels in 1902— an increase of 400 per cent. During the last twenty-three years the annual production has increased regularly except in 1889, when the output was 50,000 barrels, or about 0.6 per cent, less than that of 1888, and in 1901, when the output was practically 300,000 barrels, or about 1.5 per cent less than in 1900. Notwithstanding, and perhaps because of the rapid increase in the production of salt in the United States during the last twenty years, the

2l

in a great man}' cases to overproduction and keen competition for trade, and as a natural result the tendency to form combinations, which has been marked in other industries during the last few years, extended also to the salt manufacturers. Combinations have been effected among the majority of producers of the most important of the salt-producing States — i. e., New York, Michigan, Ejtnsas, Ohio, Utah, and California. In the last-named State, however, the combination of prominent salt producers, which maintained the price of coarse salt at $18 per ton, was formally indicted by the Federal grand jury and was enjoined by the United States circuit court from forcing prices above a reasonable compensation for the cost of manufacture. The National Salt Company of New York, also, the largest individual producer of common salt, was declared insolvent on September 30, 1902, and placed in the hands of a receiver.

The following table shows the distribution of the total salt production of the United States, by grades, during the last ten years, from which it will be observed that the production of common fine salt has approximated 37 per cent of the total output during this period:

Production of salt, by grades, in the United Stales, 189S-190iS.

Year.

Year.

Table and dairy.

Common fine.

Common coane.

Packers.

l,5n,137

Solar.

Rock.

Milling.

other grades.

'dSSlSSr T0U.lyalue.

BarreU. 6,141 I 95,621 I 40,107 I 138,271

S4, 154, 668 4,739,286 4,423,084 4,040,839 4,920,020 6,212,554 6,867,467 6,944,603 6,617,449 5,668,636

Balt.

&23

The total annual production of salt in the United States since 1880 is given in the subjoined table, which shows that in proportion to the production the value in some of the earlier yeTs was greater than it has been since 1892. This is due in part to the fact that the competition was not so strong during the first ten years of which records have been available, and in part to the fact that the value of the product when reported by a great many of the manufacturers included the value of the packages in which the salt was shipped. Since 1893 the value as stated includes only the net value of the product, exclusive of any boxes, bags, barrels, or other packages.

Production and value of salt in Die United States 1880-1902.

Year.

Quantity.

Value.

. Year.

Quantity.

Value.

Barrels. 11,698,890 11,897,206 12,968,417 13,669,649 13,850,726 15,973,202 17,612,634 19,708,614 20,869,342 20,566,061 23,849,221

The chief salt-producing States are Michigan and New York, the combined output therefrom in recent years amounting to about 75 per cent of the total production of the United States. Prior to 1893 Michigan was the foremost producer; in that year, however, New York assumed the lead and maintained it until 1901, when Michigan regained supremacy, only to be again displaced by New York in 1902. The percentage of the total production of the four leading salt-producing States during 1902 is as follows: New York, 8,523,389 barrels (35.8 per cent); Michigan, 8,131,781 barrels (34.1 percent); Kansas, 2,158,486 barrels (9.1 per cent); and Ohio, 2,109,987 barrels (8.9 per cent). These four States contributed 87.9 per cent of the total quantity of salt produced in the United States during the year.

Mineral Besouboes.

Production of salt, by States and Territories, during 1899, 1900, 1901, and 1902.

State or Territory.

Quantity. Value.

Quantity. Value.

Quantity. Value.

Quantity. Value.

New York. Michigan..

Ohio

Oklahoma

California

Texas

Wert Virginia.

Utah

Pennnylyania . Other States...

Bamit.

BarreU. 7,897,071ft2,171,418

Total.

Barrels. 7,286, 7,729,641 2,087,791 1,163,636 7,506 601,669

a Included in other States.

Bomestic Consumption.

The following table has been compiled to show the increase in the proportion of salt produced in the United States which has entered into the domestic consmnption. Of the total consumption of salt in the United States the quantity of salt of domestic production used increased from 63.5 per cent in 1880 to 94.81 per cent in 1902, while the consumption of salt imported into the United States decreased from 36.5 per cent of the total in 1880 to 5.25 per cent in 1902. The actual consumption in 1902 was 25,132,579 barrels or more than 3.7 times that of 1880. In 1880 the production in the United States was 5,961,060 barrels and the imports 3,427,639 barrels. The corresponding figures for 1902 show a remarkable increase, to 23,849,221 barrels of domestic salt produced, while the imports decreased to 1,319,744 barrels.

The following table presents the production, imports, exports, and domestic consumption since 1880:

Supply of salt for domestic consumption, 1880-190S, [BarrelB.]

Source.

irso.

18Si.

Domestic production

Imports . .

Total ... .

£xport8

Domestic conftumption ,

ft 841, 779

ft2O8.0a4

Increase over pi'ecediig year -,..,,,,. r

Percentage of imports to total consumption.

a Estimated.

fDecreap4zed by >UUVIC

SALT. Supply of mitfor domestic consumption 1S80-1902 — Continued.

Source.

Domestic production. Imports

Total

Exports

Domestic consumption

Increase over preceding year

Percentage of imports to total consumption.

Source.

Domestic production. Imports

Total . Exports

Domestic consumption

Increase over preceding year

Percentage of imports to total consumption

a 899, 186

Source.

Doiaestic production . Imports

Total. Exports

Domestic consumption

Increase over preceding year . . .

Percentage of imports to total consumption

Source.

Domestic production . Imports

Total

Exports

Domestic consumption .

Incrca.* over preceding year.

Percentage of imports to total consumption

a Decrease.

Imports And Exports.

The imports of salt into the United States from 1867 to 1881, as reported by the Bureau of Statistics of the Treasury Department, show an increase from 483,775,185 pounds in the former year to 1,075,198,397 pounds in 1881, the largest quantity yet recorded. From 1881 the imports decreased almost as steadily until 1893, whe

Mineral Besouboes.

pounds were reported, the smallest yearly quantity recorded since 1867. The decrease was largely in the imports of fine salt, due to the domestic production of table, dairy, and other special ades of salt equal, if not superior, in quality and price to the imported article. The tariff act of 1894 placed salt upon the free list, and importations increased to 434,155,708 pounds in 1894 and to nearly 560,000,000 pounds in 1895. In 1896 the imports of foreign salt amounted to 520,411,822 pounds. The tariff act of 1897 returned salt to the dutiable list. Salt in bags, barrels, or other packages is now subjected to a duty of 12 cents per 100 pounds (33.6 cents per barrel), and salt in bulk is taxed at the rate of 8 cents per 100 pounds, or 22.4 cents per barrel. The duty on imported salt in bond used in curing fish taken by vessels licensed to engage in the fisheries and in curing fish on the navigable waters of the United States or on salt used in curing meats for export may be remitted. The quantity of salt imported in 1897 was nearly 20 per cent less than in 1896, the total amounting to 418,049,214 pounds, and in 1898 the imports fell off to 371,059,452 pounds, with one exception the smallest amount reported in thirt-two years. In 1899 the imports increased to 378,102,567 pounds, but the value showed a decline of about $9,000 from that of 1898. The imports increased to 399,817,824 pounds in 1900, to 403,465,946 pounds in 1901, and decreased to 369,528,186 pounds in 1902. Since 1867 the imports have been as follows:

iSalt imported and entered for consumption in the United States, 1867-190S.

Year ending—

In ba, barrclB, and other packages.

In bulk.

Quantity.

Value.

Quantity.

Value

June 30—

Pounds. 254,470,862 308,446,080 297,382,750 288,479,187 283,993,799 258.232,807 239,494,117 358,375,496 318,673,091 331,266,140 359,006,742 352,109,963 375,286.472 400,970.531 412,442.291 829,969,300 312.911,360 i0,759,010 351,276,969

Pounds. 229,304,323 219,975.096 266,765,240 349,776,438 274,730,573 257,637,230 388,012,182 427,294,209 401,270,315 379,478,218 44*1,044,370 414,813,516 43-1, 760, 449,743.872 529, 361. (Ml 399,100,228 412,938,686 441,613,517 412,822,341

965,458 351,168 507,874 355,318 312,569 525,585 549. m 462,106 532,831 483,909 582,706 548,425 658,068 433,827

Dec.31-~

Salt.

SaU imported arid entered for consumption in the United States, 1S67-190£ — CJontinued.

Year ending-

Dec. 31—

In lags, barrels, and other packages.

Quantity.

Pounds. 288,921,421 180,906,298 172,611,041 150,083,182 160,799,014

Value.

In bulk.

Quantity. Value.

Pounds. 272,650,231 234,499,635 243,756,044 220,309,965 201,366,103 146,945,890 101,525.281

Year eiiding-

For the purpose of curing fish.

Quantity. Value,

Not elsewhere specified.

Quantity. Value,

Total quantity.

Total value.

June 30—

Dec. 31—

isr.

Pounds.

Pounds.

Pounds. 483,775,186 628,421,176 554,147,990 706,852,643 623,396,511 573,700,966 714,262,877 891,283,618 830,287,846 829,504,996 985,484,084 867,718,090 904,106,718 959,788,849 1,075,196,897 868,847,097 867,915,603 906,977,803 903,666,328

Salt imported and entered for conmtmption in the United States 1867-190S — Continued.

Year endings

For the purpose of caring ush.

Not elsewhere specified.

Total quantity.

Total value.

Quantity.

Value.

Quantity.

Value.

Dec. 31-

Pounds.

Pounds.

Pounds, 871.059,452 378,102,567 399,817,824 403,465,946

SaU of domestic production exported from the United States, 1790-1902.

Year ending—

Sept.

June 30—

Quantity.

Bushels.

40,678 157,529 131,500 117,627 202,244 219, 145 i 312,063 319,175 344,061 1,467,676 516,867 548,185 536,073 698,458 576,151 533,100 717,257 475,446 537,401 397,606 584,901 685,619 589,637

Value.

Year ending-

June 80—

18T2..

Dec. 31—

Quantity.

Bushels.

ft 4, 101, 687

Pounds.

Value.

ft Pounds from

Jigitized by

Salt.

In connection with the foregoing tables it is interesting to note the sources from which the imported salt is obtained and the market supplied by the exports of domestic salt. For this purpose the following tables, showing the countries from which we import, the quantity and value of the salt received from each, and also the quantity and value of the salt exported, by countries, are given for the three fiscal years ending June 30, 1900, i901, and 1902. It will be observed that Great Britain is the principal exporter of salt to the United States, the quantity imported from the United Kingdom averaging somewhat over 40 per cent of the total imports. Next in importance are the West Indian islands (chiefly British), followed by Italy. The amount received from all other countries is comparatively small.

The principal exports are through the port of San Francisco tx) the Central American States, Mexico, the Hawaiian Islands, Japan, and Asiatic Russia. About 26 per cent, or a little more, is shipped across the Great Lakes to the Dominion of Canada.

The imports and exports for the last three fiscal years, with the countries from which imported and to which exported, are given in the following tables:

Imports ofgaU during theJUccU years eliding June SO, J 900, 1901, and 1902.

Country from which Imported.

Year ending Jane 80,

Dutiable and free.

Quantity. Value.

Year ending June 30,

Dutiable and free.

Quantity. Value.

Year ending June 30,

Dutiable and free.

Quantity. Value.

United Kingdom

Italy

Canada

West Indies

other countries . .

Total

Pounds. 151,316,042

Ejrports of salt during the fiscal years ending June SO, 1900, 1901, and 1902.

Country to which exported.

Year ending June 30,

Year ending June 30,

Year ending June 80,

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

United Kingdom

Pounds. 8,000 135,140 19,152

Pounds. 11,950 155,825 10,260

Pounds 22,000 196,368 13,891

Bermuda , - , . - -

British Honduras

Dominion of Canada:

Nova Scotia, New Brunswick, etc.

Quebec, Ontario, etc

British Columbia

Newfoundland and Labrador

M R 1902 69

Mineral Resources.

Exports of salt during the fiscal years ending June SO, 1900, IDOl, and 190S — Continaed.

Country to which exported.

Year ending June 30,

Year ending June 80, ICOl.

Year ending June 30,

Quantity.

Value.

Quantity.

Value.

Quantity.

Vnliio.

Cenlml American States: CoetaRIea

Pounds.

Pounds. 141, 188 371,634 165,406 332,063

Pounds. 139,980 478,287 60,215 346,913

Honduras

Nicaragua

Salvador

Mexico

West Indies:

British

Danish

Haiti

Porto Rico

Santo Domingo

Cuba

Colombia

Japan

China

Russia, Asiatic

French Oceania

British Australasia

Hawaiian Islands

Philippine Islands

British Africa

Other countries

Total

WOBIiB'8 PBOBUCTION.

With the exception of the production of the United States and Canada, the latest statistics available for the countries contributing to ' the world's supply of salt are for the calendar year 1901. The subsequent table, accordingly, brings the output for these countries down to that year only. It shows that the United States, which since 1892 has held second place among the countries of the world, became the leader in 1897, ranking Great Britain by about 5 per cent. This advantage was increased in 1898 by a gain in the production of the United States and a decrease in the output of Great Britain, and was further augmented in 1899 by an increase in production nearly eight times as large as that of Great Britain for that year. In 1901 the United States reported a decrease in production compared with 1900 amounting to 42,370 short tons, and the output of Great Britain was 87,243 short tons less than in 1900. It is thus shown that the United States has not only maintained but has materially increased the lead over her principal rival in recent years. The total output of salt in the United States during 1901 was 44 per cent greater than that of Great Britain for that year.

Salt.

The uvrlcfs salt production 1890-1901.

Year.

Year.

United States. United Kingdom.

France, a

German Empire.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Quantity. Value.

Short tons. 1,242,778 1,898,312 1,637,846 1,665,609 1,815,438 1,913,751 1,939,102 2,236,248 2,466,769 2,759,206 2,921,708 2,877,932

Short tons. 2,403,462 2,288,800 2,191,307 2,154,912 2,504,221 2,434,043 2,266,040 2,131,912 2,103,718 2,144,680 2,084,709 1,997,566

S5, 35-1, 400 4,737,596 4,177,796 8,565,827 3,703,601 3,442,292 3,238,073 3,017,561 3,016,011 3,134,873 3,069.600 2,864,950

Short tons,

Short ions. 1,157,023 1,289,888 1,286,675 1,339,311 1,381,211 1,332,557 1,436,648 1,440,858 1,610,527 1,678,693 1,668,912 1,724,747

Japan.

Quantity.

Short tons. 644,030 616,795 633,449 744,717 708,500 671,446 586,323 691,947 712,878 640,659 726,545

Value, c

Italy.

Austria-Hungary, b

Quantity.

Value.

Quantitj'.

Value.

Short ions.

Short tons.

Year.

Russia.

Quantity.

Short tons. 1,531,736 1,489,008 1,608,695 1,489,687 1,493,572 1,706,896 1,484,782 1,682,337 1,642,960 1,852,861 2,169,832

Value.

Spain.

Quantity.

Short tons. 678,531 642,292 750,069 166,913 227,645 369,601 574,970 560,484 527,858 669, 140 195,965 880,363

Value,

India.

Quantity.

Short ions. 1,169,895 1,189,468 1,008,330 940,547 1,452,654 1,282,622 1,181,472 1,038,601

Value.

a Includes product of Algeria.

fr Government monopoly.

oNo value obtainable.

Production and value in 1900 is used in making up the total for the world's production in 1901.

e Unit value taken the same as in 1899 in making up the total for the world's production for 1900

Minkral Resources.

The worlds soli production, JS90-1901 — Continoed.

Year.

Canada.

Quantity. Value.

Short Um%. 43,754 45,021 45,486

Other countries.

Quantity. Value. I Quantity Value.

Short tons.

ft2,772

d 128, 959

d35,373

Short Unu. 10,218,401 10,226,247 10,581,323 10,058,567 10,978.702 11,284,583 11,219,837 U, 303. 807 12,145,445 12.651,685 12,470,670 13,775,900

a Not including production of Japan, for which no value is obtainable.

bCape Colony and Ceylon.

cCape Colony, Ceylon, Greece, Bosnia, and Herzegovina.

dCape Colony, Greece, Bosnia, and Herzegovina.

In addition to this quantity Brazil produced 26,882; Peru. 19,836; Roumanla, 119,103; Bwitaerland. 62,116; Turkey, 247,663. Total, 465,600 short tons, for which no value is given.

/ In addition to this quantity Argentina produced 28,000 short tons; Chile (approximately), U.OOO; China (estimated), 250,000; Egypt (estimated), 850,000; Roumanla (approximately), 100.000, and Switzerland, 55,766, an aggregate of 694,766 short tons, for which no value is given.

Sulphur And Pyrite.

By Joseph Struthbrs.

Production.

The production of sulphur and of pyrite for the manufacture of sulphuric acid in the United States during 1902 was 207,874 long tons, valued at $947,089, as compared with a combined production of 241,691 long tons, valued at $1,257,879, in 1901. The production of sulphur during 1902 was derived from Louisiana, Nevada, and Utah, in the order of the importance of their output. Oregon and Idaho, which contributed to the output during 1901, reported no production for 1902.

The quantities of sulphur produced in the United States during 1901 and 1902 are the largest annual outputs that have ever been recorded, which indicates that the development of this important branch of the mineral industry is worthy of considerable attention. Until the last two years the production of domestic sulphur has averaged less than 1 per cent of the total consumption, an insignificant amount compared with the imports from foreign countries.

During 1902 the quantity of sulphur consumed in the United States from domestic and foreign sources, including the sulphur content of iron 'pyrite, which is used in the manufacture of sulphuric acid, amounted to 483,297 long tons.

The following table shows the annual production of sulphur in the United States since 1880:

Sulphur production of tfie United Stales 1880-190S,

Ycsar.

Quantity.

Value.

Year.

Quantity.

Value.

Short tons,

t21,000 21,000 21,000 27,000 12,000 17,875 76,000

Shoritona. 2,688 1,'200 1,800 5,260 2,275 1,200 4,880 3,626

a

Sec tabic

if pyrite p

roductlon on page 940.

Mineral Besouboes.

Domestic Consumption.

In considering the consumption of sulphur in the United States it is necessary to include the quantity of iron pyrite used in the manufacture of sulphuric acid, a use which has shown a remarkable growth during the last ten years. Accurate statistics in regard to the consumption of iron pyrite prior to 1891 are not available, as the statistics of imports previous to that year did not separate the pyrite imported for this purpose. Prior to 1884 pyrite was included among other sulphur ores in the statistics compiled by the Bureau of Statistics of the Treasury Department. From 1884 to 1887 pyrite ores were separately reported, but the small quantities reported indicate that a considerable quantity was imported either under the foimer classification of sulphur ore or as iron ore, under which it was classified from 1887 to 1891, unless it contained copper exceeding 3.5 per cent. A comprehensive review of the growth of the consumption of sulphur and pyrite must therefore necessarily begin with 1891, the year in which the total quantity of sulphur used (imported and domestic) was 118,258 long tons. The sulphur content of the iron pyrite consumed in 1891 was 93,233 long tons, making a total of 211,491 long tons. In 1902 the domestic production of sulphur amounted to 7,443 long tons and the imports to 174,939 long tons, a total of 182,382 long tons. In this year the sulphur content of the net imports of pyrite amounted to 196,786 long" tons, and that from the domestic production of pyrite was 104,129 long tons, making a total of 300,915 long tons, or nearly three times the quantity so consumed in 1893. The use of iron pyrite as a raw material in place of sulphur for the manufacture of sulphuric acid continues to increase steadily. By far the greater part of the sulphur consumed in the United States is used in th manufacture of paper stock by the sulphite process. The wood pulp is digested under pressure with sulphurous acid or the acid sulphite of calciuin and magnesium, which, reacting upon the lignin and other incrusting materials of the fiber, transf oitos them into soluble products which are subsequently removed in the liquor.

The statistics for the last decade of production and impoi-ts of sulphur, and of the sulphur content of domestic and imported pyrite, exhibiting together the total domestic consumption, are presented in the following table:

Estimated congumptian of sulphur in the United States, 1893-190.

Source.

Sulphur:

Domestic

Importeda

Sulphur content of pyrite:

Domestic

Imported

Total domestic consumption

jAmg ton.

lAti imi9.

Jigitiz id by

Ijongtons.

Jjifig tons.

Sulphur And Pyrite. 935

EsitmaJUd coTuumplion of sulphur in the United States, 189S-1902 — Continued.

Source.

Sulphur:

Domestic

Long Urns.

Long Urns,

Long tons.

Long tons, 7,443

Imported

Sulphur content of pyrite: h

Domestic

Imported

Total domestic consumption

a Includes crude sulphur, flowers of sulphur, refined sulphur, and sulphur lac. b Based on average sulphur content of 46 per cent

Production Of Sulphur In Italy.

Ill the following table the statistics of the quantity and value of the sulphur produced in Italy since 1860 (practically all of which is from the island of Sicily) are taken from the oflScial report Rivista del Servizio Minerario:

Production of sulphur in Italy, 1860-1901.

Year.

Quantity.

Value.

Year.

Quantity.

Value.

Jjongtons. 165,067 163,217 162,825 179,087 177,707 168,829 195,019 195,873 196,097 197,493 200,597 196,518 235,323 269,7*1 247,221 201,086 271,006 256,141 300,288 370,268 368,883

93,693,036 3,865,950 3.872,376 4,273,992 4.134.870 3,756,507 4,579,547 4,641,046 4,822,158 5,071,716 4.702,710 4,869,515 5,740,251 6,566,050 0.813,075 5,662.575 0, 372, 385 5,184,313 5,896,665 7, (MO, 165 7,037,869

Long ions. 367,163 438,761 439,332 404,431 418,708 336,715 370,486 365,624 863,306 389,171 411,828 399,260 364,807 419,501 488,676 494,278 654,638 636,522

' 1891

Mineral Be80Ub0B8.

Exports Op Sulphur Prom Sicily.

In connection with the foregoing statistics, the following table, showing the exports of sulphur from Sicily and the countries to which exported during the last five years, will be found of interest. This table is compiled from the annual statement published by Mr. Alfred S. Malcolmson, of New York:

Total exports of sulphur from Sicily , 1896-190fS.

Country.

United States

France

Italy

United Kingdom

Greece and Turkey

Portugal

Ruada

Germany

Austria

Spain

Belgium

Holland

Sweden, Noniray, and

mark

Other countries

Den-

Total 896,746

Longtotu.

Longtontt. 118,187 84,895 73,052 24,520 13,866 7,0M 17,53-2 19,7-21 15,99:J 4,039

Long ions.

Long tons,

Lomgiana. 144,817 74,891 74,616 22,464 21,702 11,335 15,110 23,448 I 18,842 2,979 I 7,471 I 10,848 I

Sulphur And Pyrite.

Imports.

The following Btatements, showing the quantity and value of sulphur imported into the United States for a series of years, are obtained from the Bureau of Statistics of the Treasury Department:

Sulphur imported and entered for consumption in the United States, 1867-1902,

Year ending—

Long tons.

18, 151 2S,G90 27,880 86,131 2f),880 45,533 40,990 33,083 46,435 42,963 48, 102 70,370 1880 ' 87,837

June 90— 1876..;

Crude.

X?&#x27;

Dec. 31—

96,252 135,933 162,674 116,971 100,938 105.j39 126,241 121,286 188,168 136,563 151,225 140,182 166,825 174, IM

Flowers of sulphur.

Long

tOM.

Refined.

*S5°" value.

Long tons.

All other.a

Quantity.

Long

tOM.

$10,915 2,T21 ' 27, 149 ' 6,&2i 4,328 I 2,492 1,497 ! 2,403 I

24S

Value.

Si, 269

Total Value.

8686,797 450,216 710,867 881,182 1,221,0M 769,112 1,806,421 1,266,688 1,200,868 1,479,291 1,286,728 1,198,832 1,584,434 2,084,899 2,720,266 2,636,524 2,296,606 2,256,831 1,961,864 2,250,605 1,700,723

a Includes sulphur lac and other grades not otherwise provided for, but not pyrlte.

Mineral &amp;E80Ub0Es.

Stalement. by countries and by customs districts, showing the imports into the United Stales of crude sulphur or brimstone each fiscal year, 1900-190£,

Countriofl whence exported and customs district; through which Imported.

Quantity. Value,

Quantity. Value.

Quantity. Value.

Oovntry.

Canada.

Englan d

Italy

Japan

Other countries

Long tons.

Total.

Baltimore, Md

Boston and Charlestown, Mass...

Champlain, N. Y

New Orleans, La

New York, N.Y

Philadelphia, Pn

Portland, Me

San Francisco, Cnl

Savannah, Qa

Vermont, Vt

Willamette, Greg

Another

Long tons.

Long tons.

Total 155,399 2,711,912

I I

World&#x27;S Production.

Worlds s production of sulphur for 1899, 1900, and 1901.

Country.

Quantity.

Value.

