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Growth of the steel trade and

the fall of prices.

railway wheel tires were selling at £90 per ton. The first steel rails, made in 1861, sold at £23 per ton, and in 1870 steel railway bars were sold at £11 to £12 per ton, while steel plates which formerly sold at £50 to £60 per ton were sold in that year at £18. In 1888 the total production of Bessemer steel ingots in Great Britain was 2,012,794 gross tons, of open hearth steel ingots 1,292,742 tons, and of basic steel 408,594 tons, or a total of 3,714,130 tons; while the production of Bessemer steel rails was 979,083 tons, which sold at prices ranging about £4 per ton, or £3 per ton less than the average selling price of iron during the forty years preceding Neilson's invention of the hot air blast.* The Siemens and Siemens-Martin open hearth processes, which stand next in point of success to the Bessemer, are equally deserving of mention with itf; but the facts already presented amply justify the conclusion that the great progress made in the iron industry of the world during the last hundred years has been due in very large part, if not wholly, to the service of invention. Without the contributions of skill and science the state of that industry in Europe and America might still be what it is in the heart of Africa.

* In the United States 1,552,631 net tons of Bessemer and 5,261 tons of open hearth steel rails were produced in 1888, while the total quantity of iron rails was only 14,252 tons. In the previous year the total quantity of steel rails made in that country was 2,373,335 tons, against 23,062 tons of iron rails. Prices in 1888 at the Pennsylvania mills ranged from $27.50 to $31.50 per gross ton. In 1867 the average price was $170, in 1872 $112, in 1877 $45.50, in 1882 $18.50; in 1884 it fell to $31.75.

+ In the opinion of some authorities the open hearth process is believed to produce a material more perfectly uniform in its character than the Bessemer process, and for this reason open hearth steel was selected for the construction of the great bridge crossing the frith of Forth.

Professor Leone Levi's testimony of the service of invention to iron-making is very emphatic. He says: "In 1788 the iron make of Great Britain was only 68,000 tons per annuin. But immense improvements have been introduced since then. By opening new localities, by reducing the expense of fuel, by employing the cheapest material, by utilising the gases and waste heat of the blast and puddling furnaces, by modifying the character of the furnaces, by economising the wasteful processes of refining, and above all by substituting mechanical for human labor, the production of iron increased enormously, and in 1878 it reached 6,381,000 tons per annum of pig iron, representing a value of £16,155,000, whilst if we take the manufactured iron in bar, sheet and rails the value would be double or treble that amount. (History of British Commerce, 2nd ed., p. 532). The consequence of the inventions introduced by Mushet, Krupp, Bessemer, Siemens, Whitworth and many others, Professor Levi adds, has been a large reduction in the price of steel. "Twenty-five years ago the price of cast steel tires was 120s. per cwt., it is now (1880) from 18s. to 25s. per cwt. The price of forged steel cranked axles was, when first introduced, £15 per cwt., it is now 658. to 70s. per cwt. The price of straight axles and shafts was from 40s. to 50s. per cwt., it is now from 198. 6d. to 23s. per cwt." (p. 533).

James M. Swank, secretary of the American Iron and Steel Association, also says: "During the latter part of the eighteenth century and the whole of the nineteenth century down to the present time no other country has occupied so conspicuous a position in the manufacture of iron and steel as Great Britain. Spain and Germany had in turn been more prominent in the production of these essentials of civilisation, but Great Britain spurned all rivalry when she began to make pig iron with the aid of mineral fuel and her powertul blowing engines. She had abundance of iron ores and mineral coal, and her people had applied to the utilisation of these products their invincible energy and their newly-developed inventive genius. France, Germany and other continental countries might have substitute mineral coal for charcoal, invented the puddling furnace or perfected the rolling mill and the steam engine, but none of them did. To England and Scotland is the world indebted for the inven tions that gave a fresh impetus to the manufacture of iron in the eighteenth century; Huntsman, Darby, Smeaton and Cort were Englishmen, and Watt was a Scotchman; and it is also indebted to the same countries for most of the inventions of the present century, which have further developed the manufacture of iron and increased the demand for it, and which have almost created the manufacture of steel. Stephenson, the Englishman, improved the locomotive in 1815, and in 1825 the first passenger railroad in the world was opened in England, Stephenson's locomotive hauling the trains. Neilson, the Scotchman, invented the hot blast in 1828; Crane, the Englishman, applied it to the manufacture of pig iron with anthracite coal in 1837; Nasmyth, the Scotchman, invented the steam hammer in 1838 and the pile driver in 1843; and Bessemer, the Englishman, invented in 1855 the process which bears his name and is the flower of all metallurgical achievements,-a share in the honor of this invention

