CHAPTER I

Produced by Al Haines

[Transcriber's note: This book has varying page headers. Those headers

have been collected at the start of each chapter as an introductory

paragraph.]

[Frontispiece: 'The surveyor, often an explorer as well, striking out

into the wilderness in search of mountain pass or lower grade.' From a

colour drawing by C. W. Jefferys]

THE

RAILWAY BUILDERS

A Chronicle of Overland Highways

BY

OSCAR D. SKELTON

TORONTO

GLASGOW, BROOK & COMPANY

1916

_Copyright in all Countries subscribing to

the Berne Convention_

{v}

CONTENTS

Page

I. THE COMING OF THE RAILWAY . . . . . . . . . . . 1

II. EARLY TRAVEL IN CANADA . . . . . . . . . . . . . 13

III. THE CALL FOR THE RAILWAY . . . . . . . . . . . . 27

IV. THE CANADIAN BEGINNINGS . . . . . . . . . . . . 36

V. THE GRAND TRUNK ERA . . . . . . . . . . . . . . 52

VI. THE INTERCOLONIAL . . . . . . . . . . . . . . . 93

VII. THE CANADIAN PACIFIC--BEGINNINGS . . . . . . . . 109

VIII. BUILDING THE CANADIAN PACIFIC . . . . . . . . . 131

IX. THE ERA OF AMALGAMATION . . . . . . . . . . . . 169

X. THE CANADIAN NORTHERN . . . . . . . . . . . . . 181

XI. THE EXPANSION OF THE GRAND TRUNK . . . . . . . . 196

XII. SUNDRY DEVELOPMENTS . . . . . . . . . . . . . . 220

XIII. SOME GENERAL QUESTIONS . . . . . . . . . . . . . 240

BIBLIOGRAPHICAL NOTE . . . . . . . . . . . . . . 248

INDEX . . . . . . . . . . . . . . . . . . . . . 249

{vii}

ILLUSTRATIONS

'THE SURVEYOR, OFTEN AN EXPLORER AS WELL,

STRIKING OUT INTO THE WILDERNESS IN SEARCH

OF MOUNTAIN PASS OR LOWER GRADE' . . . . . . . . _Frontispiece_

From a colour drawing by C. W. Jefferys.

THE FIRST RAILWAY ENGINE IN CANADA, CHAMPLAIN AND ST LAWRENCE RAILROAD,

1837 . . . . . . _Facing page_ 38

From a print in the Chateau de Ramezay.

RAILROADS AND LOTTERIES . . . . . . . . . . . . . . " 48

An Early Canadian Prospectus.

SIR FRANCIS HINCKS . . . . . . . . . . . . . . . . . " 66

From a portrait in the Dominion Archives.

RAILWAYS OF BRITISH NORTH AMERICA, 1860 (Map) . . . " 92

SIR GEORGE SIMPSON . . . . . . . . . . . . . . . . . " 110

From a print in the John Ross Robertson Collection,

Toronto Public Library.

SIR SANDFORD FLEMING . . . . . . . . . . . . . . . " 114

From a photograph by Topley.

FLEMING ROUTE AND THE TRANS-CONTINENTALS (Map) . . . " 118

{viii}

RAILWAYS OF CANADA, 1880 (Map) . . . . . . . . . . . " 130

LORD STRATHCONA . . . . . . . . . . . . . . . . . . " 134

From a photograph by Lafayette, London.

LORD MOUNT STEPHEN . . . . . . . . . . . . . . . . . " 140

From a photograph by Wood and Henry, Dufftown.

By courtesy of Sir William Van Horne.

SIR WILLIAM CORNELIUS VAN HORNE . . . . . . . . . . " 148

From a photograph by Notman.

RAILWAYS OF CANADA, 1896 (Map) . . . . . . . . . . . " 180

CANADIAN NORTHERN RAILWAY, 1914 (Map) . . . . . . . " 194

CHARLES MELVILLE HAYS . . . . . . . . . . . . . . . " 200

From a photograph by Notman.