Quantity. 1 Value.

Quantity.

Value.

United States

Metric tons. 4,883

Metric tons.

<i64,364

Metric tons.

a 49. 856

Nil.

Aufltriaa

Francea

Germany

Greece

Hungary

Italy

Jaoan

Russia 461

Sweden !- -- --

a 109, 947

Total.

a Crude rock.

b Statistics not yet reported.

SULPHtJB AND PYRITE. 939

Fyrite.

Production.

The combined production of pyrite for the manufacture of sulphuric acid and of sulphur in the United States during 1902 amounted to 207,874 long tons, valued at $947,089, as compared with a combined production of 241,691 long tons, valued at $1,257,879, in 1901. In this connection it must be remembered that there is a large quantity of pyrite produced for pyritic and allied smelting, which will increase the production reported for these years to a total approximating 300,000 long tons each. Of the total output, Virginia contributed nearly one-half, foUowed by Georgia and North Carolina, Colorado, Massachusetts, California, Indiana and Ohio, Missouri and New York, in the respective order of the quantities of output. The production of iron pyrite from Indiana and Ohio was in the form of the so-called "coal brasses," obtained as a by-product in mining coal in these States. No new pyrite mines of importance were opened during the year, although development work was carried on in localities which have long been known as producers, notably in New York, Virginia, and North Carolina.

During 1902 there was recorded a very considerable increase in the quantity of pyrite imported, the statistics of imports for 1902 and 1901 being, respectively, 440,363 long tons ($1,650,852) and 403,706 long tons ($1,415,149). Since 1891 the quantity of pyrite annual}' imported has largely exceeded the annual domestic production.

The purchase of all domestic and foreign pyrite and other ores used for the sulphur content in the United States continues practically in the hands of four tmde combinations, and, as the total purchases of the ores amount annually to about 500,000 tons, stocks of foreign ores can be accumulated at the seaboard and shipped inland in quantities to secure lowest freight i-ates. These conditions favor the importation of foreign ores and leave but little incentive to develop domestic mines of uncertain character.

Assiuning that the stocks carried foi-ward from one year to another are practically the same, and estimating the domestic consumption by combining the imports and the domestic production, it will be seen that the quantity of iron pyrite consumed in this country in 1902 was 668,701 long tons, as compared with 638,531 long tons in 1901 and 527,099 long tons in 1900. Notwithstanding the large increase in the imports of pyrite in 1901, the price of the domestic product advanced from $3.67 per ton in 1900 to $4.35 per ton in 1901, although it declined to $4.28 in 1902. In a similar manner the value of pyrite imported increased from $3.27 per ton in 1900 to $3.51 per ton in 1901 and to $3.74 in 1902.

The quantity and value of pyrite mined for the sulphur content in the United States since 1882 have been as follows:

Production of pyrite in the United Stales, 1883!-190iS.

Year.

Quantity.

Value.

Year.

Quantity.

Long tons.

Value.

Imports And Exports.

The following table shows the imports of pyrite containing not more than 3.6 per cent of copper from 1884 to 1902, inclusive:

Imports of pyrite containing not more than S,S per cent of copper, lS8jhl90$,<

Year.

Quantity. Value.

Long Urns.

Year.

Quantity. Value.

Long tons. 190,435 200,168 259,546 252,773 209,868 822,484 408,706 440,363

a Previous to 1884 clasBed among milphur ores; from 1887 to 1891 classed among other ores; since 1891 includes iron pyrite containing 25 per cent or more of sulphur.

The expoils of pyrite in 1902 were 3,060 long tons, valued at 119,860.

Consumption.

The imports of iron pyrite for use in the manufacture of sulphuric acid not having been stated separately by the Bureau of Statistics of the Department of Commerce and Labor for years prior to 1901, a comparison with preceding years can not be made. The table on the following page shows the quantity of pyrite mined and imported during the last five years, and as no exports are reported by the Treasury Department prior to 1902 these figures may be accepted as representing

the domestic consumption. The table shows also the estimated quantity of sulphur yearly displaced by pyrite on a basis of 45 per cent of sulphur content of the latter.

It will be observed that in the eleven years covered by the following table the quantity of sulphur displaced by pyrite for acid making has increased more than 200 per cent. In 1891 the amount of sulphur displaced by the use of pyrite was 93,233 long tons; in 1902 the amount of sulphur displaced was 300,916 long tons, more than three times that of 1891. This increased use of pyrite for acid making has been due very largely to the development of the sulphite wood-pulp industry for the manufacture of paper in which sulphur is used. There is but one sulphite mill in the United States using pyrite in place of sulphur in the treatment of the wood pulp, although in Europe a considerable quantity of pyrite is utilized for this purpose. Another important factor has been the increased production of phosphate rock from Florida and Tennessee and the domestic manufacture of superphosphates. For these purposes a chemically pure sulphuric acid is not essential, and that made from pyrite serves the purpose equally as well as that made from sulphur.

Quantity of pyrite consumed in the United States, and estimated amount of sulphur displaced by U, 1891-190fS,

Source.

Domestic product . Imports

Domestic consumption

Sulphur displaced, estimated on basis of 45 per cent content

Long tans. 106,686 100,648

Long tons. 75,777 191,984

2G2, 147 117,966

Long tons. 106,940 163,546

Long torts. 99,549 190,486

Long tons. 115,483 200,168

Source.

Domestic product 143,201

Imports 259, 646

Long tons. 193,364 252,778

I/mgUms. 174,734

Long Urns. 204,616 322,484

Long tons. 234,825 408,706

Domestic consumption 402, 747

Less exports

Sulphur displaced, estimated on basis of 45 per cent content 181,

Canadian Production.

The production of iron pyrite in Canada increased from 36,261 short tons in 1901 to 35,616 short tons in 1902, and the value per ton increased from $3.70 to $3.92. The production after 1894: showed a declining tendency until 1900, when it received the benefit of the increased demand in the United States. iC

Since 1886 the production of pyrite in Canada has been as follows:

Annual production and v€due ofpyrile in Canada 1886-190t.

Calenditr year.

' Quantity. Value.

42,906 38, (M3 63,479 72,228 49,227 67,781 69,770 58,642 40,527

Calendar year.

Quantity.

Value.

Short twB. 84,198 33,716 38,910 32,218 27,687 40,081 36,261 36,616

World&#x27;S Production.

The following table has been compiled, chiefly from official sources, to show the pyrite production in the principal producing countries and to exhibit to what an extent pyrite has supplanted sulphur for acid making. In the case of Spain the exploits are taken instead of the production for such years as they are available. The published figures of pyrite production in Spain show an output in each year averaging from 20 to 25 per cent of the exports. As the export figures are probably taken from the custom-house records, they are considered more reliable.

WorldH prodvdion of iron pyrUe and quantity of sulphur displaced 189t-1901.

Country.

Spaina

France

Portugal

United States

Germany

Norway

Hungary

Italy

Canada

Newfoundland . . .

Russia

United Kingdom .

Bosnia

Belgium

Sweden

Long tons. 435,906 226,804

Longiona.

Long tons. 511,769 278,452

Total 1,082,808 1,100,539

Sulphur displaced 6 487,263 495,242

Long tons.

b Based on estimated 45 per cent of sulphur content.

Ic

Sulphur And Pyrite. 943

WorUT 8 production ofironpyrUe and quantity ofstUpkur displaced 189S-1901 — Cont'd.

Bpalna

Fmnce

Portugal

United States

Germany

Norway

Hungary

Italy

Canada

Newfoundland

Ruasia

United Kingdom

Bosnia and Herzegovina .

Belgium

Sweden

Total

Sulphur displaced o

Long tons.

Long ions.

Nil.

Ixmgtoru.

Nu.

a Exports, except in 1896. & Statistics not yet available.

c Based on estimated 45 per cent of sulpiiur content.

Ic

Baryte8.

By Joseph Hyde Pratt.

Occurrence.

The commercial deposits of barytes do not usually occur in welldefined veins, but are more often found in a series of pockets, lenses, or seams of varying dimensions. These are more or less in line, often following the dip of the rock with which they are associated, and this rock is in many cases a limestone. Barite is a heavy, white mineral with perfect prismatic cleavage, and is known commercially as barytes. In chemical composition it is a barium sulphate (BaSOJ.

In the United States this mineral has been found in quantity in Connecticut, Virginia, North Carolina, Tennessee, and Missouri, and all but the first-named State have been producers of it during the last few years. None of these barytes deposits are worked to any great depth, the deepest work having been done on the Virginia deposits.

Production.

The production of crude barytes in 1902 was considerably in excess of that of the year before, amounting to 61,668 short tons, valued at $203,154, SLS compared with 49,070 tons, valued at $167,844, in 1901. This is an increase of 12,598 tons in quantity and of $45,310 in value. This production, though considerably less in quantity, was $15,064 greater in value than that of 1900, which was 67,680 short tons, valued at $188,089, and which remains the largest on record. The average price per ton for the 1902 production was about $3.29, an increase of 7 cents from $3.22, the price in 1901, which in turn was an increase of 44 cents over $2.78, the price in 1900. There has been an increased demand for barytes during the last year and this will be still further increased as it becomes more generally used in the production of the hydrate.

The States producing barytes in 1902 were Virginia, North Carolina, Tennessee, and Missouri. Both Virginia and Missouri increased very largely their production in 1902, while in Tennessee there was a very large falling off. It is expected, however, from %§

M R 1902 60 &#x27; W5

Mineral Resources.

work that has been done in the last named State, that its production in 1903 will be larger than that of 1902. Georgia, which produced a small amount of barytes in 1901, reported nothing in 1902.

In the following table is shown the production of barytes in the United States in 1902, by States:

Ptodudion of crude barytes in 190-2 by Stales.

State.

Quantity.

Value.

Short tons. 81,834 14,679 8,255 12,400

North Carolina

Virgliila ---

Total

The annual production of crude barytes in the United States since 1882 is shown in the following table:

Production of crude barytes, 1882-1902,

Year.

Quantity.

Value.

Average

price per

ton.

1 Year.

Quantity.

Value.

Average

price per

ton.

a6.55

irm

Short tons. 28,970 21,629 17,068 26,042 31,306 41,894 67,680

Iggi

a Value at St. Louis, and includes some floated barytes.

fr Value includes floated barytes when sold firat in that form.

Imports.

Althoug"h the production of barytes in the United States has been on the increase, there are still a few thousand tons of both manufactured and crude barytes imported each year, chiefly from Germany. In 1902 the manufactured barytes imported amounted to 3,908 short tons, valued at $37,389, and the unmanufactured amounted to 3,929 short tons, valued at $14,322.

In the table below is given the amount of manufactured and crude barytes imported into the United States since 1867:

Babytes.

Imports of barytes, 1S67-1902,

Year ending—

June 30—

December 31-

Manufactured.

Quantity. Value.

Piyanda. 14,968,181 2,766,647 1,117,835 1,684,916 1,385,004 5,804,098 6,939,425 4,788,966 2,117,854 2,655,349 2,888,373 1,866,857 458,338 4,924,423 1,518,322 662,300 411,666 3,884,516 4,095,287

al,663

Unmanufactured.

Quantity. Value.

Pound*.

a 4. 815

a Short tons since 1890.

Besides the above manufactured and unmanufactured barytes imported into the United States during 1902, there was also brought in other barium compounds to the value of $152,361. These were divided as follows:

Mineral Resources.

Other imports of barium compounds in 1902.

Material.

Quantity.

Value.

Witherite, barium carbonate

,

Barinm blnnxWe

Blanc flxe, or aitiflcial barium milphate

Total

This makes the total value of the importation of barium aud barium compounds amount to $204:,072. With the exception of the witherite, all these compounds should be manufactured from American barytes; and it is very probable that, upon the completion of the plant at Niagara Falls by the United Barium Company and of the plant at Bristol, Tenn., by Messrs. John T. Williams & Co., there will be a considerable portion of these barium compounds manufactured in this country.

Strontium.

No strontium minerals were produced in the United States during 1902, and, so far as could be learned, no development work was done at any of the localities that are known to contain these minerals. There are a number of places where celestite, the strontium sulphate, occurs in some quantity, as near Burnet, Burnet County, Tex. ; Drummond, Drummond Island, Chippewa County, Mich. ; Cedar Cliff, Mineral County, W. Va., and in the vicinity of Schoharie, Schoharie County, N. Y. The occurrence of the carbonate of strontium, strontianite, near Clinton, Oneida County, N. Y., is worthy of further investigation.

One of the main uses of the strontium minerals has been in the preparation of strontium hydroxide, but as barium hydroxide is beginning to be manufactured in considerable quantity, to be used for the same purposes as the other, there will be a proportionally less demand for the strontium hydroxide. The use of other strontium salts in pyrotechnics for red fire may be replaced to some extent by lithium salts if these can be produced at a low enough price, as it is expected will be done by the American Lithia and Chemical Company of New York, which is largely interested in the lithium deposits of California.

Mineral Paints.

By Joseph Struthers.

MINERAIiS USEI> AS PIGMENTS.

The mineral substances included under this heading are those which are mined and prepared primarily for pigments. They consist of iron ores (red and brown hematites) which are ground and used in the manufacture of metallic paint and which are not included in the production of iron ores for the manufacture of metallic iron, clay, and other earths containing iron used in making yellow and brown pigments (such as ocher, umber, sienna, etc.), barytes (or "heavy spar") used as a substitute for or as an adulterant of white lead, slate (or shale), soapstone, asbestos, and graphite.

Production.*

The pigments treated in this report as natural mineral paints consist essentially of metallic paint (including mortar colors), ocher, lumber, sienna, Venetian red, zinc white, slate, and graphitic and carbonaceous shales ground especially for paint.

The aggregate production of these pigments in 1902 amounted to 125,694 short tons, valued at $4,960,831, as compared with 107,960 short tons, valued at $4,509,962, in 1901. The percentage of increase was most apparent in the production of soapstone, which increased from 50 tons, valued at $350, in 1901, to 1,100 tons, valued at $2,200, in 1902, an increase corresponding, respectively, to 2,100 per cent in quantity and to 529 per cent in value.

The greatest increase in quantity was in the production of zinc white, which amounted to 52,730 short tons, valued at $4,023,299, in 1902, as compared with 46,500 short tons, valued at $3,720,000, in 1901, the increase in quantity being 14 per cent and in value about 8 per cent.

The production of metallic paint during 1902 was 18,220 short tons, valued at $312,590, as compared with 15,915 short tons, valued at $204,937, in 1901.

The production of mortar colors showed a decrease during 1902, the respective figures being 8,355 short tons, valued at $98,729, for 1902, and 9,346 short tons, valued at $112,943, for 1901.

The production of ocher, which showed a decrease in 1901 as compared with 1900, was practically the same for 1902, being 16,565 short tons, valued at $145,708, as compared with 16,711 short tons, valued at $177,799, in 1901.

A The production of the crade material of mineral paints in 1902 is reported as 85,479 short tms, Talued at $860,885, including 4,600 tonn, valutnl at $18,000, reported as mined but not marketed. C

Mineral Resources.

The output of Venetian red increased from 9,201 short tons, valued at $153,467, in 1901, to 11,758 short tons, valued at $196,905, in 1902.

In considering the variations between product and value per ton allowance must be made for the comparatively wide range in the qualities of the materials, and for the fact that a larger production of a higher or lower priced article will effect a comparatively larger or smaller increase in the value, as the case may be, so that the rise or fall shown in the average price may be apparent only. Zinc white and Venetian red are practically uniform in quality, but this does not hold true with the other pigment. It is evident that the decline in value of metallic paint to $10.67 per short ton in 1899, notwithstanding an increased tonnage, was due to the displacement in the market of some higher-priced paint by a cheaper article. In 1900, however, the price rose to $11.27, in 1901 to $12.87, and in 1902 to $17.16 per short ton.

The production of mineral paints during the last eight years is shown in the following table:

Production of mineral paints, 1895-1902,

Kind.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Ocher

al,080

Umber

Sienna

Metallic paint... Mortar color

Venetian red

Zinc white

Soapstone

Other colors

Total

Kind.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Ocher

Umber

Sienna

MetalUc paint... Mortar color — Venetian red

Zinc white

Soapstone

Slate 0

Other colors

Total

a Includes 600 tons of Spanish brown, b Includes 640 tons of Spanish brown. e Includes mineral black.

din addition there were produced durinr 1902, 4,000 short tons of zinc-lead pigment, valued at $225,000, and 4,733 short tons of sublimed lead, valued at $449,011. Diaitized bv IC

f Includes 800 tons of unround matetal valued at $800. O

/Slate and shale ground for pigment. 0 Chiefly other iron oxide pigments.

Mineral Paints. 951

Ocher, Umber, And Sienna. Production.

The production of ocher in the United States during 1902 was slightly less than in the preceding year, being 16,565 short tons, valued at $145,708, as compared with 16,711 short tons, valued at $177,799, in 1901. Nine States contributed to the output in the following order of importance: Pennsylvania, Georgia, Arkansas, Illinois, Iowa, Virginia, Missouri, California, Vermont. Wisconsin, which was numbered among the producers in 1901, reported no production during 1902. In only four of these States — California, Georgia, Pennsylvania, and Vermont — were there more than two producers, and the outputs of the other producing States are grouped together in order to preserve confidentially the information concerning the production of individual companies.

Pennsylvania produced 59 per cent of the total output of ocher in 1902, as compared with 46 per cent in 1901. Pennsylvania contributed 9,818 short tons of ocher, valued at $80,269, during 1902, as compared with 7,632 short tons, valued at $76,106, in 1901, which shows a considerable increase in quantity, although the increase in value is relatively less.

The decline in the Georgia output continued. The production of ocher in Georgia during 1902 was more than 27 per cent smaller in quantity and about 22 per cent less in value than that of the preceding year, the outputs for the two years being 3,688 short tons, valued at $38,423, in 1902, as compared with 5,077 short tons, valued at $49,176, in 1901. The production of Georgia in 1900 was 6,828 short tons, valued at $73,172.

The production of ocher in Vermont during 1902 was 441 short tons, valued at $4,544, as compared with 370 short tons, valued at $3,493, in

California produced 580 short tons of ocher in 1902, valued at $3,650.

Umber was produced in three States in 1902— Illinois, Pennsylvania, and. Georgia; and sienna was reported from three States — Illinois, Pennsylvania, and New York.

The following tables show the production of ocher during the last four years, by States, and the total production of ocher, umber, and sienna since 1896. The variations in value are in many cases due chiefly to an increased or decreased production of different grades of these pigments and not to any notable fluctuations in prices.

Ic

Production of ocher in 1899, 1900, 1901, and 190S, by States.

Stete.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Qeoigla

Shorttons.

Shorttons.

Shorttons.

Vexinont

California

' 3,650

Other States

Total

ProdiuAion of ocher, umber, and sienna, 1896-190S.

Year.

Ocher.

Umber.

Sienna.

Total.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Shorttons.

al,080

b 1,177

a Includes 600 tons Spanish brown from Maryland. Includes 640 tons Spanish brown from Maryland.

The combined annual production of ocher, umber, and sienna for the years 1884 to 1895, inclusive, is shown in the following table:

Production of ocher, umber, and sienna, 1884-1895.

Year.

Quantity.

Year.

Quantity.

Value.

Short tons. 7,000 3,960 6,300 8,000 10,000 16,158

ShoH tons. 17,556 18,294 14,365 11,147 10,193 12,640

Ic

Minebal Paints.

Imports.

The following tables show the amount and value of ochers, etc., imported into the United States from 1867 to 1902, inclusive:

Ocher, etc., imported, 1867-188S,

FiRcal year ending June

Indian red and Spanish brown.

Mineral French and Paris green.

other, dry, not otherwise specified.

Quantity.

Value.

Quantity.

Value.

Value.

Quantity.

Value.

Pounds.

S386 2,496 6,042 9,225 3,850 4,623 12,352 3,366 2,269 1,591 1,141 7,916

Pounds.

Pounds.

Pounds. 1,430,118 3,670,093 5,879,478 3,986,978 2,800.148 6,646,343 8,940,785 8,212,988 3,282,416 8,962,646 8,427,208 3,910,947 3,792,860 4,602,546 3,414,704 5,530,204 7,022,615

8,369 9,618 83,488 41,422 34,382 102,876 64,910 21,222 67,655 17,598 16,164 76', 465 18,293 6,972

a Since 1883 classlfled as " dry " and "ground in oil.' Imports of ocher of all kinds, 1884-190X,

Year ending-

Dry.

Ground in oil.

Total.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

June 80—

Pounds. 6,164,859 4,983,701

Pounds. 108,966

W,717 3,616

Pounds.

Dec. 31-

6,246,890 8,044.836 6.226.789 4.937.738 7,107,987 8,964,252 a7, 720, 075 5,898,725 9,766,616 8,449,252 8,546,691 9,987,616

Since 1896 classified dry— crude and powdered, washed or pulverized. O

Year ending—

Mineral Besourges.

Imports of umber 1867-1902. Quantity. Value. I Year ending-

June 30— Poundt.

Dec. J

&#x27;Jo, 8,

1891., 1892., 1894., 1895., 1897., 1S98., 1899., 1901., 1902.,

Quantity.

Value.

Pounds.

al, 500, 786

c-1,447.889

rf 1,123. 079 1

'11,899,425 1

a Includes 6,137 pounds "ground in oil" and 1,654,649 pounds " dry."

b Includes 5,292 pounds "ground in oil " and 683,783 pounds "dry."

o Includes 14,471 pounds "ground in oil" and 1,433,418 pounds "dry— crude or powdered."

d Includes 4,608 pounds "ground In oil" and 1,118,471 pounds "dry— crude and powdered, washed or pulverized."

Includes 4,849 pounds "ground In oil" and 1,734,187 pounds "dry— inide and powdenni, washed or pulverized."

/Includes 11,653 pounds "ground in oil" and 1,691,603 pounds "dr>'— cnide and powdered, washed or pulverized."

9 Includes 3,184 pounds "ground In oil" and 1,462,247 pounds "dry— crude and powdered, washed or pulverized."

Includes 11,999 pounds "ground In oU" and 1,887,426 pounds "dry— crude and powdered, washed or pulverized."

Imparts of sienna, 1893-1902.

Year ending Dec.

Dry.

Ground in oil.

Year ending Dec.

Dry.

Ground in oil.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Quantity.! Value.

Pouiidi.

Pouruit.

" ir "

Pounds.

Pound*. '

S138,889

Production Of Ocher In Principal Producing Countries.

The following table gives the output of ocher in the principal producing countries of the world as far as statistics arc available. France leads in quantity, with Great Britain second, and the United States third. The production in France has each year amounted to more than that of the United States and Great Britain combined, although the value of the French product, except for 1897 and 1900, was but little more than that of the I'iiitod Stitcs, and in these years it was

Minebal Paints.

considerably less. The German Empire stands fourth, with a production of about 33 per cent of that of France during 1900, although the value was less than 16 pet cent.

Productian of ocher in

principal producing countries, 189S-1902,

Year.

United States.

United Kingdom.

France.

German Empire.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Quantity.

Short tons.

Short tons.

Short tons.

Year.

Canada.

Belgium.

Spain.

Cypnia.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Short toM.

Short Urns.

Short tans.

Short tons.

Si, 351

a 2, 100

a Cubic meters.

METAIililC PAINT.

Metallic paint is manufactured by grinding certain kinds of hematite iron ore. In some cases the ores are roasted before grinding, in order to improve the color and durability. Considering the widespread occurrence and the enormous deposits of iron ore existing in the United States, the quantity of material suitable for making a good metallic paint is very small and the localities are comparatively rare. Among the localities from which good paint ore is to be obtained are Oneida, Rensselaer, Cattaraugus, and Washington counties, N. Y.; Lehigh, Carbon, and Mercer counties, Pa. ; Hamilton and James counties, Tenn. ; and Dodge County, Wis. It is also produced in smaller quantities in Maryland, Arkansas, California, Illinois, Iowa, Vermont, Missouri, Ohio, and Wyoming. Part of the ore ground for paint is used as a coloring matter in mortar making. It is not always possible to separate exactly the quantity used for mortar colors; the manufacturers, having sold it as dry ground paint, do not always know the

Minebal Besouboss.

purpose for which it is consumed after leaving their hands. The separation given in this report is the best that could be made under these circumstances, but it is not claimed to be absolutely correct.

The production of metallic paints in 1902, exclusive of mortar colors, was 19,020 short tons, valued at 18,890, as compared with 15,916 short tons, valued at $204,737, in 1901, an increase in quantity of 2,306 tons, or more than 14 per cent, and in value of $107,853, or 62.7 per cent. On the other hand, the production of mortar colors showed a decrease, being 8,365 short tons, valued at $98,729, as compared with 9,346 short tons, valued at $112,943, in 1901, the decrease corresponding to 11 per cent in quantity and 12 per cent in value.