FUTURE OF THE IRON INDUSTRY.

aid of invention.

In the century and a half following the discovery of Abraham Darby's process of preparing mineral coal for furnace fuel, during which the annual production of pig iron in Great Britain rose from 17,350 tons to very nearly 8,000,000 tons, the growth of the industry is from first to last the story of the triumphs of man over matter. Without the aid of invention iron-mak- Progress by the ing in that country could hardly have survived the middle of the eighteenth century, while with its aid she has been enabled, until very recently, to produce four times more iron every year than all the world besides. Yet the use of those inventions has been as free and open to iron-workers in all other countries as to the citizens of Great Britain, and not even there have they been more promptly seized upon than by the iron masters and manufacturers of the United States. And if the industry is ever to be built up in Canada our greatest reliance must be upon an intimate knowledge of methods and processes. "Let us develop our appliances and improve our processes with care, prudence and wisdom," Sir James Kitson counsels the British iron men, "then will our progress be sound and secure." This is more necessary in Canada's reCanada even than in Great Britain, seeing that one of our great lacks is in the necessity of men of skill and experience to engage in and carry on the work. In one particular we have an advantage; it will not be necessary to replace one set of costly appliances by another, as iron-workers in Great Britain and the United States have been obliged to do very extensively during the last thirty years, to the great loss of capital employed in the business. We may begin with the best appliances, and with skill and capital we can start upon even

however being fairly due to the co-operating genius of Robert F. Mushet, also an Englishman but of Scotch parentage. The Siemens' regenerative gas furnace, which has been so extensively used in the manufacture of iron and steel, is also an English invention, although the inventors, Sir William and Frederick Siemens, while citizens of England, were natives of Hanover in Germany."-Iron in all Ages, p. 46.

"I must ask you to transport yourselves in imagination to England as it was a century and a quarter ago. We are accustomed to think that, however the life of man may alter, the earth on which he moves must remain the same. But here the revolutions in man's life have stamped themselves upon the face of nature. The great landmarks, the mountain ranges, the river channels, the inlets and estuaries, are for the most part unaltered; nothing else remains the same. For desolate moors and fens, for vast tracts of unenclosed pasturage and masses of woodland, we have now corn-fields and orchards, and crowded cities with their canopies of smoke, Only a few years before the time of which I speak, men complained that half the country was waste. Today we have a struggle to preserve any open land at all. It is to a revolution in three industries, agriculture, cotton and iron, that this transformation is principally due. . . The iron industry, with which the material greatness of England has during the present century been so conspicuously associated, was gradually dying out. Much of the ore was still smelted by charcoal in small furnaces blown by leather bellows worked by oxen. And it was not a trade upon which the nation looked with complacency or pride. On the contrary, it had long been denounced by patriots as the voracious ravager of the woods which furnished timber for our warships, and pamphleteers demanded that we should import all our iron from America where vast forests still remained to be cleared in the interests of agriculture. Not cotton and iron, but wool was considered in those days the great pillar of national prosperity."-Toynbee's Industrial Revolution, pp. 179-81.

"Not only has nearly every important machine and process employed in manufactures been either invented or perfected in this country in the past, but it is not too much to say that most of the prominent new industrial departures of modern times are due to the invenitive power and skill of our countrymen. Amongst these are the great invention of Bessemer for the production of steel in enormous quantities, by which alone, or with its modification by Thomas and Gilchrist, enabling the commonest description of iron to be used for the purpose, steel is now obtained at one-tenth the price of twenty years ago. In the manu

facture of iron and steel we stand preeminent, and we are practically the naval architects of the world. Our technical journals, such as those of the Institutes of Civil and Mechanical Engineers and of the Iron and Steel Institute, are industriously searched and their contents assimilated abroad."-Second Report of the Royal Commissioners on Technical Instruction (1884) vol. 1, pp. 506-7.

quirements, and

beginning right.