GRAND TRUNK SYSTEM, 1914 (Map) . . . . . . . . . . . " 218

CANADIAN PACIFIC RAILWAY, 1914 (Map) . . . . . . . . " 224

GREAT NORTHERN RAILWAY, 1914 (Map) . . . . . . . . . " 230

RAILWAYS OF CANADA, 1914 (Map) . . . . . . . . . . . " 238

{1}

CHAPTER I

THE COMING OF THE RAILWAY

The Coming of the Railway--The Iron Road--The New Power--Engine and

Rail--The Work of the Railway

On the morning of October 6, 1829, there began at Rainhill, in England,

a contest without parallel in either sport or industry. There were

four entries:

Braithwaite and Ericsson's _Novelty_.

Timothy Hackworth's _Sans-pareil_.

Stephenson and Booth's _Rocket_.

Burstall's _Perseverance_.

These were neither race-horses nor stagecoaches, but rival types of the

newly invented steam locomotive. To win the L500 prize offered, the

successful engine, if weighing six tons, must be able to draw a load of

twenty tons at ten miles an hour, and to cover at least seventy miles a

day. Little wonder that an eminent Liverpool merchant declared that

only a parcel of charlatans could have devised such a test, and wagered

that if a locomotive ever went ten miles an hour, he {2} would eat a

stewed engine-wheel for breakfast!

The contest had come about as the only solution of a deadlock between

the stubborn directors of the Liverpool and Manchester Railway, or

tramway, then under construction, and their still more stubborn

engineer, one George Stephenson. The railway was nearly completed, and

the essential question of the motive power to be used had not yet been

decided. The most conservative authorities thought it best to stick to

the horse; others favoured the use of stationary steam-engines, placed

every mile or two along the route, and hauling the cars from one

station to the next by long ropes; Stephenson, with a few backers,

urged a trial of the locomotive. True, on the Stockton and Darlington

Railway, the first successful public line ever built, opened four years

before, a Travelling Engine, built by the same dogged engineer, had

hauled a train of some forty light carriages nearly nine miles in

sixty-five minutes, and had even beaten a stage-coach, running on the

highway alongside, by a hundred yards in the twelve miles from

Darlington to Stockton. But even here the locomotive was only used to

haul freight; passengers were still carried in old {3} stage-coaches,

which were mounted on special wheels to fit the rails, and were drawn

by horses. The best practical engineers in England, when called into

consultation, inspected the Stockton road, and then advised the

perplexed directors to instal twenty-one stationary engines along the

thirty-one miles of track, rather than to experiment with the new

Travelling Engine.

'What can be more palpably absurd and ridiculous,' the _Quarterly

Review_ had declared in 1825, 'than the prospect held out of

locomotives travelling twice as fast as stage-coaches! We should as

soon expect the people of Woolwich to suffer themselves to be fired off

upon one of Congreve's ricochet rockets as trust themselves to the

mercy of such a machine, going at such a rate.' And the _Quarterly_

was not alone in its scepticism. The directors of the new railway had

found great difficulty in obtaining a charter from parliament--a

difficulty registered in a bill for parliamentary costs reaching

L27,000, or over $4000 a mile. Canal proprietors and toll-road

companies had declaimed against the attack on vested rights. Country

squires had spluttered over the damage to fox covers. Horses could not

plough in neighbouring fields. {4} Widows' strawberry-beds would be

ruined. What would become of coachmen and coach-builders and

horse-dealers? 'Or suppose a cow were to stray upon the line; would

not that be a very awkward circumstance?' queried a committee member,

only to give Stephenson an opening for the classic reply in his slow

Northumbrian speech: 'Ay, verra awkward for the coo.' And not only

would the locomotive as it shot along do such varied damage; in truth,

it would not go at all; the wheels, declared eminent experts, would not

grip on the smooth rails, or else the engines would prove top-heavy.

