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Canadian Historic Sites: Occasional Papers in Archaeology and History No. 8
The Canals of Canada
by John P. Heisler
Canals in the New Confederation, 1867-1914
I
At the time of confederation, Canadians still clung to the belief
that nature had intended the St. Lawrence to be the great commercial
highway of the West. They clung to this belief despite the fact that in
relation to western trade the St. Lawrence route had not fulfilled its
destiny to the extent it should have done. It had not yet received
anything like the amount of traffic to which it was entitled by virtue
of its superior facilities. When one considers the formidable nature of
the opposition arrayed against it, however, the route had perhaps not
done too badly. The St. Lawrence ran through British territory whereas
the great bulk of the population and commerce was on the American side
of the river and lakes. Quite naturally enterprising communities like
the state of New York, deeply interested in the prosperity of American
canals and railways, had wooed away much of the western trade from the
St. Lawrence. At the same time the facilities afforded by American
enterprise for the transit of western products proved somewhat
inadequate and American interests, especially those concerned in
obtaining cheap routes of communication with the principal markets of
the world, approached the Canadian authorities on the question of
transit. Commissioners appointed by the state of Illinois to confer
with the Canadians on the question of transit stated:
For several years past, a lamentable waste of crops already
harvested had occurred in consequence of the inability of
Railways and Canals leading to the seaboard to take off the
excess. The North West seems already to have arrived at a point of
production beyond any possible capacity for transportation which can be
provided except by the great natural outlets. It has for two
successive years crowded the Canals and Railways with more than one
hundred millions of bushels of grain, besides
quantities of other provisions and vast numbers of cattle
and hogs. This increasing volume of business cannot be maintained
without recourse to the natural outlet of the lakes. ...
The St. Lawrence furnishes for the country bordering upon the lakes
a Natural outlet to the sea.1
About the same time the report of the Buffalo Board of Trade for
1869 concluded:
It would be folly to ignore the fact that a great increase has
taken place in the trade of Canada with Europe in breadstuffs.
The route via the St. Lawrence leads almost in a direct line from
the grain growing regions of the West to those nations of Europe
whose people are and will be the chief consumers of the grain
exported from this country. By a liberal Canal policy we may arrest this
division of trade and restore the traffic of very many important
articles which seek other channels through lower rates of
transportation. . . . The trade of Chicago with the
Dominion has largely increased both in imports and exports. The
Canadians hope to establish a large direct foreign trade by way of the
St. Lawrence to and from the West, exporting wheat by the vessels used
in the trade, returning with iron, salt, hardware, glass, crockery,
carpets, drugs, dyes, etc., and the estimated value of such imports
alone foot up to $40,000,000. Would not a reduction of tolls on the
Canal Erie somewhat disarrange this programme? Two plans are proposed
for receiving the trade of the great West by the Canadians. The one is,
to enlarge the Canals around the rapids of the St. Lawrence, and to
increase the capacity of the Welland
Canal to a degree whereby vessels of large tonnage can pass direct to
and from the Upper Lakes; the other contemplates a Northern route by
improving the navigation of the Ottawa River, which flows into the St.
Lawrence at Montreal. The first route mentioned is the most feasible,
least expensive, easier maintained and can be made available longer
during the year.2
II
i
In 1870 the Canadian government appointed a royal commission with
instructions
to institute and make a thorough enquiry as to the best means of
affording such access to the seaboard as may best be calculated to
attract a large and yearly increasing share of the trade of the
North Western portion of North America through Canadian waters as well
as a thorough and comprehensive improvement on the canal system of our
said dominion on such a scale and of such a character as would best tend
to afford ample facilities for the expansion and due development of its
growing trade and commerce . . . and such as will enable Canada
to compete successfully for the transit trade of the great Western
County.3
The commission made a careful study of the Welland Canal and
recommended that it be enlarged and improved. In order to achieve this
betterment the commission suggested: (a) that a new canal be built from
Thorold to Port Dalhousie; (b) that the locks, banks and weirs on the
present line be raised so as to give 12 feet of water; (c) that the
harbours at Port Colborne and Port Dalhousie be deepened to 15 feet in
order to provide a safe entrance to vessels drawing 12 feet of water;
(d) that the main line between Thorold and Port Colborne be widened and
deepened to 100 feet wide at bottom and 13 feet depth; (e) that a second
lock be built at Port Colborne so as to allow more water into the canal,
and (f) that the floor of the aqueduct be sunk 2 feet and possibly
another aqueduct be constructed alongside the present one in order to
increase the supply of water required for the double set of locks from
Thorold downward.4 By far the most important of these
suggestions was that of an entirely new line from Thorold to Port
Dalhousie.