The statistics of production of metallic paint and mortar colors during 1901 and 1902 are given in the subjoined table:

Production of metaUic paint and mortar colors in 1901 and 190£,

state.

Metallic paint.

Mortar colors.

Metallic paint

Mortar colors.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

New York

' 1,600 2,396

Tennessee

other states

Total

The annual production of metallic paint and mortar colors for the last fourteen years has been as follows:

Production of metallic paint and mortar colors 1889-190S,

Year.

Metallic paint.a

Mortar colors.

Year.

Metallic painta

Mortar colors.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Shortiom. 21,026 24,177 25,142 25,711 19,960 15,225 17,815

Short toiM 9,660 8,287 7,107 5,786 6,689 8,855

a Includes mortar colors from 1889 to 1898, inclusive.

Venetiak Bed.

Venetian red is a bright-red pigment, which is obtained by submitting iron sulphate (commonly called "copperas" or "green vitriol") to a roasting process, whereby the sulphur is oxidized by heat and driven off as sulphur dioxide, leaving the iron oxide of a brighter red

Mineral Paints.

than the natural product. The quantity of iron oxide so consumed is small in comparison with the total iron oxide pigment produced, and for this reason the output of Venetian red is included in the output of mineral paints.

The production of Venetian red during 1902 was 11,758 short tons, as compared with 9,201 short tons in 1901. Accompanying this increase in quantity was an increase in value from $153,467 to $196,905 The annual production since 1890 has been as follows:

Production of Venetian red, 1890-190!,

Year.

Quantity.

Value.

Short Unu.

S84.100

Year.

Quantity.

Value.

Short tons. 18,608 10,271 11,991 14,696 9,201 11,768

SliATE GROUND FOU PIGMENT.

The quantity of slate and shale ground for paint in 1902, including " mineral black," was 4,071 short tons, valued at $39,401, as compared with 4,865 short tons, valued at $41,211, in 1901. This table does not include either the so-called Baraga graphite" of Michigan, which is a carbonaceous shale or schist, or the graphitic anthracite of Rhode Island, both of which are used to some extent in the manufacture of ''graphite paints," the statistics of production and value of which will be found elsewhere in this volume under the caption " Graphite."

The annual production of pigments made from slate and shale since 1880 has been as follows:

Quanlily and value of slate and shale ground for pigment, 1880-190ig.

Year.

Quantity.

Short Urns, 1,120 1,120 2,240 2,240 2,240 2,212 8,860 2,240 2,800 2,240 2,240 2,240

Value.

Year.

S10,000 10,000 24,000 24,000 24,687 80,000 20,000 26,100 20,000 20,000 20,000

Quantity.

Short urns.

jitiToH hy

Value.

a Includes mineral and carbon black.

Mineral Besouboes.

WmTE liEAB, RED TjEAD, IiITHARGE, AND ORANGIB

Mikerai..

Production.

Tbe aggregate production of lead pigments during 1902 was considerably greater than in 1901, the increase being distributed among all varieties except red lead and orange mineral, of which much smaller quantities were produced.

The production of white lead in oil, which amounted to 151,874,933 pounds in 1900 and 154,606,670 pounds in 1901, increased to 179,473,588 pounds in 1902. There was also an increase in the production of dry white lead from 46,966,945 pounds in 1901 to 49,841,821 pounds in 1902. The quantity of white lead imported in 1902 amounted to 506,423 pounds, as compared with 384,673 pounds in 1901. The imports of white lead in 1869 was 8,948,642 pounds, the largest quantity recorded for a single year. The comparison of the figures given on the following pages indicates plainly the gradual displacement of the imported lead pigments by those of domestic production.

The production of red lead during 1902 shows a large decrease from the returns of the preceding year, being 23,338,252 pounds, valued at $1,263,112, in 1902, as compared with 26,206,096 pounds, valued at $1,448,550, in 1901. The decreased production was reflected in the increased imports, which amounted to 1,075,839 pounds in 1902, as compared with 485,467 pounds in 1901.

The production of litharge during 1902 was 25,510,690 pounds, valued at $1,298,343, as compared with 18,919,036 pounds, valued at $979,586, in 1901. The quantity of litharge imported in 1902 was 88,115 pounds, as compared with 49,306 pounds in 1901.

The production of orange mineral in 1902 was 1,973,521 pounds, valued at $139,349, as compared with 2,174,727 pounds, valued at $224,667, in 1901. The imports of orange mineral amounted in 1902 to 997,494 pounds, as compared with 977,644 pounds in 1901. Of all the lead oxide pigments orange mineral is the only one of which the quantity imported is sufficiently large to have any marked effect on the domestic consumption.

The production of white lead, red lead, litharge, and orange mineral during 1900, 1901, and 1902 is given in the subjoined table:

Production of while had, red lead, litharge, and orange mineral during 1900, 1901, and

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

White lead:

In oil

Dry

Red lead

Litharge

Orange mineral

Mineral Paints. 959

The annual production of white lead since 1884 Has been as follows:

IoductUm of white lead in the United States, lS8jhl90'2.

Year.

ShoH tons.

Quantity. Value.

96,500,000 6,300,000 7,200,000 I 7,560,000 j

Year.

Quantity. Value.

tort tons. 76,843 90,513 88,608 95,658 96,047 110, 197 98,210 100,787 114,658

Imports.

The following table gives the imports of white lead, red lead, litharge, and orange mineral from 1867 to 1902, inclusive:

White lead, red Uad, lUluirge, and orange mineral imjyorted, 1867-1902,

White lead.

Year ending- June 30—

Dec. 31—

ias7

i Quantity. Value.

l*ounds. 6,636,508 7,533,225 8,948,6-12 6,228,286 8,337,842 7,153,978 6.331,373 4,771,509 4,354,131 2,546,776 2,644,1M 1,759,608 1,274,196 1,906,931 1,068,030 1,161,889 1,044.478 902,281 7a5,535

Red lead.

Litharge.

Orange mineral.

Quantity.

Value. Quantity.

953,087 76,773 46,481 54,626 78, 410 85,644 99,891 56,305 73,131 54,881 28,747 9,36-1 7,237 10,397 ; 10,009 j 12,207 10,603 10,589 7,641

PourvU. 260,615 187,333 97,398 70,889 66, M4 40,799 25,687 15,767 47,054 40,331 28,190 38,495 27,389 63,058 61,592 81,850 36,283

Value. Quantity.

Value.

Ss.wi 12, 225 7,767 4,442 3,870 3,396 2,379 1,450 2,662 2,347 1,499 1,667 1,222 2,568 2, 191 1,312 1,797 1,091

Pinindti.

,

'

Mineral Re80Ubges.

White lead, red lead, litharge and orange mineral imporUdy 1867-1902 — Continued.

Year ending-

Dec. 31—

White lead.

Quantity. Value,

Bed lead.

Quantity. Value,

Litharge.

Quantity.

38,595 97,667 60,984 56,417 55,127 77,il4 49,306 88,115

Value.

Orange mineral.

Quantity. Value.

Prices.

The following table shows the average yearly market prices of corroding pig lead, the net pric of white lead in oil (both at New York), and the difference between the two since 1874:

Average yearly net prices, at New York, of pig lead and white lead in oil, 1874-1902.

Year.

Pig lead, in New York.

White lead in oil, in New York.

Difference.

Per 100 poundi.

Per 100 pounds.

Per 100 pounds.

3.T3

Year.

Pig lead, in New York.

Per 100 pounds.

White lead in oil, in New York.

Per 100 pounds.

Difference.

It will be observed from the foregoing table that the difference in price between white lead in oil and pig lead in New York in 1902 was $1.40i, as compared with a difference of $1.36 in 1901. Against this must be set the difference in the price of linseed oil, which varied from 47 to 68 cents per gallon in 1902, and from 50 to 82 cents per gallon in 1901. The price of linseed oil at the beginning of 1901 was 66 cents per gallon; it sold as low as 50 cents in September, and reached the highest point of the year, 82 cents, in July. Beginning with 58 cents in January of 1902, the price advanced until it reached 68 cents in

Mineral Paikt8.

June, and then declined until 47 cents was reached in October, closing the year at 47 cents. The market price for pig lead in New York opened at 4.12i cents and closed at 4.2 cents. The former price was maintained until January 25, when it rose to 4.22i, and continued at this quotation for the remainder of the year.

The fluctuations in price of linseed oil at New York during the last nine years are shown in the following table:

Price of linseed oU at New Yorky 1894-1902, [In centa per gallon.]

Year.

Highest.

Lowest.

Year.

Highest.

Lowest.

Zinc White.

The marketed output of zinc white during 1902 amounted to 62,645 short tons, valued at $4,016,499, as compared with 46,500 short tons, valued at $3,720,000, in 1901. The actual production at the works during 1902 was less than the quantity shipped by 2,942 short tons.

The following table gives the production of zinc oxide from 1880 to

Production of zinc white, 1880-1902,

Year.

Quantity.

Value.

1 Year.

Quantity.

Value.

Short ttm. 10,107 10,000 10,000 12,000 13,000 15,000 18,000 18,000 20,000 16,970

Short toM, 27,600

Imports.

The impoi*ts of zinc oxide during 1902 were: Dry, 3,271,385 pounds, in oil, 163,081 pounds, total 3,434,466 pounds, as compared with dry, 3,199,778 pounds, in oil, 128,198 pounds, total 3,327,976 pounds in 1901, which shows an increase for 1902 of practically 3 per cent above

M R 1902 61

Minebal Resouboes.

The imports of zinc white, both dry and in oil, m 1902 were 106,490 pounds greater than in 1901. The imports of zinc white of both kinds in 1902 were of less value than the imports in 1899.

The following table shows the quantity of zinc white, dry and in oil, imported into the United States since 1885:

Year ending-

Dry.

In oil.

Year ending-

Dry.

In oil.

Total value.

June 80, 1885 Dec. 81—

Pounds. 98,666

Dec. 81— 1896.:

Pound*,

Pound*.

In addition to the imports given above, there were imported during 1902, 1,247,936 pounds of white sulphide of zinc, valued at $32,879.

ZINC liEAD.

In addition to the products given in the preceding tables the United States Reduction and Refining Company, at Canyon, Colo., produced in 1902, 4,000 short tons of ''zinc lead," valued at $225,000, as compared with 2,500 short tons, valued at $150,000, in 1901. Zinc lead is a pigment consisting of a mixture of an oxidized compound of zinc and lead, which is obtained by an oxidizing smelting treatment of lead and zinc ores in a furnace of special design.

8Ubi.Imed I.Ead.

The production of sublimed lead by the Picher Lead Company, of Joplin, Mo., during 1902 amounted to 9,465,500 pounds, valued at $449,611. This special pigment, which is sometimes classed as a white lead, is obtained as a product in the oxidizing smelting of galena ores. It consists essentially of lead sulphate and lead oxide.

Asbestos.

By Joseph Hyde Pratt.

Occurrence.

The sources of supply of commercial asbestos are deposits of two distinct minerals; one is a variety of serpentine known as chrysotile, and the other is a variety of amphibole.

The amphibole asbestos is usually found in granitic or schistose rocks, sometimes in pockets, and again in well-defined veins. The chrysotile variety does not occur in a vein formation, but is in seams of varying width, which pinch out and widen, sometimes being thickly clustered together, and again occurring sparingly, and it is always found in serpentine rocks. The denaand for the chrysotile asbestos is far in advance of that for the amphibole variety, on account of its being adapted to many more purposes. The amphibole variety can, however, be mined and prepared for market at less expense than the chi-ysotile variety, and as it makes a cheaper product there is some demand for it for those purposes where its nonconductivity of heat is the principal quality desired, as in the manufacture of fireproof paints, for wall plasters, for packing in the manufacture of fireproof safes and of boiler coverings. Where, however, strength of fiber as well as nonconductivity of heat is desired, as in the manufacture of cloth, ropes, felt, boards, tubes, and washers, it is the chrysotile variety that is used.

Mii9Ebal Kesources.

Production.

The production of asbestos in the United States during 1903 was chiefly from the mines at Sail Mountain, White County, Gra., with smaller amounts from near Hinsdale, Berkshire County, Mass., the total quantity being 1,005 short tons, valued at $16,200. This is an increase of 258 tons in quantity and of $2,702 in value over the production of 1901, which was 747 short tons, valued at $13,498. Of this production all but a few tons was amphibole asbestos. In the development work of the Connecticut Asbestos Company there was a large quantity of crude asbestos taken out, but none of it was treated or placed on the market. The same is true of the Vermont deposits, although during 1901 it was fully expected that this asbestos would be placed on the maiket in 1902.* The commercial production of asbestos in the United States has never been over 1,200 tons per annum, and when these figures are compared with the amount of asbestos imported, which is almost entirely of the chrysotile variety, it will be appreciated how large is the demand for this variety. In the table following are given the quantity and value of the annual production of asbestos in the United States since 1880, inclusive:

Annual production of aabestoa, 1880-190B,

Year.

Quantity.

Value. !

Short tons.

Iso

Year.

Quantity

Short toru, SO

Value

t6,416 2,500 4,468 18,625 10,800 11,740 16,810 18,496 16,200

a This erode production is reported as being 1,600 short tons, with an estimated value of 880,000.

Asbestos.

Imports.

In 1902 the total value of the imports of asbestos was $762,432, an increase of $70,604 over that of 1901, which amounted to $691,828. This in turn was an increase of $336,877 over that of 1900, which was $355,951, and illustrates the phenomenal increase in the demand in the United States for the chrysotile asbestos.

In the following table is given the value of the asbestos imported into the United States since 1869, inclusive:

Vahie of asbestos imported, 1869-190£.

Year ending—

Unmanu- Ijictured.

Manufactured.

Total.

Year ending-

Unmanufactured.

Manufactured.

Total.

June Seises

Dec. 81—

1H99

Ic

MINSBAL RESOtTBOES.

Production Op Canadian Asbestos.

As nearly all of the asbestos used in the United States is obtained from Canada, the following table which gives the production of this mineral in that country, will be of interest:

Annual of asbetftos in Canada, 1S79-1902.

Year.

Quantity.

Value. '

hort Una.

Year.

I Quantity.

Sihorii43iM.

Value.

f999,978

O30.641

o Including abestic.

b Including 10,197 tons of abestic.

The demand for Canadian asbestos is still increasing, as indicated in the above table. The apparent decided variation in value of the asbestos produced is due to the varying amount of asbestic put on the market. Thus the increase of less than 4 per cent in value accompanying an increase of nearly 150 per cent in production in 1897 was due to this fact; and, conversely, the increase of 9.17 per cent in value in 1898, with a decrease of nearly 22 per cent in production, was due to a smaller production of the asbestic.

Chromite Or Chromic Iron Ore.

By Joseph Hyde Pratt.

Detailed descriptions of the occurrences, localities, and uses of the mineral chromite have been given in the reports for 1900 and 1901. There has been no inci-eased activity in the development of chromite deposits in the United States, owing to their distance from the point of consumption. This obstacle is being overcome by bringing a market nearer to them and by better railroad transportation. The use of chromite for the lining of furnaces should cause a considerable increase in the demand for this mineral.

There has been some change in the last few years in the method of treatment of chromite ores that are not of sufficient purity to be shipped as mined, or that can not by hand cobbing be brought to contain a high enough percentage of chromic acid. Ores of this type are crushed, stamped, or rolled, and then passed over some form of concentrators. Stamp mills are being used in Canada, and the process is briefly mentioned below.

California was the only State to produce any chromite during 1902, the quantity being 316 long tons, valued at $4,667. This is a decrease of 53 tons in quantity and of $1,223 in value as compared with the production in 1901, which was 368 long tons, valued at $5,790. In the following table is given the production of chromite in the United States since 1885:

MINERAL RESOURCES. Production ofchromite 1885-190£.

Year.

Quantity.

Value.

Year.

Quantity.

Value.

Long tons.

With the completion of the railroad from Erwin, Tenn., to Marion, N. C, the chromite deposits of Yancey County, N. C, will undoubtedly be thoroughly exploited, and if the present indications are fulfilled, they will become producers of this mineral.

The Pacific coast offers a promising field for the erection of a chemical plant to treat chrome ores in the manufacture of various chromium salts, as these ores can be obtained in California.

Impokt8.

There is a large amount of chromite ore imported each year into the United States, most of which is from Turkey, with smaller amounts from New Caledonia and Canada. Besides the chrome ore, there is considerable chromate and bichromate of potash and chromic acid imported. Up to 1884 there was little or no chromite ore imported, as there was a large production from Maryland. Since then the importation of this ore has been constantly increasing. In the table below are shown the quantity and value of chrome ore, chromate and bichromate of potash, and chromic acid imported and entered for consumption in the United States since 1867:

Chromite Or Chromic Iron Ore.

Chromate and bichromate of potash, chromic acid, and chrome ore imported and entered for consumption in the United States, 1867-1902.

Year ending—

Chromate and bichromate of potash.

Quantity. Value.

Chromic acid.

Quantity. Value.

Chrome ore.

Quantity. Value.

Total value.

June 90—

December 81-

Pounds, 875,205 777,855 877,482 1,235,946 2,170,478 1,174,274 1,121,367 1,887,051 1,417,812 1,665,011 2,471,669 1,929,670 2,624,403 3,605,740 4,404,237 2,449,875 1,990,140 2,598,115 1,448,539

Pound*.

Long tons.

S3

As is seen from the above, the importation of chrome ore for 1902 of 39,670 tons is nearly twice the quantity imported in 1901 , and illustrates the growing demand for this mineral, not only for use in the manufacture of chrome salts, but for use as the mineral.

Canadian Chromite.

The principal chromite deposits of Canada are in the vicinity of Black Lake and Colraine, Quebec Province. The mineral occurs in the peridotite rocks or serpentine, an altered facies of this.

Flint And Feldspar

By Heinrich Ries.

Introduction.

The statistics of production of these two minerals for 1902 are probably the most complete ever published, as they were collected in conjunction with the mining census.

The States from which the product was obtained in 1902 remained much the same as in 1901, although two new States — Delaware and Virginia— were added to the list of flint producers, and one State — Wisconsin—gave no production. While the producing States have remained much the same from year to year, the list of operators has changed somewhat, for the reason that the deposits are often worked on contract for the refiner, and hence change hands. Some of the larger firms own few mines, leasing most of the properties which they work.

FlilNT. PRODUCTION.

The production of flint or quartz in 1902 amounted to 20,295 short tons of cinide flint, valued at $35,046, and 16,070 short tons of ground flint, valued at $109,163, a total of 36,365 short tons, valued at $144,209. The total number of firms reporting was 29; of this number 14 firms sold material in the crude form, 9 ground all or a portion of the flint mined by them, and 6 firms were idle. The flint ground in this manner formed 44.19 per cent of the total quantity mined. A comparison of the figures of 1902 with those of 1901 shows an increase in production of 3,518 short tons and an increase in value of $4,444 for the crude material; in the ground product the decrease in weight was 1,573 short tons, and in value $9,442.

The production for 1902 is given below, the value of the crude material being that given at the mines, and of the refined that given at the mills, which in many cases are situated near the mines:

d71 T

&gt;Oq1C

IodudUm of flint in the UnUed States in 190, by States,

Crude.

Refined.

State.

Quantity.

Value.

Quantity.

Value.

Connecticut

Short tons.

SOwrttona. 2,620

Maine

Maryland

Montana

New York

Pennsylvania

Virginia

Total

a Included under Connecticut, b Included under New York.

Included under Maryland. Included under Pennjqrlyania.

These figures do not represent the entire amount of flint consumed annually in the United States, for much is imported from Europe in the form of rolled flints. The flint nodules thrown out of the chalk by the whiting manufacturers are also ground and sold for pottery use.

The value of the flints and flint stone, unground, imported in 1902 was 185,092.

The production of flint from 1892 to 1902 is as follows:

Production of flint in the UniUd States, 189-1909.

Year.

Crude.

Ground.

Total.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

a22,400

a 33, 231

a42,660

a 18, 747

al2,458

a 18, 466

a21,425

a29,852

Short torn.

Short tons. 22,400 33,281 42,660 18,747 12,468 13,466 21,425 29,862 82,495 34,420 86,965

a Includes both crude and ground.

FEIiDSPAB. PRODUCTION.

The production of feldspar in 1902 amounted to 21,870 short tons of crude spar, valued at $55,501, and 23,417 short tons of ground spar,

Ic

Flint And Feldspar.

valued at $194,923, giving a total of 45,287 short tons with a value of $250,424.

This is a large increase over 1901, when the total production was 34,741 short tons, valued at $220,422.

These figures do not show the entire amount of spar consumed in this country annually, for some is imported from Canada.

The production for 1902 is given below, the value of the crude material being that given at the mines, and of the refined that given at the mill. The latter does not include that ground by firms owning no mines.

Production of feldspar in the United States in 190B, by Slates,

State.

Crude.

Refined.

Quantity.

Value.

Quantity.

Value.

Connecticut

Short tons.

S12.206

Short tons. 8,742

Maryland

New York

Penn8yl vanla

Total

a Included under New York.

The above production was obtained from 28 firms. Of this number 19 produced crude spar, and 10 produced ground product also. Nine firms were idle.

The production of feldspar from 1892 to 1902 is as follows. The figures since 1895 represent infoiination collected directly by the Geological Survey, and are more approximately correct than those of preceding years.

Production of feldspar, ISOfS-lOOS.

Year.

Crude.

Quantity. Value,

Ground.

Quantity. Value.

Total.

Quantity. Value,

Short tofM.

a 16, 800

a 19, 264

a8,628

a 10, 203

al2,616

al8,440

a24,202

2U,646

Short tons.

Short tons. 16,800 20,678 19,264 8,623 10,208 12,616 13,440 24,202 24,821 84,741 46,287

S75,000

a Includes both crude and ground.

Ic

Ic

Gpia.Pecite.

By Joseph Struthers

Introduction.

The mineral graphite is classified in the trade as crystalline and amorphous, the former constituting the finer grades used chiefly for the manufacture of refractory products, lubricants, electrotypes, etc., and the latter being of inferior quality and suited only for foundry facings, paint, stove polish, and similar products. Some of the amorphous variety, however, especially that from Bavaria and Mexico, is utilized also in the manufacture of pencils and in electrotyping work.

The bulk of the supply of the best grades of crystalline graphite continues to be derived from Ceylon, which furnishes at present about 80 per cent of the total consumption of graphite in the United States. Ceylon graphite is imported direct by steamer in packages of 600 pounds net weight each, the ore being sorted and graded into four products, which in the order of value are: *'Lump," ''chip," ''dust," and "sweepings." The lump and the chip varieties are used chiefly in the manufacture of graphite crucibles and for electrical purposes, and the dust and the sweepings are utilized mainly for facings and stove polish. The consumption of crystalline graphite in the arts and manufactures is approximately as follows: For crucibles, 55 per cent; stove polish, 16 per cent; foundry facings, 10 per cent; paint, 5 per cent; for all other purposes, 10 per cent. The last-named division includes powder glazing, electrotyping, steam packing, pencils, and various minor uses.

Artificial graphite is manufactured in the electric furnace in two forms, one being the so-called graphitized electrodes, and the other artificial graphite. To produce the former the ordinary electrode, which is composed of a mixture of petroleum coke, pitch, and a carbideforming material (silica or iron oxide), is submitted to the great heat of an electric furnace and the whole becomes graphitized, furnishing a product having special qualities. For the production of artificial

graphite anthracite coal is heated in the electric arc furnace and the impurities are eliminated, the ash being reduced in some cases to as low as 0.5 per cent.

There are two methods of concentiuting gi*aphite from its ore, the wet and the dry. No mill has adopted the dry or air method in its entirety on account of the gravities of the component parts of the ore being so close to one another. Several pneumatic processes have lately proved a partial success, but they have been of limited application on account of the inability to remove the small scales of mica which occur in some of the deposits. The wet or water method of concentration has been developed to a marked degree of eflSciency and is the one now used by the operative companies. The general method of procedure is to crush the ore, stamp it wet, separate coarsely by stationary buddies, the concentrates being dried and further treated with buhrstones and screens. In the mill of the North American Graphite Company an improvement has been made by the use of the Brumell separator, which treats the dried ore by flotation upon rather than immersion beneath the surface of the water.

In spite of the development of the manufacture of artificial graphite by the electric furnace, the demand for the natural product has increased very largely in recent years because of the growth of the iron and steel industry, the largely increased use of copper and its alloys, the increased need for lubricants, and the development of electrical machinery which calls for graphitized products. During 1902 but little more than one-tenth of the total consumption of natural graphite in the United States was of domestic origin.

Production.