The world's requirements as

contemplated by

terms with the iron men of the United States and Great Britain. But we must begin right-with skilled management, the best and most economic appliances, a sufficiency of capital, and not unmindful of the wants of the home market or our trade relations with other countries.

The future of the industry is hardly in doubt; the world is yet far from having reached the limits of its requirements, and for many years to come in Percy and Jeans. Canada, the United States, South America, Australia and Asia the demand for iron products will continue to increase in volume. Writing on this feature of the subject in 1864 Dr. Percy said: "Notwithstanding the marvellous development of the iron trade in this and other countries since the introduction of railways, yet it may be safely affirmed that the uses of iron will be vastly more extended than at present, and that there is no just ground for apprehension lest there should be over-production of this precious metal. Even the railway system is in a state of rapid growth, and the time will come when every habitable part of the earth's surface will be reticulated with iron or steel roads. The day of steel has arrived-but not to the exclusion either of wrought or cast iron; and steel is destined to exercise an important influence on the destinies of the human race."* But Dr. Percy saw only through a glass darkly, as evidenced by his reference to the coming time of iron rails headed with steel. Rails of this class were hardly more than introduced when they gave place to the all-steel rail; and even now steel ships are beginning to take the place of iron and wooden ones on the waters of our great lakes. Jeans in concluding his History of Steel says: "The more the subject of the applications of steel is inquired into, the more does it seem incapable of exhaustion. Great things have been accomplished in the past, but much yet remains in the future. The manufacture of steel is far from finality. Even now some of the leading steel works in France are assaying the production of ingots 100 tons weight. Steel indeed may be compared in reference to its multifarious uses with the elephant's trunk, the adaptability of which enables it with ease to pick up a needle or to pull up a tree. High authorities have expressed the opinion that steel will have the future nearly altogether to itself, displacing copper for fire boxes, etc, silver for articles of ornament and lead for purposes of softness, as much as it is superseding iron in respect of utility, economy and endurance. And as it is difficult to set bounds to the ultimate applications of steel, so is it impossible to limit the means of its production. Recent metallurgical progress has indefinitely increased the resources available for the latter purpose. Science has at last found a method of ridding of their deleterious contents the ores of iron heretofore unsuited for the manufacture of steel, and henceforth if metallurgists of experience are not greatly deceiving themselves the cheapest and the most plentiful ores will, by one of the greatest chemical triumphs of the age, be raised to the same rank as the richer and comparatively limited ores that have alone been deemed fit for the manufacture of steel until now.‡

*Metallurgy of Iron and Steel, p. 890.

+To James Riley, manager of the Glasgow steel works, is due the credit of first using mild steel in the construction of ships, he having built two steel vessels in 1875.

This was written in 1880.

The horizon of the future therefore is not bounded by any limitation of the
supplies of raw material.
Nor is it any more likely to be measured by
the uses of steel, for they are multiplying every day, and as the manufacture
is cheapened and improved so will the applications continue to increase. In
the track of this movement many changes must follow, and have even already
occurred, of which we have been able to take but scant cognizance. The
hard and irksome work of the puddler has been superseded by less arduous,
and in the main by less skilled labor.* One of our greatest authorities has
calculated that to convert fluid cast iron into steel the labor required is only
about one-third of that required to convert pig metal into wrought iron, while
the fuel consumed is only about one-fourth that formerly used.
The economy

of coal is therefore another important corollary of the advance of steel, and
this economy, great though it be in the aggregate, is trifling in comparison
with that accomplished through the greater strength and endurance of that
which we are fully justified in describing as the metal of the future." Fifty
years ago the world's production of iron was about 2,750,000 tons, Great
Britain being credited with 1,120,000 and the United States with 300,000
tons, and in 1888 it had increased to nearly 23,200,000 tons, of which Great
Britain produced in round numbers 8,000,000 and the United States 6,500,000
tons. In 1837 the consumption per capita in the British islands was about Past, present