As the commission explained:
The reaches between the present locks on the Mountain declivity
are entirely too short, and of too small capacity for the enlarged
canal. The locks are so close together and even supposing it
possible to construct the large locks on this line without stopping the
navigation, and to make use of one of the present walls to
form part of the new locks, still the enlarged locks would be
placed so close together that there would not be left a vessel's length
between them. They would be tantamount to combined locks the operation
of which is to retard the passage of vessels and cripple the
efficiency of the canal.5
Since, therefore, combined locks could not be admitted on this
important navigation, it was necessary to find a line where sufficient
"basins can be established between the locks to admit of the passage of
vessels and capable of holding an abundant supply of water for working
the lock without drawing over the levels." The commission suggested
that while the new line from Thorold to Port Dalhousie was being built,
the present line should be maintained at full working capacity and
indeed ought to be deepened and kept in good working order for the use
of smaller vessels. The 24 smaller locks were located on the 8 miles
between Allanburg and St. Catharines and were 150 feet long by 26-1/2
feet wide. Originally designed and built for 9 feet of water, the depth
was later increased to 10-1/4 feet by "bolting down timber upon the
copings of the walls and by raising the banks and weirs." This
increased the tonnage capacity of the vessels navigating the canal from
400 to 500 tons net. An additional 1-3/4 feet would increase the tonnage
capacity from 500 to 600 tons. This additional carrying capacity of
vessels would allow some shipowners to pass through the canal without
lightening their cargo as they were forced to do when heavily laden. The
commission concluded its report on the Welland with the suggestion that
"the temporary timber now used to raise the water should be replaced by
masonry and the lock gates, weirs and banks, should be permanently
finished to the highest level."6
ii
Considerable attention was given to the proposed canal at Sault Ste.
Marie. There, as early as 1852, the Department of Public Works made a
survey for a Canadian canal. This survey called for a straight cut
through the middle of St Marys Island which is about one-half mile long.
The distance between the deep water bays at the upper and lower
entrances corresponding with the length of the canal from end to end of
the piers would be a little over a mile. Lake Superior, at the northern
end of the proposed canal, fluctuated in water level between a rise and
fall of about 18 inches. The fall in the Sault rapids varied, according
to the different stages
of the lake and river, from 17 to 19 feet with a usual fall of 18.
This early survey in 1852 was made at a time when the side-paddle
steamers reigned supreme on the upper lakes. Hence the chief engineer of
the department proposed to build the canal of sufficient size to pass
the largest class of side-paddle steamers at that time employed in the
trade. The proposed dimensions for a lock were therefore 350 feet long
by 66 feet wide with 10 feet depth with the prism of the canal 130 feet
at bottom and 140 feet at surface in order to allow two steamers to pass
one another on any part of the canal. The estimate for this canal with
two locks, which it was necessary to build when the breadth was so
great, was $480,000.7 Following a careful study of the early survey, the
commission was prepared to accept the line of the straight cut through
the middle of St. Marys Island but suggested that due to the more
moderate scale suggested for the canal system of the dominion, it would
be quite practicable to overcome the whole fall at the Sault by a
single lock of 18 feet lift.8 This would avoid the expense of
the regulating weirs required if two locks were constructed to divide
the lift. The commission regarded the construction of a Canadian canal
at Sault Ste. Marie as "the natural commencement of the improvements of
the inland navigation of the Dominion."9
iii
Reference has already been made to the dredging operations on the St.