The production of crystalline graphite in the United States during 1902 amounted to 3,936,824 pounds, valued at $126,144, as compared with 3,967,612 pounds, valued at $135,914, in 1901. The greater part of the product was derived from the mines at Ticonderoga, N. Y., although the mines at Chester Springs, Chester County, Pa. , and at Stockdale, Clay County, Ala., contributed to the output. Considerable progress has been made in developing mines, notably at Ticonderoga, by the Columbia Graphite Company; at Dillon, Beaverhead County, Mont., by the Crystal Graphite Company; at Laramie, Albany County, Wyo., by the Copper Cliff Mining Company, and near Graphiteville, McDowell County, N. C. Exploratory work was done during the year at the graphite properties 8 miles southwest of Eaton, Colfax County, N. Mex., and an output of 65 short tons of high-grade amoi-phous graphite was shipped to Moosic, Lackawanna County, Pa., for manufacture into paint and foundry material. In the aggregate about 2,000 short tons of crude material have been

a In addition to this quantity 30,000 pounds, valued at $1,800, were mined but not marketed in 1902, as reported by the Census.

Graphite. 977

mined during development, and are awaiting the erection of mills or the results of experimental work carried on for the selection of a proper process of concentration.

The production of amorphous graphite in the United States during 1902 was 4,739 short tons, valued at $65,964, as compared with 809 short tons, valued at $31,800, in 1901. The decline in unit value was due to the increased proportion of products of lower grades. Under this head are included the so-called graphitic anthracite of Rhode Island, which is of a structure between scaly and granular and contains in selected samples as much as 52 per cent carbon, and the so-called Baraga graphite of Michigan, which in reality is a carbonaceous schist.

The principal manufacturers of graphite articles in the United States, classified as to products, are named in the subjoined list:

Crudhle manufacturers and grinders:

Joseph Dixon Cracible Company, Jersey City, N. J.

J. H. Gautier & Co., Jersey City, N. J.

Bobt. Taylor Crucible Company, Callowhiil street, Philadelphia, Pa.

Bridgeport Crucible Company, Bridgeport, Conn.

R. B. Seidel & Co., Philadelphia, Pa.

Ross & Co., Philadelphia, Pa.

Taunton Crucible Company, Taunton, Mass.

Crucible Steel Company of America, Pittsburg, Pa.

Tacony Crucible Company, Tacony, Pa.

McCollough & Dalzell, Pittsburg, Pa. (Ahrenburg & Co., crucible makers). Grinders:

Allen Graphite Company, Talladega, Ala.

Philadelphia Graphite Company, Philadelphia, Pa.

United States Graphite Company, East Saginaw, Mich, (mines in Mexico). Paint manufacturers:

Detroit Graphite Company, Detroit, Mich.

Wisconsin Graphite Company, Pittsbuig, Pa. Stove polish manufacturers:

Rising Sun Stove Polish Company, Canton, Conn.

Enameline Stove Polish Company, Passaic, N. J.

Nickel Plate Stove Polish Company, Chicago, 111. Foundry facing manufacturers:

S. Obermeyer Company, Cincinnati, Ohio.

Hill & Griffith, Cleveland, Ohio.

J. W. Paxton, Philadelphia, Pa.

E. D. Ranson, Troy, N. Y.

American Facing Company, New York, N, Y.

Brown Brothers, Springfield, Mass.

T. P. Kelly, New York, N. Y. Grease and lubricant manufacturers:

Ilsey, Doubleday & Co., New York, N. Y.

J. S. McCormack, Pittsburg, Pa.

Th Lubriphite Company, Jersey City, N. J. Dealers:

Standanl Graphite Company, New York, N. Y.

Pettinos Bros. & Co., South Bethlehem, Pa.

a In addition to this quantity 20,716 short tons, valued at $43,600, were mined but not marketed in 1902, as reported by the Cengus.

Minebal Be80Ubce8.

In the following table, which shows the annual production of graphite from 1880 to 1902, inclusive, the refined crystalline product is given in pounds and the amorphous product is given in tons:

Production of natural graphite, 18S0-1902.

Year.

Quantity.

Value.

Year.

Quantity.

Value.

iRBfi pounds

short tons..

Ishorttons..

Ishorttons..

13JJ pounds

Ishorttons..

1900 Ip&quot;&quot;&quot;*&quot;

Ishorttons..

Ishorttons..

a8, 986, 824

$48,460 75,200 m.679 167,714

Ishorttons..

Imports And Exports.

The following table gives the amounts of graphite imported into the United States from 1867 to 1902, from which it may be seen that the annual consumption of graphite in recent years far exceeds the domestic production. There were 12 long tons of graphite, valued at $884, exported from the United States during 1902, as compared with 6 tons, valued at $365, in 1901, and none in 1900.

Graphite imported into the United Stales, 1867-190S,

Year ending-

Unmanufactured .

Manulactured.

Total value.

Quantity.

Value.

Value.

June 80—

Longtont. 1,356 8,481 3,742 4,040 4,819 7,877 5,600 2,329 2,530 3,768 3,012 3,283 7,546

$54,181 149,068 139, 9&1 829,090 548,618 882,591 122,060 168,314 222,721 171,666 168,650 800,968 413,640

a In addition 30,000 pounds, valued at $1,800, were mined but not marketed in 1902. bin addition 20,716 short tons, valued at $l;i.600. were mined but not marketed in 1902.

Graphite.

Graphite imported into the United SUUeSy 1867-190iS — Continued.

Year ending-

Unmanufactured.

tured.

Total value.

Quantity.

Value.

Value.

June SO—

Longton. 7,621 7,745

883,670 288,256 207,228 164, lU 881,621

ARTIFICIAIi GRAPHITE.

The manufacture of artificial graphite has assumed a very prominent position in the graphite industry in recent years, the production during 1902 amounting to 2,358,828 pounds, as compared with 2,500,000 pounds in 1901 and 860,750 pounds in 1900.

The manufacture of artificial graphite, both of the crystalline and of the amorphous variety, has been steadily developed by the sole producer, the International Acheson Graphite Company, at Niagara Falls, N. Y., whose progress is shown in the subjoined table of annual production from the commercial inception of the industry in 1897 to 1902, inclusive:

Production and value ofartifidr flraghiley 18S7-190S,

Year.

Quantity.

Value.

Unit

value per

pound.

Pounds,

&00

The decrease in unit value of the total production from 8 cents per pound in 1899 and 1900 to 4.75 cents per pound in 1901 and 4.69 cents per pound in 1902 was largely due to the increased proportion of the amorphous variety produced.

The output of 1902 consisted of 883,591 pounds of graphitized electrodes and 1,475,237 pounds of artificial graphite in the granular or powdered form. The electrodes were used in electrolytic processes for the production of caustic soda and of chlorine and metals in chloride solution; also in electrometallurgical processes, such as the production of calcium chloride, the electric smelting of copper and iron ores, and the manufacture of various iron alloys. The artificial graphite in the form of grains and powders was used chiefly in the manufacture of paint, dry batteries, and commutator brushes, although a considerable quantity was used in the manufacture of lubricants, in electroplating work, and in certain chemical processes requiring a carbon of exceptional purity.

Occubbence And Pboducitox In Canaba.

Graphite occurs in Canada both as amorphous and as crystalline, the former grade being found chiefly in Nova Scotia and New Brunswick, where it occurs as graphitic shale or clay, and the latter variety occurring notably in Ottawa and Argenteuil counties, Quebec, and in similar deposits in Lanark, Leeds, and Frontenac counties, Ontario. The most important of the amorphous deposits are in the vicinity of St. Johns, New Brunswick, although other deposits of lesser note are located in Kings and Westmoreland counties. New Brunswick, and at the Lochaber mine. Nova Scotia. Amorphous deposits have also been found in Haliburton and Hastings counties, Ontario, and in Renfrew County, Brougham Township, is a very extensive deposit of this character, which carries also considerable crystalline graphite. The Ontario Graphite Company operated this last-named deposit during 1902. The value of the output in Ontario during 1902 amounted to $17,868.

The crystalline variety occurs in two distinct forms, namely, lump and disseminated. The lump graphite generally occurs in limestone in the form of nodular masses or small veins, although in a few cases the ore is in small veins in diorite or other igneous rock. Up to the present time the lump deposits have not warranted systematic mining.

The disseminated graphite is of the crystalline or flaky variety and occurs in gneiss, assaying up to 36 per cent carbon. According to Mr. H. B. H. Brumell these bands of gneiss are considerably developed in the townships of Buckingham and Lochaber, Lochaber County, Quebec, many beds having a thickness of 20 feet or over, and the product assaying about 20 per cent graphite. A few of these beds

Ic

Gbafhitb.

have been opened and considerable quantities of ore extracted and treated at the various mills in the district, more especially in later years at the mills of the American Graphite Company, the Buckingham Company, and the Walker Mining Company.

The following companies were interested in graphite mining in 1902: In New Brunswick, the Canada Paint Company, near St. John Station; in Ontario, the Ontario Graphite Company, Brougham, and the Globe Refining Company, Port Emsley; in Quebec, the North American Graphite Company, Buckingham ; the Walker Mining Company, Buckingham; the Calumet Mining and Milling Graphite Company, Calumet, and the Grenville Graphite Grenville (formerly Keystone Graphite Company).

Of the above-named companies the North American Graphite Company contributed regularly throughout the year. The Ontario Graphite Company did not begin to produce until August, nor the Globe Refining Company until December. The Canada Paint Company acquired 500 acres of mineral land at Petitcodiac in January, 1908.

The production of graphite in Canada during 1902 amounted to 1,995 short tons, valued at $28,300, as compared with 2,005 short tons, valued at $38,780, in 1901. The subjoined table gives the annual production of graphite in Canada from 1886 to 1902, inclusive.

Annual production of graphite in Canada j 1886-1902.

Calendar year.

Quantity.

Value.

Calendar year.

Quantity.

Value.

Short Umt. IfiO None.

Short torn.

3S98

a Quantity not reported.

Mineral Resources.

WORIiD'S PRODUCTION.

In the following table is shown the world's production of graphite, by countries, from 1896 to 1901, inclusive:

Worlds 9 production of ffrapkiUf 1896-1901, [Quantity in metric toDS.]

Country.

United States .

Austria

Canada

Ceylon

Germany

India

Italy

Japan

Mexico

Sweden

Total.

Quantity. Value,

Quantity. Value,

Quantity. Value.

Country.

Quantity. Value,

Quantity. Value.

Quantity. Value.

United States

Austria

Canada

Ceylon

Germany

India

Italy

Japan .-.

Mexico

Sweden

Total . . .

b535

d 875, 190

d 3, 203, 216

c 1,761, 113

c 76, 427

a Statistics not available.

b Includes crude.

e Latest available figures used in makine up total.

d These values are taken from the official year books of the United Kingdom.

Magnesite.

By Joseph Strutiiers.

Introduction.

The mineral magnesite, or magnesium carbonate (MgCO,), in the pure state is composed of carbon dioxide (COg) 52.4 per cent, and magnesium oxide or magnesia (MgO) 47.6 per cent. It frequently contains, however, a small quantity of magnesium silicate, and at times iron carbonate is present. The color is white, often with a yellowish or grayish tinge. In appearance the massive form is similar to unglazed porcelain; and, though brittle, it is exceedingly hard to drill. It is found in talcose schist, serpentine and other magnesian rocks, also in gypsum, and as veins in sei-pentine; and often mixed with the latter, it forms a variety of verde-antique marble.

Production, Imports, Consumption, And-Prices.

The production of magnesite in the United States continues to be limited to California, and during 1902 the quantity reported was 3,466 short tons, valued at $21,362,* as compared with 13,172 short tons, valued at $43,057, in 1901. The production during 1902 consisted of 1,230 short tons of crude product, valued at $5,582, and 1,050 short tons of calcined product, valued at $15,780, the latter being equivalent to 2,236 short tons of crude product, which are included in the total of 3,466 short tons of crude magnesite.

The following table gives the quantity and value of crude magnesite produced in the United States from 1891 to 1902, inclusive:

Quantity and value of crude magnetite produced in the United Slates, 1891-190S.

Year.

Quantity.

Value.

Year.

Quantity.

Value.

Short tons.

Short loM. 1,143 1,263 1,280 2,262 13,172 08,466

o Including 380 short tons, valued iit $1,723, mined prevlouifgyjed by V IC

The production of crude magnesite is practically under the control of one firm, which ships the entire output to manufacturers of carbondioxide gas for the production of the gas by calcination; the calcined product, which is essentially magnesium oxide, or magnesia, is returned to the shipper and is subsequently utilized by paper-mill concerns.

The demand for calcined magnesite for this purpose in the West is limited, and only a small portion of the available supply is utilized — a trade condition which is reflected by the different unit values of the calcined product in various years considered in connection with the quantities produced. Thus in 1900 the supply amounted to 1,013 short tons, and the average value per ton was $15.70; in 1901 the output of 4,726 short tons far exceeded the demand and the average value decreased to $5.58 per ton ; in 1902, when the supply reached the normal consumption of 1,050 short tons, the average value per ton rose to $15.

The imports of crude and calcined magnesite during 1902 — chiefly from "Greece and Austria — amounted to 49,786 short tons ($373,928), as compared with 33,461 short tons in 1901. There was also a large importation of magnesite bricks, but no statistics of their quantity and value are available. It is thus seen that the United States furnishes a small proportion only of the total consumption.

The total quantity of magnesite consumed in the United States is approximated by adding together the domestic production and the importation, although in the latter case there is no distinction made between the crude and calcined magnesite. On this basis the total consumption of magnesite during 1902 was 53,252 short tons, as compared with 46,633 short tons in 1901, and with 31,073 in 1900.

Uses.

In the crude state magnesite is used in the manufacture of carbondioxide gas by treatment with sulphuric acid or by the application of heat alone. In the former case magnesium sulphate is obtained as a by-product, which, being dissolved in water, filtered, and crystallized, yields Epsom salts (MgSO,, 711 fi). During 1902 it is estimated that at least 50,000 barrels of this salt were produced in the United States. Early in 1903 a combination was effected of the various concerns engaged in the manufacture of Epsom salts. The chief use of the carbon-dioxide gas derived from this source, in both the gaseous and the liquefied forms, is to charge, or carbonate, mineral waters. On account of its antiseptic properties the gas is used also in place of the ordinary pump or engine to raise beer and similar beverages. Its use in mechanical refrigeration in warm countries and on shipboard is being developed.

In its calcined state (which corresponds to magnesia, MgO) the consumption of magnesite has increased very largely since 1899, owing to its uses in the form of bricks or concrete as a refractory lining for open-hearth furnaces and converters in the steel industry.

By Joseph A. Holmes.

OCCTJIlREN"CB.

Mica is widely distributed in the United States, but its commercial sizes are found only in about one-third of the States and Territories: Alabama, Arizona, California, Colorado, Connecticut, Georgia, Idaho, Maine, Missouri, Nevada, New Hampshire, New Mexico, New York, North Carolina, Rhode Island, South Dakota, Virginia, and Wyoming. The actual mining of mica in the United States during the last few years has been limited mainly to North Carolina, New Hampshire, South Dakota, New Mexico, Idaho, Virginia, and Colorado, though some development work has also been carried on in California, Nevada, Maine, Alabama, and Georgia. In several of these States good deposits of mica are known to exist that are not now available on account of their distance from railroad transportation. This is especially true of the deposits in Colorado, Nevada, New Mexico, and Wyoming.

The mode of occurrence of mica in coarse pegmatite dikes has been described in the Twentieth Annual Report.* The mineral constituents of these pegmatitic dikes are principally quartz, one or more of the feldspars, and mica, the latter being in the United States mainly mus- - covite, with occasionally quantities of biotite. The Canadian mica is mainly phlogopite. There are many accessory minerals found in these dikes, some of which are of economic importance and have made valuable by-products. The feldspar, especially when of the potash variety, and the quartz become available as commercial commodities when the deposits are near the markets for these products. Thus the deposits in the Ekistern States are more favorably situated for utilizing these two minerals than those in the West. In a few instances it is the feldspar that is the principal mineral mined, with the mica as a by-product.

In California mica of commercial sizes has been reported from several localities, but at only one of these was any mining reported during

a Twentieth Ann. Kept. U. 8. Geol. Survey, pt 6 cont., 1899, pp. 695-707. „ , I

1902, namely, at the Mount Alamo Mica Company's mine in the Km mining district, Ventura County, which is 68 miles from Bakersfield and about the same distance from Lancaster, the nearest railroad stations. Here some development work was carried on during the year. The pegmatitic dikes outcrop prominently, varying in width from a few feet to several hundred feet. As is the case in all such dikes, the percentage of mica, always small, is variable, not only with respect to quantity, but also in the percentage of plate mica in the individual fr3stals or blocks. Thus far most of the mica obtained has been scrap mica which has been pulverized. Occasional crystals of clear, clean mica were obtained that cut sheets from 2 by 3 inches to 4 by 10 inches. The scrap mica is pulverized at the mine, and the' conmiercial product is shipped.

The mica deposits of Nevada are at the present time too isolated to warrant mining on any extensive scale. The only deposits that have been opened up to any extent are those in the Czarina and the Snowdrift groups of claims. The former are situated in the Virgen Mountains, the last southern promontory of the Wasatch Range, which lie between the Rio Virgen and the Colorado River. The nearest town is Rioville, which is at the confluence of the two rivers and from 16 to 25 miles southwest from the different claims comprising the general Czarina group. The deposits are at an elevation of about 5,000 feet and are in pegmatitic dikes, cutting a granitic schist. As reported by Mr. Daniel Bonelli, the associated minerals found with the mica are mainly garnet, tourmaline, columbite, and beryl. These deposits have been opened to a depth pf about 45 feet, and a considerable quantity of sheet mica was shipped from here a number of years ago, a part of which cut sheets 2 by 3 to 3 by 5 inches. The largest mica found cut sheets 8 by 13 inches. The nearest railroad station is Chloride, Ariz., distant about 90 miles. The Snowdrift group of claims are located on the north side of the highest peak of the Virgen Range, about 15 miles south of Bunkerville, Lincoln County, Nev., close to the Arizona line. The proposed Arizona and Utah railroad will come within 15 miles of this group and within 12 miles of the Czarina group. Samples of this mica examined were of good quality.

In the Black Hills region of South Dakota, near Custer, a number of workable deposits of mica have been opened during the last few years, and many of these have been worked at intervals. Only the mines of the Black Hills Porcelain, Clay, and Marble Company, however, were worked, and these for only a short time during 1902.

In New Mexico mica of sufficient size and in sufficient quantity to be workable has been found in the eastern central portion of Rio Arriba County, and these deposits have been worked at a number of different places at intervals during several years past. Also along the crest of the mountains 20 to 30 miles northeast of Santa Fe. and in

Ic

Mica. 987

San Miguel County 20 to 30 miles west and northwest of Las Vegas, a number of such deposits have been found, and several of them have been worked to a limited extent. But little mica was actually mined, however, in New Mexico during 1902.

In the New England States workable deposits of mica have been found and have been mined in a number of different New Hampshire localities, and at several localities in Maine and Vermont. But little actual mining was carried on in either of these States during 1902, though in New Hampshire there was a considerable amount of development work done, principally by the Tugg-Hill Mining and Development Company on its property at North Groton. At this place the company expects to utilize not only the mica, but also the quartz and feldspar.

In the southern Appalachian region mica deposits are numerous, and in North Carolina mining operations were carried on during 1902 at a number of different localities, mainly in Ashe, Mitchell, Yancey, Jackson, Macon, Stokes, Cleveland, and Rutherford counties. In Virginia mica mining was carried on at several localities in Amelia County.

Production'.

During 1902 the production of mica was confined to the following States: California, New Mexico, South Dakota, Vermont, New Hampshire, Maine, Virginia, North Carolina, and Georgia, over two-thirds of the quantity coniing from North Carolina. Of these States only New Hampshire, New Mexico, North Carolina, and South Dakota were prcxiucers in 1901.

The total quantity of mica produced in the United States during the year 1902, as reported to the Survey, was as follosrs: Plate mica, 373,266 pounds, valued at $83,843; scrap mica, 1,028 short tons, valued at $13,081; and mica, rough as mined or unmanufactured, 372 short tons, valued at $21,925; total value of ndca produced during 1902, $118,849. The increase in the production of plate mica during the last three years is due to the increasing quantity of small-sized mica disks and rectangular sheets that have been cut for electrical purposes. This was formerly all thrown away as scrap ndca. There was also a large falling off in the production of scrap mica, which in 1902 amounted to 1,150 short tons, valued at $14,606, as compared with 2,171 short tons, valued at $19,719, in 1901.

Ic

Mtnebal Rbsouboes.

In the following table is shown the annual production of mica in the United States from 1880 to 1902, inclusive:

Annxud production of mica, 1880-190.

Year.

JSheet.

Quantity.

Pounds.

al66

a 191

a 148

Value.

i 88,929

Year.

Sheet

Sheet

Scrap

Sheet

Scrap

Rough as mined, or unmanufactured. . .

Quantity.

Pounds.

o740

as, 999 108,670

al,506 456,288

o6,497 860,060

o2,171 873,266

al,028

a872

Value.

a Short tons.

The relatively small production of mica can be accounted for by the low prices maintained for plate mica, by the uncertainty of the occurrence of the mica in the veins, and by the large number of small producers who are entirely dependent upon one small mine, and who, when the mica in this begins to give out or is poor, have not the means to carry on much dead work and have no other deposit to help to fill out this deficiency. The consolidation of a number of the mica mines in different sections might be profitable. The importation of mica from Canada and India at a low valuation tends also to curtail the production of mica in the United States. This is especially true of the mica imported from India, which can be mined and landed in this country at a lower price than in some cases it can be mined in the United States.

Mica,

In the following tables in given the quantity of plate and scrap mica produced in 1900 and 1901, by States:

Production of mica in 1900, by States.

State.

Sheet mica.

mica.

New Hampshire .

New Mexico

North Carolina . .

Sonth Dakota

Other States b

Tbtal

a 123, 090

a Sold in rough or unmannfactored condition, ft Idaho, Maine, Nevada, and Rhode Island.

Production of mica in 1901 , by States,

State.

Sheet mica.

Scrap mica.

New Hampffhire tt ,

Poundf.

Short tons,

New Mexico

North Carolina r-, r--r.r, ,r---r,r.

Sonth Dakota

Total

The following table gives the quantity and value of plate and scrap mica produced in 1902, by States:

Production of mica in 1909 y by Stales,

Sheet mica.

Scrap mica.

Rough as mined.

State.

Pounds.

Value.

Short tons.

Value.

Short tons.

Value.

California

Geoigia

Maine

New Hamptihire . r

New Mexico

North Carolina

South Dakota

Virginia

Total

From these tables it will be seen that the production of plate mica in North Carolina in 1902 was greater than in 1900 and 1901, but that there was a large falling off in the production of scrap mica. This can be accounted for by the fact that most of the scrap mica now produced is that obtained as waste in mining and cutting the plate

Mikebal Besouboes.

mica, whereas formerly a very larg& amount of the scrap mica was obtained from old , the accumulation from the waste or trimmings of previous years.

New Hampshire's production was again very materially reduced, as was also that of South Dakota and New Mexico, as compared with that of 1900 and 1901. California, Vermont, Virginia, and Georgia were additional producers to those of 1901, but in all cases the production was small. The production of North Carolina was 303,816 pounds of plate mica, valued at $65,419, showing North Carolina to be the principal mica-producing State of the country.

Imports,

There is annually imported into the United States three to four times the value of the plate mica of domestic production; the imports are principally from India and Canada.

In the following table is given the value of mica imported into the United States from 1869 to 1896, inclusive:

import and e?Uered/(>rcanumpt in the United States,

Year ending—

Value.

1 Year ending—

Value.

Year ending-

Value.

June 80-

June 80—

a56,354 0 49,065

Dec. 1—

a57.541 a97,S51

a207,375 95,242 218,988 147,927 126,184 174,886 169,065

Dec. 31—

a Including mica waste.

Under the new classification made necessary by the Dingley tariff act, in effect from and after July 24, 1897, mica is designated as "unmanufactured" and "cut or trimmed." A specific import duty of 6 cents per pound is imposed upon the foiTaer and 12 cents per upon the latter, with an additional 20 per cent ad valorem duty on each.

Mica.

The imports, after the new classification took effect, for the years 1898, 1899, 1900, 1901, and 1902, were mainly as " unmanufactured" mica, as follows:

imported and erUered for conmmptum in 1898, 1899, 1900, 1901, and 1902,

Year.

Quantity.

Value.

Year.

Quantity.

Value.

18B6.

Poundt. 877,930 78,567

TTnmanuffiitured

Poundt. 1,508,722 78,843

C?Tt or trimmHl

Cut or trimmed

Ttotal

Unmannfftctured

Cut or triraxnod . .

Cut or trimmed

Ttotal

Oit or trimmed

Ttotal

As is seen from these tables, the import of mica for 1902, amounting to 2,251,856 pounds, valued at $466,882, is an increase of 574,291 pounds, valued at (131,278, over the importation of 1901, and this increase is greater than the total value of the production of mica in the United States during 1902. This illustrates the increasing demand for mica in this country, a demand, however, that is being supplied largely by foreign mica.