To decide the matter, the directors had offered the prize which brought

together the _Novelty_, the _Sans-pareil_, the _Rocket_, and the

_Perseverance_, engines which would look almost as strange to a modern

crowd as they did to the thousands of spectators drawn up along the

track on that momentous morning. The contest was soon decided. The

_Novelty_, an ingenious engine but not substantially built, broke down

twice. The _Sans-pareil_ proved wasteful of coal and also met with an

accident. The _Perseverance_, for all its efforts, could do no better

than five or six miles an hour. The _Rocket_ alone met all

requirements. In a {5} seventy-mile run it averaged fifteen miles an

hour and reached a maximum of twenty-nine. Years afterwards, when

scrapped to a colliery, the veteran engine was still able, in an

emergency, to make four miles in four and a half minutes. 'Truly,'

declared Cropper, one of the directors who had stood out for the

stationary engine and the miles of rope, 'now has George Stephenson at

last delivered himself.'

Stephenson had the good fortune, he had earned it indeed, to put the

top brick on the wall, and he alone lives in popular memory. But the

railway, like most other great inventions, came about by the toil of

hundreds of known and unknown workers, each adding his little or great

advance, until at last some genius or some plodder, standing on their

failures, could reach success. Both the characteristic features of the

modern railway, the iron road and the steam motive power, developed

gradually as necessity urged and groping experiment permitted.

The iron road came first. When men began to mine coal in the north of

England, the need grew clear of better highways to bear the heavy

cart-loads to market or riverside. About 1630 one Master Beaumont laid

down broad {6} wooden rails near Newcastle, on which a single horse

could haul fifty or sixty bushels of coal. The new device spread

rapidly through the whole Tyneside coal-field. A century later it

became the custom to nail thin strips of wrought iron to the wooden

rails, and about 1767 cast-iron rails were first used. Carr, a

Sheffield colliery manager, invented a flanged rail, while Jessop,

another colliery engineer, took the other line by using flat rails but

flanged cart-wheels. The outburst of canal building in the last

quarter of the eighteenth century overshadowed for a time the growth of

the iron road, but it soon became clear that the 'tramway' was

necessary to supplement, if not to complete, the canal. In 1801 the

first public line, the Surrey Iron Railway, was chartered, but it was

not until 1825 that the success of the Stockton and Darlington Railway

proved that the iron way could be made as useful to the general

shipping public as to the colliery owner. At the outset this road was

regarded as only a special sort of toll-road upon which any carrier

might transport goods or passengers in his own vehicles, but experience

speedily made it necessary for the company to undertake the complete

service.

It took longer to find the new motive power, {7} but this, too, first

came into practical use in the land where peace and liberty gave

industry the fostering care which the war-rent Continent could never

guarantee. Nowadays it seems a simple thing to turn heat energy into

mechanical energy, to utilize the familiar expansive power of water

heated to vapour. Yet centuries of experiment, slowly acquired

mechanical dexterity, and an industrial atmosphere were needed for the

development of the steam-engine, and later of the locomotive.

Inventiveness was not lacking in the earlier days. In the second

century before Christ, Hero of Alexandria had devised steam fountains

and steam turbines, but they remained scientific toys, unless for the

miracle-working purposes to which legend says that eastern priests

adapted them. So in the seventeenth century, when the Norman, Solomon

de Caus, claimed that with the vapour of boiling water he could move

carriages and navigate ships, Cardinal Richelieu had him put in prison

as a madman. About 1628 an Italian, Giovanni Branca, invented an

engine which had the essential features of the modern turbine, but his

crude apparatus lacked efficiency.

Once more the coal-mines of England set invention working on a

definite, continuous {8} object. As the shafts were sunk to lower and

lower levels, it became impossible to pump the water out of the mines

by horse power, and the aid of steam was sought. Just at the close of

the seventeenth century Savery devised the first commercial

steam-engine, or rather steam fountain, which applied cold water to the

outside of the cylinder to condense the steam inside and produce a

vacuum; while Papin, one of the Huguenot refugees to whom industrial

England owed so much, planned the first cylinder and piston engine.