Lawrence between Quebec and Montreal in the years immediately preceding
confederation resulting in a marked improvement in the channel of
navigation. After 1865 a larger and better class of sea-going vessels,
including Atlantic steamers of 3,000 tons capacity, had access to Montreal, the effect
of which was a reduction in the cost of freight and a spur to Canadian
business. Since the proposed enlargement of the canals would likely
bring a great increase of business to Montreal, the commission believed
it was essential that better port facilities should be available to
Atlantic vessels frequenting that port thereby allowing them to compete
successfully with New York and Boston shipping for the carrying trade to
European ports.10 At this time (1870) the largest vessels
trading at Montreal drew from 18 to 23 feet laden, without coal, and
ranged from 290 to 350 feet in length. It was felt, however, that the
security of the navigation required that the channel be as wide as the
length of the vessel and the depth fully one foot more than the draught.
The commission, therefore, recommended the enlarging of the channel
throughout between Quebec and Montreal to 400 feet width and 24 feet in
depth at low water.11
In 1870 daily passenger vessels successfully descended all the rapids
between Kingston and Montreal. Returning, these vessels used the
Lachine, Beauharnois and Cornwall canals but had sufficient power to
ascend the upper rapids, Rapide Plat, Iroquois and Galops, without
entering the canals. Freight vessels, however, seldom navigated the lower
rapids of Long Sault, Coteau, Cedars, Cascades and Lachine, though
such vessels could safely descend the upper rapids. For some time it had
been urged that improvements be made in the channel through the lower
rapids "as would enable all vessels and express by the propellers to
pass down safely without making use of the canals thus saving time and
expense."12 This the commission felt must be done.
Still considering the St. Lawrence navigation, the commission
concluded, from both the evidence laid before it and information
contained in the annual reports of the Public Works department, that
there appeared to be an urgent necessity for improvements in the Lachine
Canal in order to better accommodate the trade. Vessels were
overcrowded in a limited space afforded both in Montreal harbour and in the
upper basin of the canal. Great delays occurred in passing vessels
through the two lower locks forming the connection between the harbour
and canal. With increasing trade, matters only got worse. It was clear
that the entrance locks were wholly inadequate to the requirements of
the trade. The commission reported:
To meet increasing demands of the trade at this port we
consider it indispensable that the former entrance to this canal should
be reopened and another set of locks laid alongside the present
ones, in the line of the old canal, with 17 feet of water on the
sills to admit ocean vessels into the upper basin, and that the
whole of the canal reserve containing upwards of fifty
acres, be laid out into docks and basins in the manner suggested in the
report just quoted but instead of proceeding gradually with the
improvements, the whole as far up as Wellington street should at once be
undertaken and made 18 feet deep.13
By the phrase, "in the report just quoted," the committee was
referring to the report of the commissioner of Public Works for 1860
which stated:
By opening new basins on the south side of the canal, and
deepening the channel through the middle of the large basin up to them,
sea-going vessels may with facility be brought in connection both
with the Upper Lake vessels and the Grand Trunk Railway
for the draught upon the sills of the two lower locks has been made
16 feet expressly with this view, and the requisite quantity of
land has long since been acquired and is still retained for
that express purpose.14
31 Plan of the Welland Ship canal With general dimensions.
(Annual Report, 1915-16, Dept. of Railways and Canals.) (click on image for a PDF version)
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32 The Lachine canal locks from the air, about 1920.
(Public Archives of Canada.)
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iv
During a 50-year period (1822-73) the governments of the Maritime
Provinces and Canada considered at various times the possibility of
building a canal to connect the waters of the Bay of Fundy at Cumberland
Basin with those of the Gulf of St. Lawrence at Baie Verte. Robert C.
Minnette made the first survey in 1822 by order of the government of New
Brunswick and proposed a canal 4 feet deep, running through the valley
of the Aulac across the Missiguash lakes and then to the River Tidnish.