Ic

Mineral Waters.

For the year 1902 a larger number of springs report sales than in any previous year; and, with only one exception, every section of the country reports also an increased production as compared with 1901.

The list for 1902 includes 721 springs, an increase of 62 over the list of 1901, which contained 659 springs. There have been added to the list 96 springs, and 34 have been dropped, chiefly because water from them is no longer on the market. A few springs have been taken from the list because they have not been heard from for several years, and no data relating to them can be obtained.

The springs actually reporting sales for 1902 are 649, an increase of 67 over 1901. Of the remaining 72 springs, 39 report that no sales were made in 1902. Of the 33 springs not heard from, about onehalf were represented in the figures of the report for 1901, and among them are a number of springs doing considerable business. They are all included in the estimate, which is based on previous reports from these springs. The average price per gallon for 1902 is nearly 13.7 cents, aa compared with 13.6 cents for 1901 and with 12.6 cents for 1900.

The total production for 1902, including the figures estimated for the delinquent springs, is 64,859,461 gallons, which is 9,088,263 gallons more than were reported for 1901. The value of the product of 1902 is $8,793,761, an increase of $1,206,799 over that of 1901. Considering only the 648 springs actually reporting sales in 1902, the figures are 63,174,552 gallons, as compared with 54,733,661 gallons in 1901, an increase of 8,440,891 gallons. The value of this product of 1902 is $8,634,179, compared with $7,443,904 in 1901, an increase of $1,190,275.

As in 1901, the North Atlantic States lead the other sections, showing the greatest gain both in production and in value. The list makes a net gain of 8 springs, 22 having been added and 14 dropped, leaving the total at 257, as compared with 249 for 1901. Reports of sales were received from 230 springs, which is 14 more than were heard from in 1901. The number of gallons sold in 1902 is reported as

22,047,263, valued at $8,540,433, an increase of 4,470,294 gallons and of $1,027,348 over the figures for 1901. The springs new to the list, 22 in number, are the following:

Connecticut, — Granite Rock Spring.

Maine, — CarrabasBet Spring, Rocky Hill Spring.

MoMochuseUs, — Arctic Polar Spring, Beach Hill Spring, Berkshire Crystal Spring, Hygeia Artesian Well, Lexington Spring, Purity Spring.

New Jersey. — Alpha Spring, Trinity Springs, Turtle Hill Spring, Washington Bock Spring.

New York. — Big Indian Spring, Dry den Springs, Hide's Franklin Spring, Illston Artesian Well.

Pennsylvania. — Artesia Spring, Imperial Spring, Korrylutz Well, Malvern Spring, White House Spring.

In the South Atlantic States there is also a gain both in production and value, and also in the total number of springs whose waters are used commercially. The net gain in the list is 10, as 18 springs have been added and 8 dropped, leaving the total at 116 for 1902, as compared with 106 for 1901. Sales for 1902 are reported by 104 springs, which is 16 more than the number reporting in 1901. The production for 1902 is 4,040,202 gallons, valued at 1670,354, an increase over 1901 of 867,493 gallons in quantity and of (122,867 in value. The 18 springs new to the list are as follows:

District of Columbia. — Crystal Spring, Laurelwood Spring.

Florida. — White Sulphur Springs.

Maryland. — Elim Spring, Roland Park Artesian Well.

North Carolina, — Alkalithia Spring, Jackson Springs.

South Carolina — Buffalo Lick Springs, Cokesburg Mineral Spring, West Springs.

Tlrginia. — Augusta White Lithia Spring, Basic Lithia Spring, Bellfont Spring, Coppahaunk Lithia Arsenic Spring, Craig Healing Spring, Lone Jack Spring, Sublett's Lithia Spring.

West Virginia. — Magnesia Spring No. 2.

The North Central section shows a decided increase in the number of gallons sold, but a decrease in the total value of the product. There is an increase in the total number of springs, the net gain over the list of 1901 being 18. There were added to the list 23 springs and 5 were taken from it, leaving the total for 1902 at 180 as compared with 162 in 1901. Of these 166 reported sales. The number of gallons reported as sold in 1902 is 25,258,218, the largest in any section. This is 2,408,220 gallons more than were sold in 1901. The value of the product of 1902 is $2,838,498, which is $854,867 less than that of 1901. The 23 springs new to the list of 1902 are the following:

Illinois.— Blue Grass Springs, Elmhurst Mammoth Spring. Mokena Mineral Spring.

Indiana. — Mudlavia Artesian Sulphur Spring, Porter Mineral Springs.

Kansas. — Boon Mineral Spring, California Spring, Geyser Mineral Springs Hoover's Mineral Spring, Merrill Mineral Spring, Phillips's Mineral Spring, 8ulpho- Magnesian Spring, Sun Springs.

&gt;V Ic

Mineral Waters. 995

Michigan, — Prosit Flowing Well.

Mis9ouri. — Brown's Lineville Springs, Haymaker's Lineville Springs, Monegaw Springs, Mysterious Medical Spring, Ponce de Leon Well.

Ohio, — Alba Spring, Deerfield Mineral Springs, Green Springs, Artesian Mineral WeU.

Wisconsin, — Sanitas Fountain.

The South Central States gain both in production and in value, and have the largest increase in the number of springs. The net increase is 20, the section adding 23 new springs to the list and dropping 3 from it. The total for 1902 is 78, instead of 63 in 1901. Sales in 1902 were reported by 66, which is 16 more than in 1901. The sales of 1902 amounted to 8,190,826 gallons, an increase of 401,016 gallons from 1901. The value of this product is $626,492, an increase of $210,769 over the previous year. The 23 springs new to the list are the following:

Alabama, — Cherokee Spring, MacGregor Spring.

Arkansas. — Allen's Alterative Magnesia Spring, Ravenden Springs.

Indian Territory, — Sulphur Spring.

Kentucky. — Upper Blue Lick Mineral Springs.

Louisiana. — Ozone Spring.

Tennessee. — Eastbrook Springs, Hinson Springs, Horn Mineral Springs, Larkins Spring, Lockeland Springs, Montvale Springs, Willow Brook Springs, Whittle Springs.

Texas.— ChinsL Spring Well, Cicero Smith Well, Gibson Well, Hawthorne Well, Lithia Well, Sangcura Well, Star Well, Texas Carlsbad Well.

For the Western States there is noted, as in the previous section, a gain in production and value and in the number of springs on the list. There is in 1902 a net gain of 6 springs for the section, 10 springs having been added and 4 dropped from the list of 1901. The total for the list of 1902 is 95, as compared with 89 for the previous year. Of these 83 report sales in 1902, which is 3 more than reported in 1901. The number of gallons reported sold in 1902 is 3,638,044, an increase of 293,868 over 1901. The value of the product is $959,402, an increase of $184,158. The 10 springs new to the list are the following:

California. — Grant Mineral Spring.

Colorado.— Colorado Mineral Spring, Columbia Mineral Spring, Glaze's Spring, Golden Lithia Spring, Montrose Mineral Spring. Montana. — White Sulphur Springs. Oregon.— Boswell Springs, Colestin Spring, Kingsbury Spring.

Mineral Resources.

Production of minenil vxUers in 190£f by Stales mid Terrilories.

State or Territory.

Alabama ,

Arkanaas

Colorado

Connecticut

District of Columbia.

Florida

Geoiia

Indiana

Iowa

Kentucky . Louisiana.. Maine

Maryland

Michigan

Minnesota

Mississippi

Missouri

Montana

New Hampshire .

New Jersey

New Mexico

New York

North Carolina . . Ohio

Oregon

Pennsylvania. . . Rhode Island... South Carolina . South Dakota. . .

Tennessee

Texas

Vermont

Viiginia

Washington .. WestViiglnia.

Other States a..

Total

Estimated production of springs not reporting sales .

Grand total.

Springs report-

Quantity.

Value.

T2

a The States in which only one spring for each has made a report are included here, Theee States are Idaho, Indian Territory, Nebiaaka, Oklahoma, Utah, and Wyoming.

MINEBAL WATEBS. Production of naUural mineral icaterSy 1883-190,

Geographic diylsion.

Xt

Quantity sold.

Value.

North Atlantic

Sonth Atlftnto r x

North Central .

South Central

Western

r.r

Total :

North Atlantlr

Bonth Atlantic

North Central

South Centnil

Western

Total

North Atlantic

Bovt Atlantic . . .

North Central

Sopth Ceptml

Western

Total

North Atlantic .

Si

South Atlantic

North Central

South Central

Western

Total

North Atlantic

South Atlantic

North Central

South Central

Western

Total

Ic

Mineral Resouboes.

Production of natural mineral vxtiern, 188S-1902 — Continued.

Geographic division.

Quantity sold.

Value.

North Atlftnttc

Sonth Atlantic

North Cential

South Central

Weetem

Rntimated

19

North Atlantic

South Atlantic

North Central

South Central

Western

Total

North Atlant*o , , . ,

South Atlantic

North Central

South Central

Western

KHtimati

Total

North Atiantf'*

Sonth Atlnfin

North Central

South Central

Western ,

Efitlmated

Total .".

North Atlantic

6,858,722 1,062,945 U, 666, 440 693,644 1,261.468

South Atlan tie

North Central

South Central

Western

RRtlmated .

Total

South Atlan tic

North Central

Mineral Watebs.

Production ofiwiural mineral waters, 1883-1902 — Continued.

Geographic division.

Springs report-

Quantity sold.

Value.

Soutli CenlTal

Western

KfltlmEtA'i ,

Total.'

North Atlantic

South Atlantic .

North Central

South Central

Western

Total

188& North Atlantic

South Atlantic

North Central

South Central

Western

Rstimated . . r - , - , , - , , -, r . „ , -

Total

North Atlantic

South Atlantic

North Central

South Central

Western

Total

North Atlantic

South Atlantic

North Central

South Central

Western

Total

North Atlantic

South Atlantic

North Central

Ic

Production of natural mineral waters 188S-190S — Continued.

Geographic division.

Quantity sold.

Value.

South Central

Western

ERt1inftt4Ml

'27,681,639 1,171,825

Total

North Atlantic'

Ronth Atlantic ,

North Gentml

South Central

Western . .

Kiitfmat4y1

Total - - -

North Atianti'' ,

South Atlantic

North Central

South Central .

Western

Total

Atlantic

flniith AtlRTltip

North Central

South Central

Western

Total

North Atlantic

South Atlantic

North Central

South Central

Western

Total

Ic

Hinebal Waters.

Summary of reports of mineral springs for J90£.

State or Territory.

North Atlantic Btatbb.

Maine

New Hampshire

Vermont

Rhode Island

New York

New Jersey

Pennsylvania

Bouth Atlantic States.

Maryland

District of Columbia

West Virginia

North Carolina

South Carolina

Georgia

Florida

Boutr Central States.

Kentucky

Tennessee

Alabama r.

Mississippi

Louisiana

Texaa

Arkansas

Oklahoma

Indian Territory

North Central States.

Ohio

Tidlana

Illinois

Michigan

Wisconsin

Minnesota

Iowa

Missouri

South Dakota

Nebraska

iranmfl

Western States And Territories.

Wyoming

Montana .'

Colorado

New Mexico

Arizona ,

Utah

Nevada ,

Idaho ,

Oregon ,

Washington ,

California

Total

reporting.

Springs not reporting.

Total used commercially.

Mineral Resources.

Imports.

The following tables show the imports of mineral waters from 1867 to 1901, inclusive:

Mineral waters imported and entered for consumption in the United States 1867- 190£,

Fiscal year ending June 30—

In bottles of 1 quart or less.

In bottles in excess of 1 quart.

Not in botUes.

All not artificial.

Total value.

Value.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

Oallona.

26,410 20, 6M 26,682 82,981 34,919 68,067

Year ending-

Artificial mineral waters.

Natural mineral waters.

Quantity.

Value.

Quantity.

Value.

June 30—

a2, 942, 200

al, 955, 723

a2, 567,323

a2,4A0.110

Dec. 31-

a 501, 684

a526,071

o 744, 892

'

a Including artificial.

Monazite.

By Joseph Hyde Pratt.

Intboduction.

The grant by the Brazilian Government to a German of the exclusive right to develop the monazite sand deposits along the coast of Brazil for a period of ten years will have a further tendency to increase the demand for and the interest in the monazite deposits of North and South Orolina. The consul-general at Frankfort has informed the Department of State that a company has been organized in Berlin to acquire control of this privilege. During 1902 a number of inquiries were received from German importers for information regarding the occurrence of Carolina monazite, its quantity, percentage of thoria, and value. Satisfactoiy replies were made in all cases except with regard to the price of the monazite sand. This is held at a higher figure delivered in Germany than the Brazilian, but with the latter deposits controlled by one company the price of the sand will naturally be increased, and probably so much so that the Carolina sand will be in considerable demand for exporting to Germany. During the latter part of 1902 and the early part of 1903 there has been a very noticeable impetus in the monazite mining industry in North Carolina and South Carolina, and the result should be a large increase in the production of this mineral during 1903 as compared with that of 1902. One company, the German Monazite Company, is operating in North Carolina and shipping its product exclusively to Germany.

Occubbence.

In the report for 1901 the occurrences, localities, and methods of mining of monazite were described in detail. The conunercial deposits are not found in the original rocks, but in the gravel deposits of the present and former streams, which have resulted from the disintegration and erosion of the crystalline rocks which contain the monazite. The deposits of North Carolina, South Carolina, and Brazil still supply the world's demand for this mineral and no other commercial deposits have as yet been discovered. Perhaps a ton a year has been obtained as a by-product in feldspar mining of the pegmatitic dikes of southern

a Adyftnce sheets U. 8. Con. ReptB., May 9, 1902. j

Norway, but this will represent practically all the monazite that is obtained commercially outside of the Brazil and the Carolina deposits. The occurrence of monazite io iron ore and in graphite has recently been described by Mr. Orville A. Derby,® and while they are not considered at the present time of commercial importance they are of considerable scientific interest. The iron ore consists of magnetite and ilmenite, through which the monazite is quite abundantly scattered. It was obtained from the f agenda Catita, on the lower Rio Doce, state of Espirito Santo, Brazil. Monazite associated with graphite was obtained from near Jequitinhonha, in Minas Geraes, and from near Sfio Fidelis, in Rio de Janeiro, Brazil, and from both localities it constitutes the principal portion of the noncarbonaceous residuum.

Uses.

Monazite, which is essentially an anhydrous phosphate of the rare earth metals, cerium, lanthanum, and didymium ((Ce, La, Di) POJ, nearly always contains a small but varying percentage of thoria (ThO,), to which is due its economic value. This oxide is separated and used with much smaller quantities of lanthanum and didymium oxides in the manufacture of the cylindrical hood or mantle of the Welsbach and other incandescent gaslights. Cerium oxide can also be used to advantage with the thoria in the manufacture of incandescent mantles. In the United States Consular Report No. 66* is described an invention of Mr. R. Langhaus for making an incandescent mantle by treating a mantle made of the oxides of thorium and cerium with the silico-zirconates of soda. By this treatment, the inventor claims, an incandescent, mantle is obtained that has a more permanent candlepower and a less tendency to shrinkage than the other mantles. The life of this mantle is reckoned at from 1,800 to 2,000 hours. Zircon, the mineral from which zirconia is obtained, occurs in considerable quantity in North Carolina, and these deposits could undoubtedly furnish all of this mineral required.

In determining the percentage of thoria in monazite considerable difficulty has been experienced in finding a method that would give accurate as well as quick results. Mr. Emil Benz has reviewed the various methods described for determining thoria in a monazite sand, and as a result of his research recommends the following process:*'

Five-handredths of a gram of the finely divided sample is mixed in a platinum crucible with 0.5 gram of sodium fluoride, and then slowly fused with 10 grams of potassium prosulphate, the crucible being covered with a lid. When evolution of gas ceases, a faint red heat is applied for about fifteen minutes, and when cold the

a Am. Jour. Sd., 4th series, vol. 18, 1902, p. 211. bV. 8. Con. Rpt., No. 66, pp. 262-265.

oAbst in Jour. Chem. Soc. from Zeit Angew. Chem., 1902, 15, pp. 297-809, and Amer. Mfr., Aug. 21,1902.

Iv:

Monazite. 1005

masB is extracted with warm dilute hydrochloric acid. After filtering, the undissolved mass is boiled with a little strong acid, diluted with water, and again filtered. The mixed filtrate, measuring about 300 c. c, is partially neutralized with ammonia and then precipitated while boiling by adding 3.5 grams of solid ammonium oxalate. After remaining over night, the precipitate is collected and the thorium estimated as foUows: The oxalates are converted into nitrates by evaporation with fuming nitric acid, the residuum is dissolved in 50 c. c. of water containing at most Ice of dilute nitric acid (1:10) and precipitated at 60 to 80° by adding 10 c. c. of hydrogen peroxide. The thorium peroxide is then convert by ignition into the oxide and weighed. A mere trace of cerium may be present, which may be estimated colorimetrically.

A paper on the Theory of the incandescent mantle" has recently been published by Messrs. A. H. White and A. F. Traver,<* which is an addendum to papers already published by Mr. White in cooperation with others.*

This paper gives additional data on the temperature of the flame and the mantle, on the relation existing between the temperature and the illumination, and a discussion of the question as to whether the illumination is a pure temperature effect or whether other agencies come into play. It would seem from these researches that the illumination is due more to the composition of the mantle than to the temperature, and that the mantle acts as a transformer in changing the heat of the flame into light. The results are summarized as follows:

The temperature of the commercial mantle burned under usual conditions will vary from 1,500** to 1,600** C. For any single mantle the illumination will vary with the temperature. For different mantles, the illumination will depend to a greater degree upon the composition of the mantle than it will upon the temperature. The mantle with the highest temperature does not necessarily give the most light. A mechanical mixture of thorium and cerium oxides when exposed to a flame gradually increases in temperature and illumination till these approximate what would initially be shown by oxides prepared from the mixed nitrates, but the temperature remains below that which pure oxide of thorium would attain in the same flame. It ia concluded that the exceptional efiiciency of the mantle is due to a solid solution of the oxide of cerium in the oxide of thorium, and that this substance is capable of transforming the heat of the flame into light more economically than a black body or any other substance yet known.

Production.

The production of monazite is confined exclusively to North Carolina and South Carolina, by far the larger amount being obtained from the former State, and in 1902 this amounted to 802,000 pounds, valued at $64,160. This is an increase of $4,898 in value and of 58,264 pounds in quantity as compared with the production of 1901, which was

a Joor. Soc. Chem. Indiutry, Aug. 16, 1902, pp. 1012-1017.

b Relation of "Heating to lighting power of gases, with special reference to the incandescent mantle," by A. H. White and H. Rnssell. Am. Gas Light Jonr., 1901, 74, p. 468, and Jonr. Gas Lighting, 1901, 77, p. 878.

Theory of the Incandescent mantle (first paper)," A. H. White, A. F. Tiayer, and H. Russell. Ameiv Qas Light Jonr.. 1902, 76, p. 148, and Jour. GasLighting, 1902. 79, p. 892. IC

748,736 pounds, valued at $59,262. The price per pound received by the independent miners for the monazite produced in 1902 varied from 2i to 8 cents, according to the percentage of thoria. The nearer the sand is brought to a pure monazite the higher its relative value, and this is accomplished by closer concentration and the use of the electromagnet in separating the iron minerals.

The production and value of monazite mined in the United States from 1893 to 1902 are given in the following table:

Production of monazUe in the Uniied StaiM 1893-1902.

Year.

Quantity.

Value.

Powndi, 130,000 546,855

A number of new companies have begun operations in the monazite field during the last year, and the outlook for 1903 is for a much larger production than that of 1902.

IMPORTS Aia> EXPORTS.

There was imported into the United States during 1902, 190 pounds of monazite sand and thorite, valued at $12, which shows that practically all the thoria used in the Welsbach and other gaslight mantles is obtained from this country. There is no record of any monazite having been exported in 1902, but in 1903 there will very probably be a considerable quantity of this mineral exported to Germany.

Glass Sand,

By A. T. Coons.

Production.

In collecting the statistics of the glass sand produced in the United States it has been impossible to avoid the collection of statistics of the sand produced for other purposes than*for the manufacture of glass, and the following table shows the quantity and value of all the sand reported as produced in those States where sand is found of sufficient purity to be used in the manufacture of glass.

Production of glass sand and of other sand in the United States in 190 by Slates,

state.

Glass sand.

Engine Quantity.

sand. Value.

Furnace sand.

Quantity.

Value.

Quantity.

Value.

Illinoia

Short ion*.

Short ions. 54,824

Indiana

Maryland

New Jersey

New York

Ohio

West Virginia

Total

State.

Building sand.

Other

uses.

Total.

Quantity.

Value.

Quantity.

Value.

Quantity.

Value.

nilnols

ShoH Urns,

ShoH toru. 9,290

Short tons.

Indiana

Maryland

Massachusetts

Missouri

New Jersey

New York

Ohio

Pennsylvania

West Virginia

Total

Ic

As will be seen from the table, the production is limited to ten States, and although the production reported for other purposes than for glass is fairly representative of these States, it does not by any means give the total amount of sand produced in them.

The glass sand as given in the above table is the sand used in making glass and not that used in grinding and cutting glass, this being included in the sand reported for "Other uses."

The value given is the value of the sand free on board at the quarry or mine, and does not include freight or transportation, which, if included, would raise the value considerably, as most of the sand mined is subjected to considerable transportation. The value of the sand at the mine depends on the cheapness of labor and the ease with which the sand can be obtained, as well as on the purity of the sand; and, as will be seen from the table, the values range from 50 cents to $2 per ton.

In 1885 the quantity of glass sand mined and used in the United States, as given by Mr. John D. Weeks, in Mineral Resources of the United States for 1885, was 248,128 short tons, valued at $507,178; in 1902 the quantity was 943,135 short tons, valued at $807,797. The difference in value per ton is accounted for in that the value in 1885 was given at the glass works, where the value ranged from 60 cents per ton in the case of works mining their own sand to $10.25 per ton at works remote from source of supply.

The commercial production of glass sand is reported from the States of Illinois, Indiana, Maryland, Massachusetts, Missouri, New Jersey, New York, Ohio, Pennsylvania, and West Virginia. Small quantities have been quarried also in Henry County, Tenn. ; in Richland CJounty, S. C. ; and near Lumber City, Montgomery County, Gra. In Florida the natural deposits of sand, although very fine, contain, as decomposed coral, too much calcium oxide to be suitable for many classes of glass. There are deposits in other States that are undeveloped, and also undeveloped deposits in States that are already producers.

Occurrence Bt States.

The location of the sand beds in the producing States is given in the following pages.

. The glass sand in this State is found near Wedron and South Ottawa, La Salle County and is known as Fox River sand. It is also found at Millington, Randall County. Illinois sand is used in plate-glass works in the vicinity of Chicago and in Indiana, and is also shipped to flint-glass works in the West. Sand from these deposits is also used in furnaces for steel molding, and as sand for sawing and grinding stone at the various quarries. The deposits in this State occur mostly

Ic

Glass Sand. 1009

as sand, and but little labor is required to make them fit for use. However, for making the best glass the sand is treated with water and steam, and is thoroughly washed and dried before being shipped. An analysis of this sand will be found in the table showing analyses of glass sand.

The glass sand produced in Illinois in 1902 amounted to 215,012 short tons, valued at $115,023.

Indiana.

The Indiana glass sand has not been as much used as that of the other States, but sand is now being produced near Ooxville, Parke County, at Walcott, White County, and from rock quarried near Attica, Fountain County. An analysis of each of these sands is given in the table.

Biabtland.

The glass sand in Maryland comes from Anne Arundel County, along the Severn River. This sand, and some from Cecil County, is also used for furnace and building sand.

Massachusetts.

The glass sand of Cheshire, Berkshire County, is especially valued for its use in the manufacture of the best flint glass, and is found at a considerable distance under ground, and contains moisture. The grains ' adhere sufficiently to give the appearance of a solid white rock, which is prepared for use by crushing. The sand is then carried by running water through a series of sieves, and after being spread out and thoroughly dried is ready for market. This sand is also quarried for filtration and other purposes.

Missouri.

The deposits of glass sand in Missouri are at Klondike, St. Charles County; Pacific, Franklin County; and Crystal City, Jefferson County. The deposits in Missouri are among the important deposits of the West, and are shipped to the East also. The sand occurs as sandstone, but is easily taken out with picks. After quarrying, it is broken up into fine sand. The glass sand produced in Missouri in 1902 amounted to 134,587 tons, valued at $82,552.

New Jersey.