78 lb. and in 1887 it was reckoned to be 300 lb. In the United States it and future. increased from about 95 lb. in 1860 to 270 lb. in 1880 and probably to 300 lb. in 1888. The consumption of Canada in 1888 did not exceed 100 lb. per capita; yet that is nearly as large as the average for Europe and the United States, and more than double the consumption of the South American states. It is a safe prediction that in less than fifty years the present per capita consumption of iron in the world will be 50 lb., and that the requirements of the United States and Canada alone will be 20,000,000 tons yearly. Iron ore does not grow like forests or grain crops, and every year the world's supply is being reduced by the quantity raised and smelted. Here in Ontario our deposits are for the most part as they came from the hand of nature, and they are believed to be of enormous extent. If we have skill and enterprise and capital we may develop them; we may build up an industry of immense value; we may even take rank as iron manufacturers with our kinsmen across the lakes and beyond the sea.‡

* Few puddlers are able to continue the work after the age of 45 or 50 years.

+ In speaking before the Iron and Steel Institute in May, 1887, Sir Lowthian Bell said: "The United Kingdom consumed, after deducting the iron exported, about 299 lb. per annum per head of its population. The United States followed with 270 lb. But the 319 millions of inhabitants of all Europe and the United States of America only consumed 107 lb., some countries only requiring about 24 lb. ; and the average consumption of the 1,425 millions of people who inhabited the globe was only about 32 lb., or about one-ninth of what was used in the United Kingdom and the United States together. Still more striking was the fact that there were 1,014 millions who used less than 2 lb. of iron per annum, and of these there were 517 millions who managed to exist with a consumption of less than a lb. per individual per annum."-Journal of the Institute, No. 1, 1887, p. 120.

As evidence of the importance of the iron and steel industry in giving employment to workingmen, the following extract is taken from the Pittsburg Dispatch of December, 1888, showing the aggregates of semi-monthly pay-rolls in the iron and steel mills of that city and its suburbs: Commencing with Carnegie Brothers & Co. and Carnegie, Phipps & Co.: They employ about 6,000 men, and pay out every two weeks as follows: At the two Lucy blast furnaces, $8,000; at the Union Mill, Thirty-third street, $30,000; at the Union Iron and Forge Mill, Twenty-ninth street, $25,000; at the Bessemer Steel Mill, Homestead,

24 (M.C.)

COPPER AND NICKEL SMELTING.

The discoveries of extensive ranges of copper and nickel ore in the district lying northward of Georgian bay, and especially the mining and smelting operations carried on in the vicinity of Sudbury, demand notice in this Section of the report. The combination of metals in the ore of those compounds of ranges however is so peculiar that it is yet too early to speak with confi

Treatment of ores carrying

copper and nickel.