Three years later F. Hall also made a survey of the route at the
suggestion to the lieutenant governor. Sometime later Thomas Telford, a
civil engineer, revised Hall's report and suggested a canal with a depth
of 14 feet with a view to accommodating the large trade that would
likely accrue especially with Quebec, Montreal and the upper
lakes.15 Meanwhile public opinion in New Brunswick became
quite vocal about the proposed canal. One citizen of Saint John
addressed an appeal to the Rt. Hon. William Huskisson in 1828 stating:
"The meditated improvement in this province of opening a canal from the
Bay of Fundy to the St. Lawrence is an object of national interest and
peculiarly worthy of the attention of governments; and which by
affording facilities of intercourse will create an extensive business
with our Canadian neighbours which is at present very
limited."16 A decade later the Saint John Chamber of Commerce
addressed a petition to Lieutenant Governor Sir John Harvey, which
perhaps merits quoting in full, urging the advantages of a canal across
Chignecto.
That a Canal to connect the Waters bordering the possessions
of Great Britain in North America has long been an object of
consideration, not only with numerous private individuals, but also with
the Legislature of this Province, who have had surveys and
estimates made, and have been prevented from commencing the undertaking
in consequence of the large sum required for its completion,
and also, we apprehend, from want of confidence in the surveys.
That the work, according to a survey made by Mr. Hall, the
particulars of which he forwarded to the late celebrated Sir Thomas
Telford, was by that gentleman, on Mr. Hall's data, estimated to cost
£155,898 sterling but this calculation does not seem to your
Petitioners an exception to the observation above made. We much
question, had that gentleman been on the spot, if he would have relief
on the uncertain and periodical high-tide mark, as the most proper
level for the range of a Canal. Should a stranger observe that
one part of your command is completely cut off from all water
intercourse with another more extensive and important part of the
Province, save by a voyage of eight hundred miles, while a Canal of
fifteen or seventeen miles, through a particularly level country,
would completely connect and bring them together, he would be astonished
that no attempt has yet been made to cut such a Canal.
That on 16th March, 1836, the Legislature of this Province passed an
Act, (at the suggestion of several persons who probably dispaired
of a canal being cut) for the purpose of incorporating the "Shediac and the St.
John Railroad Company," or in other words, an Act to authorize the
parties named, and their associates, to make a Railway from the
Harbour of Shediac to the most convenient spot for a landing
Harbour on the headwaters of the Bay of Fundy; said Railway to be
completed in six years, or the Charter to expire. And on the same date a
like Law was enacted, to Incorporate the Bay of Verte "Canal Company"
with a capital of only £90,000 sterling which Charter is to expire
and end if the object is not completed within ten years from its date.
The Legislature of the Province of Nova Scotia, during their last
Session, passed an Act authorizing the Lieutenant-Governor of that
Province, for the time being to Incorporate any persons who shall
within ten years make such progress in cutting a Canal from the Bay of
Verte to Cumberland Basin, as may satisfy the then Commander-in-Chief
that the Canal will be completed within some reasonably distant
period.
That not only is New Brunswick in an especial degree interested in
this undertaking but that the extensive and growing trade between this
Port and Quebec, makes it certain that the Canadas would join warmly in
promoting what would so much advantage their commerce. That various
products of the Eastern part of Nova Scotia would find a ready and
advantageous market at this Port; that fleets of small
vessels would be fitted out in this Province for general trade on the
shores of the St. Lawrence, and also for the Gulf Fisheries, it such a
Canal were completed. Another object of vast importance to the British
Government, as well as the trade of the North American Colonies and the
West Indies, seems likely to be attained by
the completion of this work. We refer to the opening of a safe and
easy passage to Quebec, several weeks earlier in the Spring than
can be reckoned upon by the present route, and wholly avoiding the great
danger of encountering the ice between Newfoundland and Cape Breton,
or in the Gut of Canso. We believe it is well known that a clear passage
along the Northern shore of New Brunswick, and thence by Gaspé to
Quebec, is generally open in the month of April, and frequently in its
first week.