The glass sand production of New Jersey is from Penbryn, Camden County; Cedarville, Maurice River, South Yineland, and Millville, Cumberland County; and Downer, Radix, and Williamstown, Gloucester County. It is a highly refrtfctory sand and is largely used for steel molding in furnaces. The glass sand produced iPitiyfffyJf

1902 amounted to 64,469 tons, valued at $45,078; the furnace sand to 116,951 tons, valued at $55,078; and 22,099 tons of sand, valued at $18,223, were produced and used for other purposes, which included sand for filtration purposes, a comparatively new enterprise with this sand. The mineral occurs as sand and needs no crushing. The glass works of southern New Jersey and southeastern Pennsylvania are supplied from these banks

New York.

The sand deposits of New York State from which glass is made are in the neighborhood of Bernhards Bay, Oswego County; Rome Fish Creek, and Booneville, Oneida County; and EUenville, Ulster County. Sand also occurs in deposits in Madison County. The sand occurs in a form sufficiently disintegrated to need no further crushing to fit it for use in glass manufacture. The production of glass sand in New York in 1902 amounted to 12,600 short tons, valued at $13,276.

Ohio.

The sand used for glass purposes in Ohio is quarried in the form of sandstone and then crushed and screened to the proper size. Most of the stone crushed in this manner, however, is used for other purposes than glass manufacture. The localities where the stone is crushed for sand are Akron, Summit County; Bari*s Mills, Dundee, and Strasburg, Tuscarawas County; Leavittsburg, Trumbull County; Chalfants, Perry County; Zanesville, Muskingum County; Coalton, Jackson County; Massilon and Warrick, Stark County; Twinsburg, Summit County; and in 1903 a company will operate in Lucas County. The total sand production in Ohio for 1902 was 180,982 tons, valued at $183,204, the glass sand production being 42,311 tons, valued at $50,426.

Pennsylvania.

The greater part of the sand mined in Pennsylvania for glass manufacture is mined by the Pennsylvania Glass Sand Company, of Lewistown. This company has bought a large number of the sand deposits in this State and has plants located at Granville, McVeytown, and Vineyard, MifiHin County; and at Mapleton and Mill Creek, Huntingdon County. Besides the Pennsylvania Glass Sand Company, the following companies are engaged in mining sand: The American Window Glass Company, Derry, Westmoreland County; the Dunbar Sand Manufacturing Company, Dunbar, Fayette County; the Fitzpatrick Glass Manufacturing Company, Falls Creek, JeflFerson County; the Glass Sand Company (Limited), Franklin, Venango County; the Pittsburg White Sand Company, Mapleton, Huntingdon County; the Crystal Sand Company, Vineyard, and the Juniata Silica Commny, Newton

igi ize y g

Glass Sand. 1011

Hamilton, Mifflin County. Other counties producing silica sand are Lancaster, Butler, Berks, Chester, Mercer, and Bedford.

The glass sand production of Pennsylvania in 1902 amounted to 356,209 short tons, valued at $348,327, a larger quantity and value than shown by any other State.

The sand in this State occurs both as a sandstone, needing to be quarried, crushed, and prepared for use, and as a sand which, although occurring as rock, quickly disintegrates when quarried and exposed to air and moisture.

West Virginia.

In West Virginia the glass sand is mined mostly at Berkeley Springs and Hancock, Morgan County, but is mined also at Sturgisson, Monongalia County. Sand for other uses is obtained in Marion, Hampshire, Randolph, and Monongalia counties.

Beqitibkments Of Glass Sand.

Of the essential constituents in the manufacture of glass, silica, the oxide of silicon, is the most important and is the only material which enters into all varieties of glass. This silica, which is generally used in the form of sand, is found in greater or less purity in nature in deposits as a sand, as a rock easily disintegrated, or as a hard sandstone which has to be crushed before being used.

The chief of the other constituents of glass are the oxides of soda, lime, potash, and lead. The oxides of zinc, tin, barium, and antimony are also occasionally employed; and the oxides of manganese, gold, cobalt, tin, arsenic, copper, iron, and aluminum are found in glass either as coloring: matter, as impurities, or as material for the correction of impurities. The silicaenters into thesand mixture, or " batch," as the oxide, while the other ingredients are mixed with the silica as the salts of the metals. Under the action of heat these salts decompose, the silica fuses, and, acting as an acid, forms silicates with the other metals, making the glass a mixture of various silicates.

The quality of glass, however, depends chiefly on the quality of the sand used. For the finest glass, as flint, plate, and cut glass, freedom from color, absolute transparency, and exceeding brilliancy are required, and only the purest sand can be employed, as even slight impurities, especially small quantities of iron, tend to destroy these eflfects. Iron is the chief impurity, and often can be removed only by the use of magnets. Alumina and clay give a cloudy appearance. When cheap glass is desired and color is not a matter of sand containing impurities may be used, as these impurities act as fluxes and require, therefore, less flux in the " batch," or mixture, of ingredients.

Minebal Rb80Ub0Es.

material, while giving a general idea, are inadequate without an analysis of the sand and also without a test in the furnace. In general, the sand should be perfectly white, rather fine, uniform, evengrained, and with sharp rather than round grains. Coarse sand and exceedingly fine sand, or sand which has rounded grains, is not so certain in its results, as it does not seem to fuse so easily or completely as sharp, fine sand, and makes an uneven glass. If, however, the melting is properly and carefully carried on, the size and shape of the grain does not render the sand unfit for use. The important point is to have it as clean and as free from iron as possible.

Sand which effervesces or loses color when heated with acid is not good sand, as these properties indicate the presence of lime by the effervescence, and of clay or other impurities by change of color. The presence of iron may be detected by dissolving the sand in hydrofluoric acid and adding potassium ferro-cyanide, which indicates the presence of iron, even in the most minute quantities, by a blue color.

The sand for making the best glass, however, should be free from iron, copper, clay, magnesia, and organic compounds. In some cases these impurities may be removed to a large extent by washing, or by burning when there is much organic matter present, and the metallic color may be removed by the use of chemicals in the "batch" when fused.

ANAIiTSES OF GIASS SAITD.

The following analyses as submitted by the American Window Glass Company show the different qualities of sand used in their glass works:

Analyses of glass sand used by American Window Glass Company,

Constitaent.

No.1.

No. 2,

No. 8.

No. 4.

Total

Percent j

Slight trace.

Per cent.

Percent.

No. 1 is suitable for the very highest grades of glassware and flint glass. Nos. 2 and 3 are suitable for tableware, plate glass, chimneys, prescription ware, etc. ; and No. 4 is used for window glass. Sand containing more iron than is shown in the table is used in making green glass bottles and cheap glassware. The use of oxide of manganese in the mixture will enable sand containing a greater percentage of iron than is shown in the table to be used for window glass, as this oxide neutralizes the color of the iron, but in itself gives a color to the glass if used in excess v ,. n . ,.

Vic

Glass Sanb.

The following analyses are submitted by the Pittsburg Plate Glass Company as samples of sand used regularly by them:

Analyses of glass sand used by Pittsburg Plate Glass Company,

Constitaent.

No. 1.

No. 2.

No. 8.

No. 4.

Volatile matter ,

Total

Per cad. Trace.

Per cad.

Pa cad, Trace.

For sands with analyses comparable with the above, no discoloration is attempted in manufacturing plate glass.

In the following tables are given analyses of the principal glass sands of the United States, as well as analyses of European sands:

Ic

IQKEBAL BESOURCKs.

Analysex of glass

Operator.

Location of mine or quarry.

Constituent.

lesia

MilUngton White Sand Co . Ottawa SiUca Co

U.S. Silica Co

Wedron White Sand Co

American Window Glass Co. Western Silica Co

Hooder Glass Sand Co.

Berkshire Glass Sand Co

Do

Do

Tavern Rock Sand Co

Downer Silica Mining Co.

Do

Diamond Rock Sand Co. .

National Sand Co

P.Arnold ,

Detweiler Sand Co ,

Do.

MilUngton, Randall County, 111 . Ottawa, Lasalle County, 111

American Window Glass Co

Fitzpatrick Glass Manufacturing Co. Berkeley Sand Co

Potomac White Sand Co

Mountain State Silica Sand Co ... . Decker Creek Stone and Sand Co .

South Ottawa, Lasalle County, 111 . . . Wedron, Lasalle County, III

Wolcott, White County, Ind

Attica, Fountain County, Ind

Coxville, Parke County, Ind

Cheshire, Berkshire County, Mass . do

.do.

Klondike, St. Charles County, Mo ... .

Downer, Gloucester County, N.J

do

Hanover, Burlington County, n! J

Chalfants, Perry County, Ohio

Strasburg, Tuscarawas County, Ohio. Columbia, Lancaster County, Pa

.do.

Deny, Westmoreland County, Pa

Falls Creek, Jefferson County, Pa

Berkeley Springs, Morgan County,

W.Va. Greenspring, Hampshire County,

W.Va. McCaulley Station, Randolph County,

W.Va. Sturgisson, Monongalia County,

W.Va.

6FeO.

Ptr cent.

Percent.

Trace.

Trace.

Trace.

Trace.

Trace.

Ic

Glass Hand.

mined in the United States,

Constituent.

Oxide of

Alumina

Lime

Other.

Total.

Authority.

Percent,

Per cent.

Per vnt.

Per denim

O.M

Trace.

f a. 02

Trace.

trace; loss, 0.2.

Chlorine, 0.0054 ..

Moisture, 0.60. .

Moisture and loss,

Moisture, 0.17; cobalt, none.

Moisture, 0.11.

Per cent,

Prof. A. W. Smith, Case School Applied

Science, Cleveland, Ohio. Prof. R. £. Lyons, Indiana University,

Bloomington, Ind. R. W. Hunt & Co., Chicago, 111. Cary & Moore, Chicago, 111.

Dr. Otto Wuth, Pittsburg, Pa.

State geologist of Indiana.

Rose Polytechnic Institute, Terre Haute, Ind.

8. Dana Hayes, State assayer, Boston, Mass.

Prof. Leonard P. Kinnicutt, Worcester PolytechnicInstitute,Worce8ter,MasB. Do.

Regis Chauvenet A Bro., St. Louis, Mo.

New Jersey State Geologist Cook.

Whitney Glass Works, Glassboro, N. J.

Booth, Blair, PhiladelphiaPa.

Professor Horton, Columbus, Ohio.

Dr. Otto Wuth, Pittsburg. Pa.

Henry C. Deming, Hanisburg, Pa.

Pennsylvania Steel Co., Steelton, Pa. Dr. Otto Wuth, Pitteburg, Pa.

Do. Pittsburg Testing Laboratory, Pittsburg, Pa. F. T. Ashman & Co., Pittsburg, Pa.

Wheeling Chemical Laboratory, Wheeling, W.Va,

B. H. Hite, chemist, West Virginia Experiment Station.

c Analysis before sand was cleaned.

Ic

Mineral Be80Ur0E8.

Analyses of European glass sands.

France.

Kofirland.

Germany.

Lerliton

Alum Bay.

Hohen-

Bilioa

Percent

Peroad.

Wme .

Mivnfwift ,

MAiuranme

Trace.

Gftrbonntfi of lime

MagnesU and Besqniozlde of

Water

iitrtiiift. magncfrfa, and SMQuioxide of Iron

Phoqphonu

Lom

Total

a Authority: H. Chance, b Authority: Spon.

o Authority: Julius Fahdt d Authority: Blachof.

Ic

Index.

Abn8iyematerial8,b7 Joseph Hyde Pratt. 873-890

Acid steel, production by States 96

Adamite 890

Adams, George 1., paper on gypeom 908-918

Africa, almandite 889

apatite 868

beryl 835

copper 198-199

petroleum 609

Agate, Borgia, Chaldean ax 852

Alabama, bauxite production 235-286

brickandtlle 719

cement, slag 785

review of 789

clay products 707

clay, raw 747

coal 299, 847, 84*-358

coke 453,463,473

gold 125,127

graphite 976

infusorial earth 881

iron ores 43, 57, 67, 68

limestone 698

manganese ores 133-184

marble 693

mica 985

mineral waters 996

petroleum 667

phosphate rock 918

pig iron 86,87,88

pottery 734,788

pozzuolana, or slag cement 785

sandstone 684

silver 126, 127

stone 669

tripoli 881

turquoise 856

Alaska, coal 299,353

copper 181

epidote 847

gold 123, 125, 127

lead 206,207

marble 608

petroleum 582

platinum :'. 289

precious stones 847

silver 126,127

Algeria, antimony 276

copper 198

gypsum 918

iron ores 69,70,101,119

petroleum 609

phosphate rock 720

salt 431

Page. Allegheny Mountain, Pennsylvania, coke

district 491

Allegheny Valley, Pennsylvania, coke district '. 492

Almandite, German East Africa 839

Aluminum and bauxite, by Joseph 8truthers

231-288

alloys 238

imports 284,236,238

prices 231

production 231-232

salts, producers 287-288

summary 18

uses 281

works in Europe and America 282

world' 8 production 236

Amber, JEtoumania 869

Amblygonite 259

Amethyst, Virginia 851

Ammonia 628

Analyses, almandite 841

amblygonite 260

ash of Australian gold 240

cement 790,798,807,809

glass sand 1012-1016

iron ores. Lake Superior 47-56

lepidolite 260

manganese ores 149

Anthracite-coal, 296

exports 80

imports 80

New Mexico 296

Pennsylvania 414

Anthracite coal strike 289,329,414,420

Antimony, by Joseph Struthera 271-278

alloys 272

consumption 276-276

freight rates on 275

imports 273-276

prices 276-277

production 271-273

salts.. 272

sources of suppl y 271-272

summary 14

Apatite,Africa 858,919

Argentina, borax 895

copper 198

petroleum 688

salt 982

Arizona, bismuth 288

brickandtile 719

clay products 707

clay, raw 747

copper 163,166,175-178

fluorspar 900

Index.

Page.

Arizona, granite 678

gypsum 907

infiuorial earth 882

lead 20ft-207

marble 693

mica 986

niclcel 264

pyrope 837

sandstone 684

silver 126,127

stone 669

turquoise 867

vanadium "287

Arkansas, bauxite 286-286

brick and tile 719

cement, review of 810

clay products 707

coal 299,848,866

granite 678

limestone 698

manganese ores 133-134, 138-189

metallic paint 966

minera 1 waters 996

natural gas 664

novaculite 874

ocher 961

phosphate rock 918

pottery 784, 738

sandstone 684

slate 689

stone 669

whetstones 875

Arsenic, by Joseph Stnithers 279-282

imports 282

prices 282

production 279-281

Ujh5S 282

world's production 281

Arsenious acid, manufactured 282

Arsenious oxide 279,281

summary 19

Asbestos, by Joseph Hyde Pratt 963-966

Canada 96C

imports 966

occurrence, characteristics 963

production 964

summary 21

uses 963

Asphaltum and bituminous rock, by Joseph

Struthers

classification 667

exports 660

from Trinidad 662

production 658-669

in other countries 661-664

summary 21

Australasia, coal 337

copper 199

Australia, coal 841

manganese ores 160-161

opal 856

topaz 836

Austria, cement 785

copper 198

exports to 185

Page.

Austria, graphite 982

magnesite 984

manganese ores 166

quicksilver 268

sulphur 988

rinc 228

Austria-Hungary, antimony 276

asphaltum 664

coal 839

copper 197,198

manganese ores 166-157

importsfrom 144

petroleum 691

salt 931

B.

Ball clay, production by States 747, 762

Barbadoes, asphaltum 661

Barytes, by Joseph Hyde Pratt 946-948

imports 946-948

manufactured 947

occurrence 946

prices 946

production by States 946-946

summary 21

Basic pig iron , production by States 89

Basic steel, production by States 96

BatesviUle district, Arkansas, manganese

ores 189

Bauxite 236-238

consumption 286-237

exports 237

imports 237

production by States 236-236

summary 21

world's production 287

Bavaria, grindstones, imports from 877

graphite 975

Beaver, Pa., coke district 492

Belgium, asphaltum 661

buhrstones, imports from 879

cement 785,786

coal 101,122.839

copper, exports to 185

iron ores 69,101,120

manganiferousiron ores 144,162

ocher 966

oilstones and whetstones, 1 mports from . 876

phosphate rock 920

pig iron 120

pyrite 943

steel 101,121

sine, exportsto 226

production 228

Bermuda, salt, exports to 929

Beryl, North Carolina 813

Bessemer pig iron, production by Slates 88

steel, foreign countries 112, 116, 118

ingots and steel rails 92

production 108

rails, production and prices 110

Birkinbine, John, paper on Iron ores 41-73

paper on manganese ores 133-161

Bismuth, by Joseph Struthers 283-284

Index.

Bismuth, imports 284

occurrence 283

prices 28S-2M

summary 14

uses 284

Bituminous rock. {See Asphaltum and bituminous rock.)

Bluestone, production 668

Bohemia, garnet 838

Bolivia, borax 896

copper 198

Bone china, delft, and belleek ware, product 735-740

Borax, by Joseph Struthers 891-896

foreign countries 896-896

imports 893

international combination 895

prices 894

production .". — 892

review of Industry 894-895

summary 19

world's production 895

Borneo, diamond 821

petroleum 615

ruby 834

Bosnia, manganese ores 157

pyrite 943

salt 932

Boston, Mass., coal receipts 345

Brazil, diamond 816

manganese ores 143, 150-151

exports 151

Imports from 143

monazi te 1 003

platinum 241

salt - 932

Brick, common, Hudson River district... 728-729

quantity and value 719

enameled, value 720

fancy or ornamental, value 720

fire, value 720

front, quantity and value 719

prices by States and kinds 730

vitrified paving, quantity and value ... 720

Brick and tile, exports 755

im ports 754

products, by States 719

rank of producing States 726

British Africa, salt, exports to 980

British Australasia, copper, imports from . . 182 salt, exports to 930

British Columbia, copper 194-200

Imports from 182, 184

iron ores 69

platinum 241

British East Indies, manganese ore, import from 143

British Guiana, diamond 822

British Honduras, salt, exports to 930

Britisn North America, cement 786

copper, exports to 185

lead, imports from 213-214

British West Indies, copper, imports from . . 182 phosphate rock 920

Broad Top, Pennsylvania, coke district 492

Bromine, by Joseph Struthers 897-898

production 897

summary 19

Buffalo, N. Y., receipts of Uike Superior

ironores 80

Buhrstones, imports 880

and millstones, imports 880

production 879

sources and kinds 878

summary 19

value 879

Building operations, by cities 706

Building sand 1007

Burma, ruby 881

trade in 833

California, amblygonite 250

antimony 271

borax 892

brick and tile 719

cement, Portland 778

review of 789

chromite 967

clay products 707, 766

clay, raw 747

coal 299,348,358

copper 166, 178

corundum 886

gold 123, 125, 127

granite 678

infusorial earth 881

lead 206-207

lepidolite 269

limestone 698

magnesite 983

manganese ores 1;J3-134, 189-140

marble 698

metall ic paint 956

mica 986,989

mineral waters 996

naturalgas 632,637,661

ocher 951-962

opal 852

petroleum 539,541,580

platinum 239,241

pottery 734,788

precious stones 848,850,852,858

quartz 850

quicksilver 251-26'1

salt 924

sandstone 684

silver 126,127

stone 669

talc 869

trap rock 669

tripoli 881

turquoise 858

Canada, arsenic 279,281

arsenious acid 279,281

asbestos 9C6

asphaltum 661

Index.

Cuiad&, cement 785

chromite 968-969

coal 342

copper 198-199

imports from 182,184

oorundmn 868,888

exports, to England 888

United States 888

diamond 816

graphite 980-981,982

gypsum 913

imports from 910

iron ores 69-70,78

manganese ores 146-146

exports 146

imports from 144

natural gas 633.685,654-665

nickel 263-264,270

production 267

ocher 966

petroleum 684

phosphate rock 920

pig iron 97-98

platium 241

pyrite 941-943

salt 982

exports to 929

importsfrom 929

steel 98-99

sulphur 968

talc 872

sine, exportsto 226

CapeColony, coal 840

copper 167,198

salt 982

Carborundum 888

production 1 889

summary .18

Cement, introduction 777-788

kiln report 787

Portland, development of industry 779

imports, by countries 786

production 778

relation of domestic production to

importation 780-782

diagramof 781

pozzuolana, or slag 786

production by States 785

in Canada 786

natural rock, production, by States 788

processes of manufacture 787

summary 17

Cement industry, review of, by L. L. Kimball 789-812

Census, Twelfth 11,38-39

Central America, quicksilver, exports to. . . 257

salt, exports to 930

Ceylon, graphite 975,982

salt 982

Chalcedony, New South Wales 852

Chicago, 111., coal receipts 345

wire nails, average monthly prices 83

Chile, borax 895,896

coal 887

copper 184,196

Page.

Chile, manganese ores 148,151

exports 161

imports 148

aalt 932

China and porcelain, exports 765

imports 764

product, value 785,738,740

China, antimony 276

coal 887

petroleum 626

quicksilver, exports to 257

salt, exportsto 980.962

Chromic iron ore, summary 21

Chromite, or chromic iron ore. by Joseph

Canadian chromite 969

conditions 967

imports 968-969

production 967-968

Chrysoprase, North Carolina 862

Cincinnati, Ohio, coal receipts 846

Cinnabar 251

Clay 10

imports '. 763

mined, by States and varieties 747, 762

products 10

valueof 707

exports 766

rank of States in production 716

in value 717

value, by kinds 710, 713, 747, 782

by States 709,747

summary 17

Clay-working industries, by Jefferson Middleton

703-T76

Clays, effect of tannin on 775

Clearfield Center, Pa. , coke district 498

Cleveland, Ohio, coal receipts 845

Coal, by Edward W. Parker 289-447

anthracite 288

Colorado 296

comparative decline in production. 845

exports 80

imports 80

New Mexico 296

Pennsylvania production 81, 296, 847

classification of, by States 315-317

conditions 289

consumed in manufacture of coke... 458,464

exports 80,381

fields, method of division 291-295

fuels, artificial S28

imports 80,331

in foreign countries. . 101, 110, 115. 118. 122. 337

labor statistics, by States 318-821

troubles 329

machine-mined, by States 325

made into coke 298-299

. manufactured fuel 828

mining accidents 321

prices 328

production 101-102,293.296-304

andshipments 81

by States 298-301,346-447

from earliest times 304,818

Vic

Index.

Goal, rank among coal-producing conn tries . 290

of producing States 314-316

receipts at principal cities 346

relative importance of various fields. . . 294

shipments 81-82

from Pennsylvania mines 81

statistics of 101-122

men employed 297

mining machines 297

strikes, by States 880

summary 16

tarifih 881

trade review 343

transportation, lack of 289-290

units of measurement 291

world's production 887

Coal tar, production 626

rankof Sta'tes 826

Cobaltoxide, imports 268

production 266

summary 21

Coke, by Edward W.Parker 449-615

by districts. West Virginia 609-616

by-product, manufacture 471

ovens, Newton-Chambers 472

Otto-Hoilman 472

Schniewind 472

Semetr-Solvay 472

coal, used in making 451,453,464,466

character of coal used in manufacture . 470

condition of industry 449-450, 454

Oonnellsville, Pa., district 80, 493

prices 81,497

shipments 81,496

exports 81,472

Imports 81,472

number of establishments since 1850.. .. 465

ovens built and building 451, 457-168

production 10, 101-102, 450-156, 458

by districts in Pennsylvania 489

by States 458,473

ingasworks 626

rankof States in prtKiuftion 462

shipments 81-82

summary 15

value at ovens 451, 458, 460

yield of coal in coke 467

Colombia, asphaltum 661

coal 837

iron ores 69

manganese ores 143,147-149

platinum 241

salt, exports to 980

Colorado, bismuth , 283

brickandtile 719

cement, PorUand 778

review of 791

clay products 707

clay, raw 747

coal 299,848,359

anthracite 296

copper 166

gold 123,125,127

Colorado, granite 678

gypsum 907

iron ores 43,68,67,68

lead 206-207,210

limestone 698

manganiferous ores 136-186, 137, 140

mica 985

mineral waters 996

natural gas 632,637

petroleum 539,541,562

pig iron 86-87

platinum 239

pottery 734,738

sandstone 684

silver 126,127

stone 669

tungsten 286

uranium 287

vanadium .'. 287

inc 221

Conneant, Ohio, Lake Superior iron ores,

receipts 80

Connecticut, barytes 916

brickandtile 719

clay products 707,767

clay,raw 747

corundum 831 , 886

easonite 837

feldspar 978

flint 972

granite 678

iron ores 43,59,67,68

limestone 698

marble 693

mica 985

mineral waters 996

piglron 86,87

pottery 734,738

quartz, crystalline 883

sandstone 684

stone 669

tourmaline 841

trap rock... 669

tungsten 286

Connellsville, Pa., coke 81,493

average prices 81

shipments 101-103,496

Coons, A. T., paper on glass sand 1007-1016

Copper, by Charles Kirchhoif 163-203

Austria-Hungary 197

conditions 163

consumption 188

English trade 191-193

exports 168,184-186

by countries 185,193

by ports 186

foreign countries 199, 208

reporting mines 167

French trade 196-197

German trade 194-196

imports 182-184

by countries 182-184

Italy 197

Lake Superior di;trict, production by

mines 168

Ic

Index.