dence of the success of works erected to reduce it upon an extensive scale.
"This combination of nickel and copper," as stated by Dr. Peters in his
evidence, "has not been met with before in such quantities as to require separ-
ation in a wholesale way. The only case of the kind in America is the Gap
mine in Pennsylvania, and there they use the old European way of dissolving
in acids, which would never do in our case." At present prices the copper
contents of the ore are only of secondary importance, even assuming that the
separation of the metals from other combinations and from each other can be
accomplished satisfactorily and by an economic method. It is claimed that
such a process has been discovered at the smelting and refining works of Sir
Henry Hussey Vivian at Swansea in Wales, where experiments with the ore
and matte have been carried on for some time; and if it be true, as reported,
that this distinguished metallurgist intends to establish reducing works at
Sudbury to smelt the ore of a mineral property he has recently acquired
$22,000, and at the Edgar Thompson Steel Mill and seven blast furnaces, Braddock,
$70,000; making a total for the Carnegie firms alone of $155,000. Next is the National Tube
Works, at McKeesport. They operate three rolling mills and the largest pipe mill in the
world. They employ 5,000 men and pay out $125,000. Oliver Brothers & Phillips rank at the
head of the third class in paying out money. This firm operates three iron mills and a steel
plant, and gives work to about 3,000 men, paying them $75,000. Jones & Laughlins, operat-
ing the American Iron Works, give work to 3,000 men and their pay roll amounts to
$75,000, but only from $45,000 to $55,000 is said to be paid out in money, the remainder being
taken from the company's store. The Pittsburg Forge and Iron Works gives work to 700
men and pays out $13,000; the Pittsburg Iron Works of J. Painter & Sons, 900 men,
$25,000; Park Bros. & Co,, Black Diamond Steel Works, 1,200 men, $31,000; the Pittsburg
Steel and Casting Company, 300 men, $7,500; the Clinton mill and blast furnace, on the
south side, 550 men, $12,500; A. M. Byers & Co.'s Iron and Pipe Mill, 550 men, $14,500;
Anchor, Nail and Tack Works, Chess, Cook & Co., 400 men, $11,000; Sligo Iron Mill,
Phillips, Nimick & Co., 550 men, $13,000; Sheffield Steel Works, Singer, Nimick & Co., 700
men, $15,500; Glendon Spike Works, Dilworth, Porter & Co., $12,500; Republic Iron
Works, 600 men, $14,500; Elba Iron and Continental Tube Company, at Frankstown, 650
men, $15,000 (the tube mill is at present idle). The Soho Iron and Steel Mill and the
blast furnace of Moorhead, McCleane & Co., 700 men, $15,600; Keystone Rolling Mill, 400
men, $10,000; the Star Iron Mill of Lindsay & McCutcheon, 550 men, $13,500: the La Belle
Steel Mill, 250 men, $8,000; the Kensington Iron Mill of Lloyd, Sons & Co., 250 men,
$7,000; the Wayne Iron and Steel Mill of Brown and Co., 550 men, $14,000; the Juniata
Iron and Steel Mill and two blast furnaces of Shoenberger & Co., 750 men, $20,000; the
steel works of Howe, Brown & Co., 650 men, $18,000; the Sable Iron Works of Zug & Co.,
500 men, $14,000; the Millvale Mill of Graff, Bennett & Co. (which is at present shut down),
675 men, $16,500; the Solar Iron Works of Wm. Clark & Co., 450 men, $9,000. The Fort
Pitt Iron Works, when last operated by Graff, Bennett & Co., gave work to 600 men, who
were paid $50,000; the Vesuvius Iron Mill of Moorhead Bros. & Co., 450 men, $9,000; the
Etna Iron and Pipe Mills of Spang, Chalfant & Co., 650 men, with a pay roll of $16,000 (but
seldom more than $11,000 is paid out in cash, the rest being taken out of the company's store) ; .
the Spang Steel and Iron Company, 350 men, $8,000; the Crescent Steel Works of Miller,
Metcalf, Parkin & Co., 500 men, $15,000. This latter plant is one of the leading steel mills
in the world. The finest grade of steel is made there, which is used for making fine light
shears, needles and clock spring steel. The Linden Steel Mill, 400 men, $12,000; the Oliver
& Roberts Wire Mill, 400 men, $10,000; the Soho Pipe Mill, 300 men, $8,000; the Pennsyl-
vania Tube Works, 700 men, $16,000; the Isabella Furnace Company, 350 men, $8,500; the
Edith Furnace Company, 150 men, $4,000; the Carrie Furnace Company, 150 men, $4,000;
the Eliza Furnace Company, 475 men, $9,500; the Braddock Wire Works, 250 men, $7,500;
the Chartiers Iron and Steel Company, 200 men, $7,000; the Vulcan Forge and Iron Works
at Chartiers, 400 men, $9,000; the Pittsburgh Steel Works at Chartiers, 400 men, $9,000,
and the McKeesport Iron Works of W. D. Wood & Co., 450 men, $11,000." That makes a
total of $939,500 every two weeks. In one year of twenty-five pay days per month, it would
amount to $23,487,500 paid out to 37,350 men who are employed in the manufacture of iron
and steel alone.

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