That Prince Edward Island would be greatly benefited by such a Canal;
and that the trade of the whole Colonies would thereby be increased in
times of peace, and their energies become closely united in time of
war.17
Further surveys were undertaken by orders of New Brunswick, Prince
Edward Island and Canada including one in 1843 by Captain Crawley, with
Canada paying a portion of the expense. A number of the engineers who
reported on the project approved a tidal canal. Others advised that a
supply of fresh water should be procured for operating the proposed
canal. Despite all these reports the project was still being debated at
the time the royal commission was appointed in 1870. The commissioners
were attracted by the project and believed that the Baie Verte canal was
closely linked with the canals of the St. Lawrence. They therefore
strongly recommended its construction as inseparably connected with the
growth of interprovincial trade.
A steamer laden with flour for Saint John, N.B. now goes down the
Gulf as far as Shediac where the cargo is transported by rail to its
destination. The total distance by water from Shediac through the Gut of
Canso and around the east of Nova Scotia to the Bay of Fundy as
far as the commercial capital of New Brunswick is concerned is
about 600 miles. Hence there is little or no direct communication
between the Bay of Fundy Ports and those of the River St. Lawrence. By a
canal through the Isthmus the distance from Shediac to Saint John will
not be much more than one hundred miles.18
The commission went on to point out that the lumber and fishery
interests of the Gulf of St. Lawrence both of Prince Edward Island and
the north shore of New Brunswick along with the coal trade of Pictou
would benefit by a safer and shorter route not only to the ports of the
Bay of Fundy but also to those of the northeastern coast of the United
States. Construction of this canal would give a spur to the mackerel
fisheries of the Gulf of St. Lawrence by which a short and secure route
would be given to the inhabitants of the north and south shores of the
bay as well as those in the Nova Scotia counties of Yarmouth and
Shelburne. "As a Canadian canal at Sault Ste Marie is the natural
commencement of the improvements of the inland navigation of the Dominion,
so to work through the Isthmus of Chignecto is the inevitable conclusion
necessary to give unity and completeness to the whole
system."19
v
Improvement of inland navigation was essential to the promotion of
interprovincial trade. Between Ontario and the lower ports direct trade
could not be developed unless canal communication above Montreal were
improved. Any appreciable growth of interprovincial trade depended upon
cheap transit since goods passing between the maritime provinces and
Ontario "must be of a bulky character requiring large vessels
and rapid despatch to be really profitable." If a propeller could go
direct with a cargo of coal or other produce of the eastern provinces
shipped to Kingston or Toronto and in return take a freight cargo of
flour, barley and other western produce, interprovincial trade would
enter a new area. The Toronto Board of Trade believed that a deepening
of the canals would lead to increasing trade with the Maritimes, for
then "it would be carried without breaking bulk from the lakes to the
ocean, creating thereby a reciprocity of interest, and connecting over
several Provinces more closely."20 At the same time the
Toronto Corn Exchange Association declared
that reciprocity of
trade, upon which we must count as the only basis of legitimate
commerce, and the one great means of uniting the Provinces in the strong
bonds of mutual interest, remains undeveloped, and will continue so
until our water communications shall have been permanently established
on such a scale as to induce the building of vessels suitable at once
to the navigation on the lakes, the canals, and ocean.21
The short interval between confederation, the abrogation of the
reciprocity treaty with the United States and the commission's report in
February, 1871, witnessed an increase in interprovincial trade. The
proportions, however, were still relatively small due largely to a
shortage of facilities for cheap and rapid transportation between the
provinces. The Grand Trunk, of course, ran a line of steamers between
Portland and Halifax which facilitated trade between Montreal and the
Nova Scotia port. Moreover, steamships plying the Gulf of St. Lawrence
between Quebec, Shediac, Pictou and other ports helped to promote trade
in the chief provincial staples, the coal of Nova Scotia and the
flour of Ontario. A few figures will indicate the slow steady
increase in this trade. Canada exported 58,233 barrels of flour to Nova
Scotia in 1865. In 1869 this had increased to 131,336 barrels to Halifax
alone via the Grand Trunk Railway. Total shipments for four years via
the Grand Trunk to Nova Scotia and New Brunswick were as follows: 1866,
157,859 barrels; 1867, 228,345 barrels; 1868, 328,204 barrels; and 1869, 293,754 barrels. The total quantity
of flour exported from Canada in 1864-65 to all British North America
was 137,581 barrels. In 1869 this quantity had increased to 542,412
barrels. Of this quantity 293,754 were sent by Grand Trunk Railway via
Portland and the remainder by steamers and sailing vessels by the St.