Page.

Copper, market 190

mines and operations 168-182

prices 188-190

In England 188-190

production by States and districts . . . 163-166

monthly 167

Russia 197

summary 13

supply 187

world's production 198-199

Cornwall iron ore, production 104

Corundum and emery 886

condition of industry 886

imports 887

production 886

summar>' 18

value 886

Corundum, artificial 890

California 886

Canada 888

Connecticut 886

gems 82-834

Montana 885

North Carolina 885

Cripple Creek district, Colorado, gold 128

Crushed steel, production 889

summary 18

Cryolite 901

imports 902

occurrence 901

uses 901-902

Crystalline quartz 888

Cube:

asphal tum 661

copper, importsfrom 182

iron ores 72-73, 101

imports from 69

shipments from 73, 106

manganese ores 147

importsfrom 148

salt, exports to 930

Cut nails 88

Cyprus, gypsum 918

ocher 966

D.

Delaware, brick and tile 719

clay products 707

clay, raw 747

flint 971

granite 678

stone 669

Diamond, Borneo 824

Brazil 816

Canada 816

Quiana 822

India 823

Indiana 814

New South Wales 824

Queensland 826

Siberia 827

Wisconsin 816

Diamond-cutting industry 861

Page. District of Columbia:

brick and tile 719

clay products 707

mineral waters 996

pottery 784, 738

Dop, new, for diamonds 863

Draintile, value 720

Dutch East Indies, petroleum 611

Dutch West Indies, asphaltum 661

E.

Earthenware and stoneware, exports 756

Imports 754

red, production 734, 788, 740

East Liverpool, Ohio, pottery production . . 745

Electrical supplies, porcelain 736, 748

Emery, imports 887

Engine sand production 1007

England, arsenic 279-280

copper trade 191-198

grindstones, imports from 877

jet 860

natural gas 655

sulphur 988

Epidote, Alaska 847

Erie, Pa., receipts of Lake Superior iron ores 80

Essonite, Connecticut 887

Exports, agricultural implements 77

asphaltum 660

bauxite 237

cement 782

clay products 756

coal 80,881

coke 81,472

copper 168,184-186

from foreign countries 193, 196

earthen and stone ware 755

graph! te 978

grindstones 878

iron and steel 76-77

iron ores 71-72

lead 218

manganese ores, from foreign countries 146,147,155,168-160

nickel 269-270

oilstones and scythestoncs 876

petroleum 548, 612, 627

pottery 756

pyrite 940

quicksilver 257-258

salt 928

slate 680

stone 675

sulphur, from Sicily 936

uranium and vanadium 288

zinc 224-226

Feldspar 972

production 972-978

by States 972

summary 22

Fergana, Central Asia, petroleum 591

Ferromanganese, production 89

Ic

Index.

Paget.

Fertilizers of al 1 kinds, imported 919

Fibroustalc, summary 22

Fire clay, production, by States 747

Flreprooflng, value 721

Flint and feldspar, by Heinrich RIch 971-973

production, by States 972

summary 22

Florida, brick and tile 719

cement, review of 810

clay productjt 707

clay, raw 747

limestone 698

mineral waters 996

phosphate rock 915, 918

pottery 731,738

stone 669

Fluorspar and cryolite, ly Jusepli Hyde

Pratt 899-902

occurrence 899

production 899-900

summary 20

uses 901

France, aluminum 236

antimony 276

asphaltum 661, 664

bauxite 237

buhrstones, imports from 879

cement 785-786

coal 101,118,339

copper, exports to 186, 193

imports from 182

trade 19ft-197

gypsum 911,913

iron ores 69,101,116-117

lignite 118

manganese ores 162-153

imports from 144

nickel 264,270

ocher 955

oilstones, imports from 875

phosphate rock 920

pig iron 111,119

pyrite 943

salt 931

steel 101,117,118

sulphur 938

zinc 226-228

French Africa, copper 19S

ironore 6'

French Oceania, salt, exports to 930

French West Indies, manganese ores, imports from 11 [

Fuller's earth, summary 22

Furnaces in blast 92

Furnace flux 701

Fumacesand, production 1007

a.

Galicia, petroleum, production and consumption 591-595

summary 18

value 884

Gas, production by States 522

I*age. a&s, (;oke, tar, and ammonia, by K. W.

Parker 517533

conditions 517

production of, ammonia 528

coal tar 526

coke 624

gas , 619

production and value, aggratc 631

summary 16

Georgia, asbestos 964

bary tes 946

bauxite, production 236-236

brick and tile 719

cement rock 783

review of 810

clay products 707, 768

clay, raw 747

coal 299,347,363

coke 453,463,477

gold 126,127

granite 678

infusorial earth 881

Iron ores 43, 58, 67, 68

limestone 698

manganese ores 133-134, 140-141

marble 693

mica 986,989

mineral waters 996

ocher 951-962

pig iron '. 86, 88

platinum 240

pottery 734,788

sandstone 684

silver 126,127

slate 689

stone 669

talc 869

tripoli 881

umber 961

Germany, antimony 276

arsenic 279, 281

asphaltum 661,664

bary tes 946

borax 895

buhrstones, imports from 879

cement 786-786

coal 101,115,388

copper 167, 194-196, 198, 202-203

consumption of 194

exports to 185

from 196

importisfrom 182,184

production 195

sources 195

graphite 982

gypsum 913

iron and steel 101

iron ores 41,69, 101. 113-114

lead, imports from 213-214

manganese ores 163-154

imports from 144

nickel 270

ocher 965

oilstones and whetstones, imports from . 875

Gennany, petroleum 600

pigiron 114-115

pyrite 943

salt 931

Bteel 101,115-116

sulphur 938

turquolae 858

rinc, exports to 226

Glass sand, by A. T. Coons 1007-1016

analyses 1012-1016

occurrence, by States 1008-1011

production, byStates , 1007

requirements 1011

summary 22

Gold 123

Colorado, Cripple Creek district 128

production by States 125

summary 18

Gold and silver, by George E. Roberts 123-131

distribution, by States, and sources of

production 126,127

production since 1792 124-125

Q rani te, graphic 860

production 678

Graphite, by Joseph Struthers 975-982

artificial 979

Canada 980-981

imports 978

occurrence 976

principal manufacturers 977

production 976-978

summary 22

world's production 982

Great Britain, aluminum 235

arsenic 279, 281

asphaltum 661

bauxite 237

coal 101,111,838

copper, exports 191-193, 198

imports 191-193

gypsum 911,913

iron and steel output 101, 111 , 112-113

iron ores, production 69, 112

maganif erous iron ores 152

petroleum 605

salt 929,931

steel 112-113

zinc 226,228

Greece, iron ores 69

magneslte 964

imports from 144

salt 932

sulphur 938

Greenland, cryolite 901

Greensburg, Pa., coke district 498

Grindstones, exports 878

imports 877

production 876-877

summary 18

Grooving diamonds 863

Guano 919

Guiana, diamond 822

Gypsum, by Geoige I. Adams 903-913

Canada, exports 911

imports 910-912

Pa*r&

Gypsum, production, by kinds 903-905

summary 20

world's production 912-4X8

H.

Hawaiian Islands, clay products 707

petroleum, exports to 627

pumice 881

salt, exports to 930

stone 669.684

Hemphill, A. J., quoted on production of

coal 82

Herzegovina, manganese ores 157

pyrite 943

wit 932

Holland, coal 840

sine 228

Holmes, Joseph A., paper on mica 985-991

Honduras, quicksilver, exports to 257

Huelva, manganese ores, exports 165

Hudson River district, common brick 728

Hungary, antimony 276

arsenic 279

copper 198

manganese ores 166

pyrite 943

sulphur 938

Idaho, brick and tile 719

clay products . . . 707

coal 299,348,364

copper 166

gold 128, 125,127

gran i te 678

lead : 206-207,209

limetiitone 698

marble 693

mica 985,989

nickel 268

opal 853

platinum 239

sandstone 684

silver 126,127

stone 669

sulphur 963

Illinois, brick and tile 719

cement, Portland 778

rock 783

slag 786

review of 792

clay products 707,769

clay, raw 747

coal 299,347,365

coke , 453,463,616

fluorspar 899-900

glass sand 1008

lead 20fr-207

limestone 698

metallic paint 965

mineral waters 996

natural gaa 632, 637, 653

ocher 951

open-hearth sterl 95

petroleum 587,641

Ic

Index.

Face.

IlUnois, pig iron 86,87

pottery 784,788

pozzuolana, or Blag cement 785

sandstone 684

sienna 961

stone 669

umber 961

sine 217-218

Imports, aluminum 234-285,288

antimony 278-275

arsenic 282

asbestos 965

aspbaltnm : 660

barytes 946-948

bauxite 287

bismuth 284

borax 898

buhrstones and millstones 880

cement 780-782,786

china and porcelain 754

chromite 968

clay 758

coal 80.831

coal-tar products 588

cobalt oxide 268

coke 472

copper 182-184,192

byoountries 182

Into France 193,196

Germany 196

corundum 887

cryolite 902

earthen and stone ware 754

emery 887

graphite 978

grindstones 877-878

Infusorial earth 883

iron and steel 75-76

iron ores 68-71,77,105

from Cuba 60,78

by customs districts 70-71,77

kaolin or china clay 753

lead 212-214

llthaige 960

llthiumsalts 261

magnedte 984

manganese ores, by countries 143-144

by customs districts 144

mica 990

mineral waters 1002

monazite , 1006

nickel 268-269

ocher 953

orange mineral 960

phosphate rock 919

platinum 242

precious stones 865

pumice 881

pyrlte 940

quicksilver 256

red lead 960

salt 925

M B 1902 66

Page.

Imports, sienna 964

stone 674

sulphur 987

by countries and by customs districts 988

talc 872

tungsten 286

umber 954

uranium and vanadium 288

whetstones and oilstones 875

white lead 980

sine 222-228

oidde 228,961

India, borax. 896

coal 842

diamond - 823

graphite 982

gypsum 918

manganese ores 150

exportsfrom 150

petroleum 623

salt 931

Indiana, brickandtUe 719

cement, Portland 778

cement, rock 783

review of 793

clay products 707,760

clay, raw 747

coal 299,347,370

coke 463,463,516

diamond 813

glass sand 1007-1009

limestone 698

mineral waters 996

natural gas 682,637,641

open-hearth steel castings 96

petroleum 589,541

pottery 734,788

sandstone 684

stone 669

whetstones 875

sine 217-218

Indian Territory, brick and tile 719

clay products 707

coal 299,348,373

coke 458,463,478

granite 678

marble 669

natural gas 632

petroleum 539

stone 669

Infusorial earth and tripoli 881-83

occurrence and uses 881

production 883

summary 18

value 888

Iowa, brick and tile 719

cement, review of 810

clay products 707,761

coal 299,348,874

gypsum 906,907

lead 206-207

limestone 698

metallic paint 955

mineral waters 996

Pg i tiz'ed by' vii D O QiC

Index.

Paipe.

Iowa, pottery 734,738

andstone 684

stone 670

Iridium 239,242

Iron, avera monthly prices 82

prices 84,107-108

Iron and steel, conditions 75

exports 77

agricultural implements 77

foreign countries 101, 110, 112, 115, 119

imports 76-76

Increased demand 75

prices, average monthly 82

yearly 84

shipbuilding 96-97

summary 12

Iron ores, by John Birkinbine 41-78

Cuba 72

shipments from 78,101

exports 71

by customs districts 72

foreign countries . 101, 112, 118, 114, lie, 119, 120

Germany, production 41

imports 68-71,106

by countries 09

by customs districts 70-71,77-78

largest contributors 69-70,78

industry by States 6659

Lake Superior region 46-56

analyses 47-66

largest shippers 80

production by ranges 45-46

shipments 64,104-105

shipments by ports; 78-79

byranges 78-79

largest production 41

Luxemburg, production 41

production 41-12,103-104

by classes 44

by States 43

by varieties 42-43

prominent producers 59-62

receipts at Lake Erie ports 65,79-80

record of ore docks on Great Lakes 53

stotistlcs 121-122

stocks at lower lake ports 65-66

summary 12

transportation of ores 62

value, byStates 66-67

Irwin, Pa., coke district 498

Italy, antimony 276

arsenic 281

asphaltum 661,664

borax 895,896

coal : 843

copper 198

exportsto 185

graphite 982

iron ores 69

manganeseores 154-155

oilstones, imports from 875

petroleum 602

pyrite 943

quicksilver 258

Italy, salt 1I

Imports from 929

sulphur 935,988

zinc, production of 228

J.

Jadelte, Mexico 847

Japan, arsenic 282

coal 839

copper 198

importsfrom 182

graphite 982

manganese ores 159-160

exportsfrom 160

Importsfrom 143

petroleum 619

salt 981

exportsto 980

sulphur 938

Java, manganese ores 160

petroleum 615

Jet, England 860

Joplin-Galena district, lead 209

dnc 219-220

K.

Kanawha, W. Va., coke district 510, 511

Kansas, brickand tile 719

cement, Portland 778

cement, rock 783

review of 792

clay products 707

coal 299,348,378

coke 458,463,479

granite 677

gypsum 906-907

lead 206-207

limestone 096

mineral waters 996

natural gas 682,637,649

petroleum 539,541,567

pottery 784,788

salt 924

sandstone 684

stone 670

zinc 217-218

Kaolin, or china clay, imports 753

production, by States 747

Kemp, J. F., paper on platinum in Rambler

Kentucky, brickand tile 719

cement, rock 783

review of 798

clay products 707,762

clay, raw 747

coal 299,347,380

coke 463,463,480

fluorspar 900-901

iron ores 43,58,67,68

lead 206-207

limestone 698

mineral waters 990

natural gas 632,637,661

petroleum 537,541

pig iron 86,87

pottery 784,788

Ic

Page.

Kentucky, sandstone 684

stone 670

whetstones 876

Kimball, L. L., credit for paper on cement. 777 review of cement industry in United

Kirchhoff, Charles, paper on copper 168-208

paper on lead 206-216

paper on zinc 217-229

Korea, petroleum 627

Kun2, George F., paper on precionsstones. 818-865 Kunzite. Calif omia 848

Lake Erie ports, iron ores 66,79

Lake Superior, copper, production 168-166

by mines 166,168

Iron ores 46-66

analyses 47-66

prices 66

production by ranges 46

shipments 64,78-79,104-106

manganif erous ores 186-186

nickel 264

Lazulite 869

Lead, by Charles Kirchhoff 206-216

conditions 206

consumption 210-212

contents of ores, by States 206-208

desllverlsed 207-208

domestic products 209-210

exports 218

from foreign ores 208

hard 208,271-273

imports 212-216

by countries 218-214

warehouse transactions 210,214

Joplin-Galena district 209

prices 216-216

production 206-208

of refined 208

soft 208

sources 218-214

sublimed 962

summary 18

Lebanon Valley Pa., coke district 600

Lepidolite, occurrence 260

Lignite, in foreign countries 115, 118

Limestone, for iron flux 92,701

production, by States 696

summary 22

value of product 700

Linseed oil, prices 961

Lipari, pumice, imports from 881

Litharge, Imports 960

production 10t968

Lithium, by Joseph Hyde Pratt 269-261

ambljrgonite 269

analyses 260

Imports 261

production 261

salts, manufacturers of 261

imports of 261

Id 26-260

Page.

Lithium, summary 14

uses 200-261

Louisiana, brickandtile 719

clay products 707

mineral waters 996

petroleum 689,641,667

pottery 784,788

sulphur 988

Lower Connellsyille, Pa., ooke district 499

Luxemburg, cement 786

coal and lignite 116

iron ores, production 41,118-114

pig iron 114-116

steel 115-116

M.

Madagascar, lazulite 860

Magnesite, by Joseph Struthers 988-064

consumption 984

imports 964

production 968

summary 28

uses 984

Maine, brick and tile 719

clay products 707

copper 166

feldspar 978

flint 972

granite 078

limestone 698

mica 986,988

mineral waters 996

molybdenum 286

pottery 784,788

slate 689

smoky quartz 861

stone 670

Manganese ores, by John Birkinbine 188-161

analyses 149

domestio and imported 146

exports, from Brazil 161

Canada 146

Chile 151

Cuba 147

India 150

Japan 160

imports 148-145

by customs districts 144

production 185,188

by foreign countries 145-161

shipments from Colombia 148

summary 12,188

use of , in steel industry 142-148

world's production 161

Manganif eros ores, iron 188

Belgium 162

Great Britain 162

Italy 154-156

Lake Superior region 136-186

Production by States 136-186

summary 18

zinc 187-188

Marble, production and value 696

Index.

Maryland, brick and tUe 719

cement, rock 788

cement, slag 785

reyiewof 796

day products 708,768

clay, raw 747

coal 81,299,847,886

coke, oyena building 468,468

flint 972

gold 128,126,127

granite 678

infusorial earth 881

iron ores 48,58,67,68

limestone 698

marble 698

metaUic paint 956

mineral waters 996

pig iron 86,87,88

platinum 240

pottery 784,788

poKzuolana, or slag cement 785

sandstone 684

slate 689

stone 670

talc 869

Massachusetts, asbestos 964

brlckandtile 719

clay products 707,764

clay, raw 747

coke 458,514

emery 886

feldspar 973

flint 972

glass sand 1007,1009

granite 678

iron ores 48,50,67,68

limestone 698

marble 698

mineral waters '. 996

pig iron 86

pottery 784,738

sandstone 684

slate 689

stone 670

talc 869

trap rock 670

Metallic paint, occurrence 955

productiou by States 956

Mexico, asphaltum 661

ooal 833

copper 167,182,198,201-202

exportsto 185

importsfrom 182,184

graphite 975,982

gypsum 911

jadeite 847

lead, Imports from 218-214

quicksilyer, exports to 257

sal< exports to 980

zinc, exportsto 225

Mica, by Joseph A. Holmes 98&-991

imports 990

Mica, occurrence 985

production by States 980

summary 28

Michigan, brick and tUe 719

bromine 897

cement, Portland 778

clay products 707,786

day, raw 747

ooal 299,847,869

coke 458,463,514

gold 126

graphite 977

grindstones 877

gypsum 906-907

Iron ores 48,67,07,68

limestone 608

manganese ores 188-184

mineral waters 996

nickel 269

petroleum 689,641,666

pigiron 86,88

pottery 784,788

salt 924

sandstone 684

stone 670

whetstones 876

Middleton, Jefferson, paper on day-working

industries 703-776

Millstones and buhrstones, summary 19

Milwaukee, Wia, coal reodpto 845

Mineral paints, by Joseph Struthen 949-68

production 949-960

summary 21

Mineral products of United States, tables.. 24-80

Mineral waters, imports 1002

production by States 996-096

geographic divisions 997

summary. 28

Minnesota, brick and tile 719

cement, rock 788

reyiewof 796

day products 707,766

iron ores 48,56,67,68

limestone 686

mineral waters 996

pigiron 86,87

pottery 784,788

sandstone 684

slate 689

stone 670

Mississippi, brick and tile 719

clay products 707

mineral waters 996

pottery 784,788

Missouri, barytes 946

brickandtile 719

bromine 807

cement 811

clay products 707,767

clay, raw 747

ooal 299,848,802

coke 458,481,488

Ikdxz.

Page.

MiflBonri, flrnmite 678

infiuorial earth 881

lead 206-207,209

manganese ores 188-184

marble 093

metallic paint 966

mica 985

mineral waters 996

natural gas 632,687,664

nickel 264

ocher 961

petrolemn 680,641,666

pig iron 86,87-88

pottery 784,738

sandstone 684

stone 670

sublimed lead 962

line 217-218

Molybdenmn 286

produrtlon 287

tests 285

uses 285

Monazlte, by Joseph Hyde Pratt 1006-1006

conditions of industry 1003

import 1006

occurrence 1008

production 1006

summary 23

uses 1004

Montana, brick and tUe 719

clay products 707

coal 299,848,896

coke 468,468,482

copper 166,174-175

corundum 886

flint 972

gold 128,128,127

granite 679

graphite 976

grindstones. 877

gypsum 906

iron ores 48,68,67,68

lead 206-207

limestone 696

manganese ores 133-184,141

marble 693

mineral waters 996

petroleum 579

pottery 734,788

precious stones 829

sandstone 684

sapphire 829

stone 670

moroxite 868

mortar colors 966

N.

Natal, coal 340

Natural gas, by F.H.01iphant 681-665

Page.

Natural gas, combined value of gas and

petroleum, by States 684-685

conditions 631

consumption, quantity and value 684

England 666

summary 17

uses 688

value, by States 632

consumed, by States 686-687

of coal and wood displaced 630

well records, by States 638-664

Nebraska, brick and tile 719

cement, rock 788

review of 811

clay products 707

coal 848

limestone 698

pumice / 880

sandstone 684

stone 670

Neilson, William G., quoted on production

of bauxite 286

Nephrite, New South Wales 847

Netherlands, asphaltum 661

copper, exports to 186

iron ores 69

manganese ores, imports from 144

line, exports to 226

Nevada, borax 892

clay products 707

copper 163,166

gold 123.126,127

granite 679

gypsum 907

iron ores 68

lead 208-207

limestone 698

manganese ores 141-142

mica 985,989

nickel 264

petroleum 679

sandstone 684

stone 670

sulphur 983

New Brunswick, gypsum 911

manganese ores, imports from 144

New Caledonia, chiomite 968

nickel 264,270

New England, iron and steel 96,96

Newfoundland, copper 196

production 201

importsfrom 184

iron ores 69

pyrite 948

New Hampshire, brick and tile 719

day products 707

copper 166

granite 679

infusorial earth 881

mica 986,989

mineral waters 996

pottery 784,788

Stone 670

Index.

FBffe.

New Hampflhlre, talc 809

tripoli 881

whetstones 876

New Jersey, brick and tile 719

cement, Portland 778

reyiewof 798

clay, raw 747

coke 463

gtaassand 1007,1009

granite 679

graphite 977

iron ores 48,68,67,68

limestone 698

manganiferons line ores 187-188

mineral waters 990

open-hearth steel 95

pig iron 86-87

pottery 734,738

pouuolana, or slag cement 786

sandstone 684

slate 689

steel. 96-96

stone 670

talc 869

trap rock 670

tripoli 881

sine 221

New Mexico, brick and tile 719

cement, review of 811

clay products 707

coal 299,848,396

anthracite 296

coke 458,463,483

copper 163,166,180

gold 128,126,127

graphite 976

gypsum 907

iron ores ! 43,68,67,68

lead 206-207

marble . 698

mica 965,969

mineral waters 996

petroleum 677

pyrope 837

sandstone 684

silver 126,127

stone 670

New River, W. Va., coke district 610, 512

New South Wales, chaladony 852

coal 841

copper 199

manganese ores 160

nephrite 847

opal 854

petroleum 607

New York, brick and tile 719

cement, Portland 778

review of 797

rock 788

day products 707,769

clay, raw 747

coke 468,468,484,614

emery 886

feldspar 978

flint 972

Page.

New York, glass sand 1007,1010

granite 679

graphite 976

gypeom 906-907

infusorial earth 881

iron ores 43,68,67,68

limestone 696

marble §93

metalUc paint 955-966

mica 985

millstones 879

mineral waters 996

natural gas 632,637,648

open-hearth steel 95

petroleum 639,541

pigiron 86,87,88

pottery 734,788

salt 924

sandstone 684

sienna 961

slate 689

steel 95-96

stone 670

talc, fibrous 870

tourmaline 848

trap rock 670

New York City, tin plates, prices 85

New Zealand, coal 841

manganese ores 160

petroleum 606

Nickel and cobalt, by Joseph Hyde Pratt. 263-270

Nickel, exports

foreign production, by countries 270

imports 268-269

Introduction 263

occurrence 263-264

production 266-266

summary 14

uses 264-265

North Carolina, amethyst and beryl 813

barytes 946

brick and ttle 719

chiomite 968

chrysoprase 862

day products 707

clay, raw 747

coal 299,847,401

corundum 885

garnet, abrasive 884

gem 837

gold 128,126,127

granite 679

graphite 976

iron ores 43,67,67,68

limestone 698

manganese ores 188,184

mica 986,989

millstones 879

mineral waters 996

monasite 1006

nickel 264

phosphate rock 918

pigiron 86,87

platinum 240

pottery 784,738

precious stones 818,887

Ic

Index.

Page.

North Garolina, rhodolite 887

sandstone 684

stone 870

talc 869

North Dakota, brick and tile 719

cement, Portland 778

rock 788

.review of 802

clay products 707

ooal 299,848,402

Norway, copper 198

iron ore 69

nickel 270

phosphate rock 920

pyrite 943

Noyacnlite, Arkansas 874

NovaScotia, gypsom 911

manganese ores, imports from 144

O.