Then in 1705 Newcomen and Cawley, working with Savery, took up Papin's

idea, separated boiler from cylinder, and thus produced a vacuum into

which atmospheric pressure forced the piston and worked the pump. Next

Humphrey Potter, a youngster hired to open and shut the valves of a

Newcomen engine, made it self-acting by tying cords to the engine-beam,

had his hour for play or idling, and proved that if necessity is the

mother of invention, laziness is sometimes its father. Half a century

passed without material advance; even as perfected in detail by

Smeaton, the Newcomen engine required thirty-five pounds of coal to

produce one horse-power per hour, as against one pound {9} to-day.

Then James Watt, instrument-maker in Glasgow, seeing that much of the

waste of steam was due to the alternate chilling and heating of the

cylinder, added a separate condenser in which to do the chilling, and

kept the temperature of the cylinder uniform by applying a

steam-jacket. Later, by applying steam and a vacuum to each side of

the piston alternately, and by other improvements, Watt, with his

partner Boulton, brought the reciprocating steam-engine to a high stage

of efficiency.

It took fifty years longer to combine the steam-engine and the rail.

French and American inventors devised steam carriages, which came to

nothing. England again led the way. At Redruth in Cornwall Boulton

and Watt had a branch for the erection of stationary engines in Cornish

tin-mines, in charge of William Murdock, later known as inventor of the

system of lighting by gas. Murdock devised a steam carriage to run

upon the ordinary highway, but was discouraged by his employers from

perfecting the machine. Another mechanic at Redruth, Richard

Trevithick, captain in a tin-mine, took up the torch, built a 'Dragon'

for use on the common highway, but was baffled by the {10} hopeless

badness of the roads, and turned to making a locomotive for use on the

iron ways of the Welsh collieries. Two years later, in 1803, he had

constructed an ingenious engine, which could haul a ten-ton load five

miles an hour, but the engine jolted the road to pieces, and the

versatile inventor was diverted to other schemes. Blenkinsop of Leeds

in 1812 had an engine built with a toothed wheel working in a racked

rail, which did years of good service; and next year at Wylam on the

Tyne a colliery owner, Blackett, had the _Puffing Billy_ built, and

proved that smooth wheels would grip smooth rails. Still another year,

and an engine-wright in a Tyneside colliery, George Stephenson, himself

born at Wylam, devised the _Bluecher_, doubling effectiveness by turning

the exhaust steam into the chimney to create a strong draught. Using

this steam blast, and adopting the multitubular boiler from a French

inventor, Seguin, Stephenson finally scored a triumph, due not so much

to unparalleled genius as to dogged perseverance in working out his own

ideas and in adapting the ideas of other men.

Thus by slow steps the steam railway had come. It was a necessity of

the age. Crude means of transport might serve the need of {11} earlier

days when each district was self-contained and self-sufficing. But now

the small workshop and the craftsman's tool were giving way to the huge

factory and the power-driven machine. The division of labour was

growing more complex. Each district was becoming more dependent on

others for markets in which to buy and to sell. Traffic was

multiplying. The industrial revolution brought the railway, and the

railway quickened the pace of the industrial revolution.

To some critics, as to Ruskin, railways have appeared 'the loathesomest

form of deviltry now extant, animated and deliberate earthquakes,

destructive of all nice social habits or possible natural beauty.'

Animated and deliberate earthquakes they were indeed to prove,

transforming social and industrial and political structures the world

over. With the telegraph and the telephone, they greatly widened the

scope and quickened the pace of business operations, making it

possible, and therefore necessary, for the captain of industry or

finance of the twentieth century to have under control ten times the

press of affairs which occupied his eighteenth-century forerunner. The

railway levelled prices and levelled manners. It enabled floods of

settlers {12} to sweep into all the waste places of the earth, clamped

far-flung nations into unity, and bound country to country.

Nowhere was the part played so momentous as in the vast spaces of the

North American continent, and not least in the northern half. The

railway found Canada scarcely a geographical expression, and made it a

nation.

{13}

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