Lawrence.22 During the same period Nova Scotia coal found a
steadily expanding market in Quebec.
Improvement of inland navigation was also essential to the promotion
of western trade. Any improvement would particularly affect the western
flour and grain trade from which the canals derived the principal part
of their income. At this time the Grand Trunk was a formidable
competitor for the trade of the St. Lawrence and flour was carried
largely by rail. Bulky products like corn and wheat, however, went by
canal. This competition between canal and railway produced one
significant result; namely, that the canal business of seven months
exceeded the railway business of twelve months. It was found that the
charges of a railway running alongside a good water communication had to
be lowered during the summer months to an extent that was probably not
profitable. Freights from the West to Montreal at the time were lower
than those from Chicago and other western ports to New York via Buffalo
and Oswego. The average rates paid per bushel by propeller from Chicago to Montreal
during the years 1868 and 1869 were 13 cents and 12 cents respectively,
whereas the average rate of freight per bushel of wheat from Chicago to
New York during the same years via Buffalo and Oswego was 23 cents.
Moreover, the difference in time was in favour of the St. Lawrence, and
hence much of the trade was forced into its natural channel despite the
lack of an enlarged and uniform system of canal communication. Once the
capacity of the St. Lawrence canals including the Welland was enlarged,
the propellers in use on western waters could come directly to Montreal
and Quebec, and there transfer their cargoes to the larger class of
vessels for European traffic or go to Boston through the Gulf of St.
Lawrence and the Baie Verte canal (thereby shortening the route to
Portland and Boston by nearly 500 miles). Freights of western produce
would be reduced to a minimum. In the keen competition between the rival
routes, Chicago-New York via the Erie Canal and Chicago-Montreal via the
Welland and St. Lawrence canals, an important element was that of return
freights. New York drew the commercial marine of the world and vessels
carrying wheat, corn and other products of the grain-growing western
states had never wanted return freights. Up to 1870, however, the direct
foreign trade with the West via the St. Lawrence was comparatively
small, through increasing. Ocean transportation charges were an
important factor in accounting for the modest trade.23
Besides considering the question of canal improvement in relation to
interprovincial commerce and western trade, the commission also viewed
such improvement as an important aspect in
future commercial relations with the British and foreign West Indies.
In 1870 Nova Scotia and New Brunswick were the only parts of the
dominion which did any large business with those countries. Quebec and
Ontario had virtually no trade with them. Any imports which those two
large provinces received from the West Indies came through the United
States and American ports. The commission believed that a large direct
trade should be opened up between western Canada and the West Indies,
which at the time purchased from the United States goods which could be
supplied more cheaply from Canada. Improvement of the St. Lawrence
canals might induce Ontario to open a direct trade with the West Indies,
for the province had many of the products which those countries needed.