Ocher, imports 958

production, by States 961-962

by countries 964-956

Ohio, brick and tile 719

bromine 898

cement, Portland 778

rock 788

slag 786

review of 808

clay products 707,770

raw 747

coal 299,347,404

coke 463,468,484

glawsand 1007,1010

grindstones 877

gypsum 906-907

iron ores 43,69,67,68

limestone 698

metallic paint 96

mineral waters 996

natural gas 632,637,646

open-hearth steel 96

petroleum 689,641

pig iron 86-88,90-91

pottery 734,738

pozzuolana, or slag cement 786

salt 924

sandstone 684

steel 98, 96-6

stone 670

whetstones 876

Oilstones and scythestones, exports 876

value 874,876

Oilstones and whetstones, summary 19

Oklahoma, brick and tile 719

clay products 707

gypsum 906-907

limestone 698

mineral waters 996

petroleum 539, 641, 666

salt 924

sandstone 684

/ Page.

Oliphant, F. H„ paper on natural gas 631-666

petroleum 636-630

Open-hearth steel castings, production 96-06

Open-hearth steel, production 109

foreign countries 118, 116,118

by States 96-96

Opal 852-856

Orange mineral, imports 960

production 958

Ore docks on Great Lakes 63

Oregon, borax 892

cement, review of 811

clay products 707

coal 299,348,409

copper 181

gold 123, 125, 127

granite 679

gypsum '. 907

lead 208-207

limestone 696

marble 698

mineral waters 996

nickel 268

petroleum 680

platinum 239

pottery 784, 788

quicksilver 256

sandstone 684

stone 670

sulphur 988

Oipiment 282

Osmlridium 241,242

Osocerite 696

P.

Panama, manganese ores 143, 147-149

Parker, Edward W., paper on coal 289-447

paper on coke 449-16

gas, coke, tar, and ammonia 617-688

Peninsula, copper 167

Pennsylvania, brick and tile 719

bromine 898

cement, Portland 778

cement, rock 783

review of 804

clay products 707,771

clay, raw 747

coal 299,347,410

anthracite, by W. W. Ruley 414

bituminous 299,847,420

coke 453,468,486

feldspar 978

flint 972

granite 679

graphite 976

iron ores 43,67,67,68

limestone 686

manganese ores 188-184

marble 693

metallic paint 956-956

millstones 879

Index.

Pace.

FezmsylTania, mineral waten 996

natural gaa 682,687,689

nickel 264

ocher 961-0S2

open-hearth steel 06

petndeum 689,641

plglion 86,88,89-W

phosphate rock 918

pottery 784,738

quartz, crystalline 888

salt 924

sandstone 684

sienna 961

date 689

steel 98-96

Btono ' 670

talc 869

trap rock 670

umber 961

Persia, petroleum 610

Peru, borax 896-896

copper 198-199

petroleum 688

salt 982

Petroleum, hy V. U. OUphant 685-680

Appalachian field 545,666

Canada 584

development of industry 688

exports 548

decreasein 688

important features of the year 585

increased production 636

Lima-Indiana field, Increase 546

percental of production, by fields 586

Peru 588

prices 537

decreasein 687

production by States and fields 539, 542

from 1869 to 1902 548

in countries of the Eastern

nent 689,628

rank of producing States 541

Feigana 591

shale oil, Scotch 605

summary 16

value of petroleum and natural gas 542

wells completed, Increase In 588

wells and stocks in Appalachian and

Lima-Indiana fields 547

world's production 590,628

Philadelphia, Pa., coal receipts 845

Philippine Idands, petroleum 610

salt, exports to 980

Phosphate rock, by Joseph Struthers 915-920

condition of industry 915-916

imports 919

marketed 917

mined 917

production by States and kinds 917-918

summary 20

world's production 920

Pig iron, consumption 91

in foreign countries 110,113,119,120

Pig iron, prices 107-106

according to fuels used 87

by States 86

in Canada 97-06

stocks, unsold 91

Pig lead, prices 960

Pittsburg, Pa., coal receipts 845

coke district 600

steel bars, average monthly prices 84

Platinum, by Joseph Struthers 289-218

imports 242

prices 242

production 289-241

Russia 248

summary 18

world's production 289

Platinum in Rambler mine, by J. F. Kemp, 244-

Rambler mine 244

detail of ore body 248-250

geology 246

Rambler dike 246-248

sttoation 244

topography 244-246

Pocahontas, W. Va., coke 610

Hat Top district 610

shipments 81,101-102

Poland, sine production 228

Porcelain electrical supplies, product. 735, 788, 748

Porcelain ware, product 740

Portland cement, production, by States. . . . 778 (See otoo Cement)

Porto Rico, salt, exports to 980

Portugal, arsenic 282

coal 840

copper . 196

manganese ores 156

pyrlte 94S

Potassium salts 919

Pottery, decorated and plain, product, by

States 784,788,740

consumption 746

establishment, idle and operating 744

exports 766

products 784,788,740

by kinds and States 784

East Liverpool, Ohio 745

rank of prov'ucing States 742

Trenton, N. J 746

Pouuolana, or cement. {See Cement.) Pratt, Joseph Hyde, paper on Abrasive

Materials 878-880

paper on asbestos 968->966

barytes 945-948

chromite or chromic iron ore 967-969

fluor spar and cryolite 899-902

lithium 269-263

monazite 1008-1006

nickel and cobalt 26S-270

strontium, note on 918

talc and soapstone 867-872

tungsten, molybdenum, uranium,

and vanadium 285-288

Precious stones, by Qeoige F. Kuns 818-865

Vic

Index.

Predoofl stones, conditions of InduRtry 818

gem-cutting Industry 861-868

appliances 802-868

Imports 865

prodactlon, byTarletles 814,864

summary 28

Prices, antimony 276-277

arsenic 282

barytes 946

bismuth 288-284

borax 894

brick 780

coal 828

ConnellsvUle, Pa., coke 81,498

copper 188-190

Iron 82,84,107-108

iron ores. Lake Superior 66

lead 216-216

linseed oil 961

lithium minerals 261

magneslte 984

molybdenum 287

monazite 1006

petroleum 587

crude, Appalachian field 645, 655-556

decrease In 587

pig lead 960

platinum 242

steel 82,84

tin plates at New York 85

uianlum and vanadium 287

white lead 960

sine 220,226-227

Prussia, manganese ores 158-154

Pumice, imports 881

localities 880

production 881

sxmimary 19

Pyrite 989

Canadian production 942

oonsamptlon 940

imports 940

production 989-940

ummary 20

world's production, by countries 942

Pyrope 887

Q.

Quariz, Galfomla 850

crystalline, production 888-884

crystallographic features of 850

electrical resistance of 850

noncrystalline 852

smoky, Maine 851

summary 18

value 884

Quebec, copper imports from 182,184

iron ores 69

manganese ores, imports from 144

Queensland, coal 881

copper 199

manganese ores 160

sapphire 829

firooa 886

Page.

Quicksilver, by Joseph Struthers 261-268

exports 257-258

imports 266

prices 265-256

producing companies 251-253

production 251-255

summary 18

world's production 258

B.

Realgar 282

Red earthenware, production 784, 788, 740

Red lead, imports 959

production 10,968

Reynoldsville-Walston, Pa. coke district . . 501

Rhine district, zinc production 228

Rhode Island, brickandtile 719

clay products 707,757

gnmite 679

graphite 977

limestone 698

mica 965,969

mineral waters 996

stone 670

Rhodolite, NorthCarolina 8S7

Ries, Heinrich, paper on flint and feldspar 971-978

note on effect of tannin on clays 775

Roberts, George £., paper on gold and silver 123-181

Rockingham ware, product 734,788,740

Roumania, amber 859

petroleum 597-600

salt 982

Ruby, Borneo 884

Burma 881

under ultra violet light 884

Ruley, W. W., paper on Pennsylvania anthracite 414-420

Russia, asphaltnm 664

coal 339

copper 197,196

exportsto 185

manganese ores 157-158

importsfrom 143

petroleum, condition of industry 589

production 590

phosphatorock 920

platinum 241,248

pyrite 943

quicksilver 258

salt 981

exportsto 930

sulphur 9S8

Rutile, summary 28

S.

St Louis, Mo., coal receipts 345

Salt, by Joseph Struthers 921-932

combination of producers 922

domestic consumption 924

exports 928-930

by countries 929-980

imports 925-929

by countries 929

production, by grades 921-928

Ic

Index.

8alt production, by States 2S-a4

tariibon 928

world's production 980

Sandstone 681

production, by States 684

Sanitary ware, product, value 735, 788, 740

Santiago diatiict, Cuba, manganese ores, exports from 147

Santo Domingo, copper, Imports from 182

salt, exports to 900

Sapphire, Montana 829

Queensland 829

Sawing diamonds 862

Saxony, bismuth 28284

garnet 888

Scotland, grindstones. Imports from 877

Soott, H. K., quoted on manganese ores of

Brazil 160

Seiria, antimony 276

coal 840

Sewerpipe, value 721

Shale oil, Scotch 606

Shipbuilding, iron and steel 96-97

Siberia, beryl 886

diamond 827

Sicily, sulphur, exports €36

Sienna, imports 964

production 9C2

Silesia, sine 228

Silver, production, by States 126

summary 13

Slate, exports 689

by ports and customs districts 690

ground for pigment production 967

production and value, by States 688

Snyder, H. P., quoted on coal and coke in

Oonnellsville, Fa., region.. 81,103

Soapetone, summary 23

South Africa, coal 848

South Australia, manganese ore 161

South Carolina, brick and tile 719

clay products 707

clay, raw 747

gold 128,125,127

granite 679

limestone 696

manganese ore 134,142

mineral waters 996

monazite J006

phosphate rock 916,918

pottery 734,788

silver 126.127

stone 670

Sonth Dakota, brick and tile 719

cement, Portland 778

clayproducts 707

copper 166,181

gold 123,126,127

granite 669

gypsum 906

lead 206-207

Page.

South Dakota, mica 985,989

mineral waters 996

natural gas 632,687,668

sandstone 684

Uver 126,127

spodumene 260

stone 670

Spain, arsenic 280-281

asphaltum 664

coal 842

copper 198,208

iron ores 69-70

manganese ores 166

exportsof 166

importsfrom 144

rock 920

platinum 241

pyrite 948

quicksilver 258

salt 931

sulphur 988

sine 228

Spiegeleisen, production 89

Spodumene, occurrence 259-260, 848-860

Statistics of the American iron trade for

1902, by James M. Swank... 7&-99 Statistics of iron and steel, iron ore, and coal to 1901, inclusive, for flvo leading iron and steel producing countries, by James

M. Swank 101-12

Steel, average monthly prices 82

{See dUo Iron and steel.) bars, average monthly prices at Pittsbun?, Pa 84

castings, production 93,96-96

In foreign countries 101,112,

prices 82-84

production 92-109

by States imd kinds 94-96,96

in Canada 98-99

rails, production 93,110

summary 12

Stone 665-701

classiflcation 666

condition of industry 666

exports 676

imports 674

production by States 667

summary 17

Stoneware clay, production by States 747

Stoneware, product 734,738,740

Stove linings, value 720

Strikes in coal mina 829,830,0

Strontium ores, note on, by Joseph Hyde

Pratt 948

Stmthen, Joseph, paper on aluminum and

bauxite 281-288

paper on antimony 271-278

arsenic 279-283

asphaltum and bituminous rock . 657-664

bismuth 283-284

borax 891-896

bromine 808B8

Ic

Indbx.

Strathen, Joseph, paper on graphite 976-1162

magnefeite 961MI64

mineral paints

phosphate rock 915-030

platinum 289-24S

qnickallver 261-258

salt 921-982

Bolphur and pyrite 968-048

Bnlphur and pyrite, by Joseph Struthets. 968-948

Sulphur, domestic consumption 964

exports from Sicily 966

imports 987

byoountries 988

by customs districts 988

Italy 986

production 988

summary 20

world's production by countries 968

Sumatra, petroleum 618

Summary 11-89

Swank, James M., paper on Statistics of the American iron trade for

Statistics of iron and steel, iron ore, and coal to 1901, inclusive, for five leading iron and steel

producing countries 101-122

Sweden, coal 848

copper 198

graphite 982

iron ores 69

manganese ores 167

pyrite 948

sulphur 968

Switierland, aluminum 285

asphaltom 669

cement 786

salt 982

T.

Talc and soapetone, by Joseph Hyde Pratt. 867-872

Talc, Canadian production 872

fibrous, production 870871

uses 870

imports 872

marketable condition 868

occurrence 867

producers 869

production by States 860

goxnmary 28

uses 867

Tariffs, coal 881

Tasmania, coal 840

copper 190-202

Tennessee, barytes 946

brickandtile 719

cement, rock 788

review of 811

clay products 707

day, raw 747

Ooal 299,847,425

coke 468,468,608

copper 166, 180-181

fluorspar 900

gold 127

Tennessee, iron ores 48,67,67,68

limestone 696

manganese ores 188-184

marble 693

metaUic paint 966-966

mineral waters 996

petroleum 689,641

phosphate rock 916,918

pigiron 86-€8

pottery 784,788

sandstone - 684

stone 670

nnc 221

Tena cotta, ornamental, value 721

Texas, brickandtile 719

cement, Portland 778

cement, rock 788

review of 812

clay products 707,772

day.raw 747

coal 299,848,428

gold 128,126,127

granite 679

gypsum 906-907

iron ores 48,60,67,68

lead 206-207

limestone 696

mineral waters 996

natural gas 682,687,682

petroleum 589,541,667

producing localities 674

Beaumont district 669

Corsicana district 572

Saratoga district 572

Sour Lake district 671

production 576

pigiron 86-87

pottery 784,788

quicksUver SS5

salt m

sandstone 684

stone tfTO

Thurlngla turquoise 886

Tin plates, prices 85

Toledo, Oaio, coal receipts 845

Topaz, West Australia 885

Tourmaline 841-846

origin 845

optical properties 84S

Trap rock, production by States 660

Trenton, N. J., pottery products 745

Trinidad, asphaltum 661-664

exports 662-668

petroleum ftB

Tripoli. {See Infusorial earth. ) Tungsten, molybdenum, uranium, and vanadium, by Joseph Hyde

Pratt 285488

Tungsten, imparts 286

production 286

summary 14

testa 286

Utdex.

Page.

TangBten, uses 285

Turkey, borax 896-896

copper 198

mangimese ores 143

. salt 932

Turkey In Asia, asphaltum 661

chromlte 968

coal 840

manganese ores, imports from 148,159

Turkey in Europe, manganese ores, imports

from 148,159

Turquoise, Alabama 866

Arizona 859

Germany, Thuilngia 858

U.

Ulke, Titus, quoted on nickel refining 265

Umber, imports 964

production 969

United Kingdom, aluminum 285

arsenic 279

bauxite 287

cement 786

copper, exports to 186

importsfrom 182

gypsum 911

iron ore 69

lead, importsfrom 218-214

manganese ores, importsfrom 143

ocher 965

petroleum 606

phosphate rock 920

pyrite 948

salt 981

exportsto 929

importsfrom 929

sine, exports to 226

United States of asphaltum 661

Upper Pa., coke district 602

Upper Monongahela, West Vizginia, coke

district 610,518

Upper Potomac, West Virginia, coke district 510,614

Ural Mountains, graphic granite 860

tourmaline 849

Uranium and vanadium, exports 288

imports 288

occurrence 287

production 287

summary 15

tests 285

uses 287

Utah, brick and tile 719

cement, Portland 778

review of 807

clay products 707

clay, raw 747

coal 299,348,431

coke 463,463,476,506

copper 163,166,178-179

gold 128,125,127

granite 679

gyrpeam 907

iron ores 43,68,67,68

Imd. 206-207,210

Utah, limestone 698

manganese ores 184

manganileiGUS ores 185

marble 698

natural gas 632,668

petroleum 578

pottery 784,788

aalt 924

sandstone 684

silver 125,127

slate 689

stone 670

sulphur 088

uranium 287

vanadium 287

Vanadium summary 15

{See alto Uranium and Vanadium.)

Venetian red, production 967

Venezuela, asphaltum 661,664

iron ores 69

Vermont, asbestos 964

brlckandtile 719

clay products 707

clay, raw 747

copper 166

granite 679

iron ores 43,69,67,68

limestone 699

marble 693

metallic paint 965

millstones 879

mineral waters 996

ocher 961

Blate 688

stone 670

talc 867

whetstones 875

Victoria, coal 842

Violet light, ruby under 884

Virginia, amethyst 861

barytes 946

brlckand tile 719

cement, Portland , 778

cement, rock 788

review of 808

clay products 707,748

coal 299,847.432

coke 463,468,605

copper 166

flint 972

gold 125.127

granite 679

gypsum 906-907

infusorial earth 881

iron ores 43,57,67,68

lead 206-207

limestone 698

manganese ores 188,134,136,142

mica.: 985.969

millstones 879

mineral waters 996

ocher 962

pig iron 86,87-89

pottery 784,788

Ic

Isdsx.

Virginia, sandstone 684

date 689

stone 670

talc 869

tripoli 881

sfiio 221

W.

Waahinn, anenlc 279,281

biickandtlle 719

cement, review of 812

clay pfioducts 707

clay, raw 747

coal 299,348,485

coke 458,468,507

copper 166

gold 128,125,127

granite 679

lead 206-207

limestone 698

marble 698

mineral waters 996

molybdennm 287

nickel 264

petroleum 680

pig iron 86,88

platinum 289

pottery 784,788

sandstone 684

stone 670

West Australia, spodumene 849

West Indies, asphaltnm 661

copper, exports to 185

salt, exports to 930

importsfrom 929

West Virginia, brick and tUe 719

bromine 898

cement, rock 788

review of 888

clay products 707,774

clay, raw 747

coal 81,299,847,437

coke 468,468,607

grindstones 877

iron ores 48,67,67,68

limestone 698

manganese ores 183-134

mineral waters . 996

naturalgasf 682,687,648

petroleum 589,541

pig iron 8ft-7

pottery 784,788

sandstone 684

stone 670

Whetstones, imports 875-876

production 875

summary 19

White granite and semiporcelain ware,

product 784,740

White lead, imports 959

Page.

White lead, production 10,958

Wire nails, average monthly prices at

Chicago,Ill 88

Wisconsin brick and tile 719

cement, rock 783

review of 812

clay products 707,775

clay, raw 747

coke 453,463,514

diamond 815

flint 71

granite 679

iron ores 43,58,67,68

lead 206-207

limestone 698

metallic paint 955

mineral waters 966

ocher 951

pig iron 86-88

pottery 784,788

sandstone 684

stone 670

World's production, aluminum 285

antimony 276

arsenic 281

bauxite 237

borax 895

coal 887

copper 198-199

graphite 982

gypsum 912

manganese ores 161

petroleum 590,628

phosphate rock 920

platinum 239

pyrite 942

quicksilver 268

salt 900

sulphur 938

zinc 228

Wyoming, brick and tile 719

clay products 707

coal 299,848,445

coke 458,463,516

copper 168,166,180

gold 128,125,127

granite 670

graphite 976

grindstones 871

gypsum 908,907

iron ores 48,68,67,68

limestone 698

metallic paint 955

mica 985

nickel 264

petroleum 539,541,568

platinum 240

in Rambler mine 244

sandstone 684

stone 670

Y.

Yellow or Rockingham ware, product,

value 734,738,740

iC

Index.

Z.

ooDflomption 2ia-219

by ooontiieB and customs districts 226-226

JqpUn galena district 219-220

lazgwt prodaoers 228-239

market 226

Page.

Zinc, oxide, imports 228

prices. 220226-227

prodiictloii,by8ta4ai 217-218

summary 18

world's production, by countries 228-229

Zinc lead, production 962

Zinc white, ImportB 961-662

produotioii 10,961

ganmiary 21

Zircon, Queensland 896

Publications Op United States Geological Suryet.

The serial publications of the United States Greological Survey consist of (1) Annual Reports, (2) Monographs, (3) Professional Papers, (4) Bolletins, (5) Mineral Resources, (6) Water-Supply and Irrigation Papers, (7) Topographic Atlas of the United States— folios and separate sheets thereof, (8) Geologic Atlas of the United States — folios thereof. The classes numbered 2, 7, and 8 are sold at cost of publication; the others are distributed free. A circular giving complete lists may be had on application. The list of reports on mineral resources follows:

MIKEBAL SBSOUBCaS.

l£ineialRe80iiic6Bof the United Stetes, 1882, Albert WUliainB Jr., cUef of diytdon. 1888. EP. zvii, 813 pp. Price, 60 cents. Out of stock.

Minend Resonrces of the United States, 1883 and 1884, Albert Williams, jr., chief of division. 1886. eP, xiv, 1016 pp. Price, 60 cents. Out of stock.

Mineral Resources of the United States, 1885. Division of Mininr Statistics and Technology. 1886. 8°. vii, 576 pp. Price, 40 cents.

Mineral Resources of the United States, 1886, David T. Day, chief of division. 1887. 8<'. viii, 818 pp. Price, 50 cents.

Mineral Resources of the United States, 1887, David T. Day, chief of division. 1888. 8°. vii, 882 pp. Price, 50 cents. Out of stock.

MineralResourcesoftheUnitedStates,1888,DavidT.Day, chief of division. 1890. 8. vii, 662 pp. Price, 50 cents.

Mineral Resources of the United States, 1889 and 1890, David T. Day, chief of division. 1892. 8° viii, 671 pp. Price, 60 cents.

Mineral Resources of the United States, 1891, David T. Day, chief of division. 1893. BP, vii, 680 pp. Price, 50 cents.

Mineral Resources of the United States, 1892, David T. Day, chief of division. 1898. 8°. vii, 850 pp. Price, 50 cents.

Mineral Resources of the United States, 1893, David T. Day, chief of division. 1894. 8°. viii, 810 pp. Price, 50 cents.

On March 2, 1895, the following provision was included in an act of Congress:

Provided, That hereafter the report of the mineral resources of the United States shall be issued as a part of the report of the Director of the Geological Survey."

In compliance with this legislation the following reports were published:

Mineral Resources of the United States, 1894, David T. Day, chief of division. 1896. 8°. zv, 646 pp., 23 pis. ; ziz, 735 pp., 6 pis. Being Parts m and IV of the Sixteenth Annual Report. Out of stock.

Mineral Resources of the United States, 1895, David T. Day, chief of division. 1896. 9P, zziii, &12pp., 8 pis. and maps; ill, 543-1058 pp., -13 pis. Being Part III (in 2 vols.) of the Seventeenth Annual Report. Out of stock.

Mineral Resources of the United States, 1896, David T. Day, chief of division. 1897. 8°. zil, 642 pp., 1 pi.; 643-1400 pp. Being Part V (in 2 vols.) of the Eighteenth Annual Report. Out of stock.

Mineral Resources of the United States, 1897, David T. Day, chief of division. 1898. 8. viii, 661 pp., 11 pis.; viii, 706 pp. Being Part VI (in 2 vols.) of the Nineteenth Annual Report. Out of stock.

Mineral Resources of the United States, 1898, David T. Day, chief of division. 1899. 8°. viii, 616 pp.; iz, 804 pp., 1 pi. Being Part VI (in 2 vols.) of the Twentieth Annual Report Out of stock.

Mineral Resources of the United States, 1899, David T. Day, chief of division. 1901. 8°. viii, 656 pp.; viii, 634 pp. Being Part VI (in 2 vols.) of the Twenty-first Annual Report.

By act of approved March 3, 1901, the report on mineral resources was again made a distinct publication. In compliance with this legislation the following reports have been published:

Mineral Resources of the United States, 1900, David T. Day, chief of division. 1901. SP. 927 pp.

Mineral Resources of the United States, 1901, David T. Day, chief of division. 1902. BP. 996 pp.

Mineral Resources of the United States, 1902, David T. Day, chief of division. 1904. 8<'. 1088 pp.

All remittances must be by money order, made payable to the Director of the United States Geological Survey, or in currency— the exact amount Checks, drafts, and postage stamps can not be accepted. Correspondence should be addressed to—

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[Mount each slip upon a separate card, placing the subject at the top of the second slip. The name of the series should not be on the series card, but the additional numbers should be added, as received, to the first entry.]

U. S. Geological survey.

. . . Mineral resources of the United States, calendar jear, 1902. David T. Day, chief of Division of mining and mineral resources. Washington, Gov't print, off.,

1038, III p. illus., 5 pi. 23 J".

U. S. Geological survey.

. . . Mineral resources of the United States, calendar year, 1902. David T. Day. chief of Division of mining f and mineral resources. Washington, Gov't print, off.,

Day, David Talbot.

see, as chief of Division of mining and mineral

i resources, 1886-

U. S. Geological survey.

U. S. Dept. of the Interior. I see also

I U. S. Geological survey.

oc

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