And a Baie Verte canal would open "a shorter and safer route . . . to
propellers and sailing vessels." Moreover, Ontario and Quebec merchants
could supply those maritime firms engaged in this trade with such goods
as found a ready and remunerative market in the tropics. In exchange the
Canadian merchant could get back sugar, molasses and other semi-tropical
produce which at the time was supplied indirectly to the two larger
provinces through the United States. And finally in regard to this
potential trade, the commission believed that the large type of vessel,
which would likely be built as a result of an improved inland
navigation, could proceed from Ontario lake and Quebec river ports to
the Maritime ports and thence to the West Indies, where during the
winter season such vessels might find employment instead of being laid
up for five months of the year.24
vi
In the conclusion of its report dated 24 February 1871, the
commission urged upon the government a policy of canal enlargement as
one best suited to stimulate the commercial development of the whole
dominion. According to the commission there should be one uniform size
of lock and canal throughout the main line of water communication from
Lake Superior to tidewater including the Welland Canal, the St.
Lawrence canals and the proposed canal at Sault Ste. Marie. After much
discussion the commission decided that the most suitable size of lock
for these canals would be one having 270 feet length of chamber between
the gates, 45 feet in width and 12 feet of clear draught over the mitre
sills. Some persons urged a draught of 14 feet and others as much as 16
feet. The commission, however, keeping in mind the limited resources of
the young dominion, the capabilities of the Canadian canals and harbours
as well as the actual needs of the trade, agreed upon a draught of 12
feet as the most suitable one for the St. Lawrence. For the Ottawa
route, extending from Lachine to Ottawa, the commission proposed a scale
of improvement with locks 200 feet length of chamber between the gates,
45 feet in width and 9 feet of clear draught over the mitre sills. The
scale recommended for the Chambly canal corresponded with that of the
Ottawa with the exception that the draught might fall short of 9 feet
should it involve considerable expense to reach that depth. Since both
the Ottawa and Richelieu routes would be used principally for conveying
lumber from Ottawa to the American market, it was thought that the
canals along these routes should be built with approximately the same
dimensions.25
III
The Canadian government accepted the royal commission's
recommendations and decided to enlarge the canals; the scale of
navigation in the St. Lawrence throughout was fixed at an available
depth of 12 feet of water instead of 9 feet in the Lachine, Beauharnois,
Cornwall, Farran's Point, Rapide Plat and Galops canals, and instead of
10-1/2 feet in the Welland. The dimensions of the locks on the enlarged
canals were fixed at 270 feet between the gates and 45 feet in width
instead of 200 by 45 feet. The least breadth of the canals at bottom
was fixed at 100 feet. In 1873 this enlargement was authorized to be
carried out on the Lachine and Welland canals and subsequently on the
Cornwall Canal. Two years later, in 1875, strong representations were
made to deepen the various channels for the passage of vessels drawing
14 feet of water. The government assented to this need for deeper
channels and orders were given to place the foundations of all permanent
structures on those parts of the works not then under contract at a
depth corresponding to 14 feet of water on the mitre sills. These
orders applied to all the principal works on the main line of
navigation between Lake Erie and Montreal. Such dimensions would enable
vessels of almost any ordinary build to pass carrying fully 1,000 tons
burden.26
Work on the Lachine, Cornwall and Welland canals was proceeded with
in accordance with these directions. Work on the Welland was completed
for a draught of 12 feet of water except at the point where the canal
was carried by an aqueduct over the Chippawa River, where the draught
was limited to 11-1/2 feet for vessels using their own motive power. For
vessels in tow, however, the draught could be 12 feet. At the same
time a new scale of navigation was adopted for the route between
Montreal and Ottawa. Here the dimensions of the new locks at the Ste.
Anne, Carillon and Grenville canals were fixed at 200 feet by 45 feet,
the depth of water on the sills at 9 feet and on the canals at 10 feet.
The scale of navigation on the Rideau, however, was not
altered.27
Meanwhile St. Peters Canal connecting the Bras d'Or lakes of Cape
Breton and the ocean was the only canal in actual operation in the
Maritime Provinces. Commenced in 1854 by the government of Nova Scotia,
construction was suspended for a time but was renewed again in 1864 and
the canal was finally completed in 1869. Navigation of this canal
extended through Cape Breton Island. Boularderie Island divided the
channel from the eastern end to the Bras d'Or lakes. The northern
channel, called the Great Bras d'Or, was about 20 miles long with a
depth of 4 fathoms, while the southern channel called the Little Bras
d'Or was about 12 miles long with a depth of 7 fathoms. Proceeding
eastward across the Little Bras d'Or Lake one reached Barra Strait,
about one mile long and half a mile wide, and this point was considered
to be the head of tidewater. Then one proceeded across the Great Bras
d'Or Lake and through St. Peters Inlet, 6-1/2 miles long. There one
reached the St. Peters Canal, cut through the isthmus, and passing
through the canal reached the western end of the navigation at St.
Peters Bay. As completed in 1869 the canal was 2,400 feet long and 26
feet wide at bottom. It contained only one tidal lock 122 feet long by
26 feet wide at water surface and a depth of 13 feet on the sills. The
canal had four pairs of gates at St. Peters Bay. It was seen at once
that the canal was altogether too small to handle
the traffic offering. Accordingly in 1872 the government decided to
include St. Peters in their general scheme for enlargement of canals.
Surveys were made in 1872-73, and in 1875 a contract was let for
enlarging the canal and lock to the following dimensions: lock 200 feet
long by 48 feet wide with 18 feet of water on the mitre sills at low
tide and a width in the prism of canal of 48 feet. While this work was
being done St. Peters was closed to navigation from June, 1876, to
October, 1880.28 The canal was again closed to navigation for the period
from December, 1894, to November, 1895, to permit the renewal of the
four pairs of lock gates and to make repairs to the lock bottom.
St. Peters was an important factor in the general coasting trade of
Nova Scotia and Prince Edward Island. Much of the coal shipped from
Sydney to the maritime ports passed through it as well as limestone from
the quarries in the Bras d'Or lakes en route to Charlottetown. There
was also a large quantity of farm produce carried through the canal from
Prince Edward Island to points in Cape Breton. Moreover, at one time a
considerable quantity of gypsum passed through the waterway from the
Bras d'Or Lakes to the United States, but this traffic ceased when it
became unprofitable owing to the size of the canal limiting the size of
vessels engaged in this trade. During the 1911 season of navigation,
1,253 vessels were passed through St. Peters. In addition to these a
large number of small craft (principally fishing boats measuring from 7
to 10 tons burden) used the canal.
In September, 1910, the resident engineer inspected the canal and
found the whole of the works in a very bad state of repair. Therefore,
in August 1911, tenders were invited for the construction of a new lock and entrance at the Atlantic end of the
canal. The lock was to be 48 feet wide by 300 feet long between
gates opening in the same direction. It provided for a depth of 18 feet
of water on the mitre sills at low tide. It had a rock bottom. The side
walls of the lock, and the entrance walls for a depth of about 400 feet
on each side, were built of concrete. The contract for the work was
signed in November, 1911, but, owing to the lateness of the season, no
attempt was made to commence operations till the spring of 1912. The
depth through the canal was 17 feet.29
Another Nova Scotia canal deserving of mention was the Shubenacadie
Canal connecting Minas Basin and the Bay of Fundy with Dartmouth Cove
in Halifax Harbour by way of the Shubenacadie River, Grand Lake and the
Dartmouth lakes through the counties of Colchester, Hants and Halifax.
This canal was 44 miles long with 15 locks and was designed for a
navigation of 8 feet draught. Francis Hall made the original survey in
1825, and construction was undertaken by a joint stock company under a
charter granted in 1824 by the government of Nova Scotia and afterwards
extended by an act passed in 1827. The province granted lands and a
money loan to the company toward construction of the canal. Work was
started in 1827 but was never completed as originally planned, though a
certificate signed by the governor of Nova Scotia in 1862 states that
the water communication between Halifax Harbour and Minas Basin was
then completed. No practical use was ever made of the work as a canal.
It was designed for the purpose of conveying lumber, minerals, gypsum
and grain from ports on the Bay of Fundy to Halifax, there to be shipped
abroad.30
Before leaving the Maritimes a brief mention should be made of yet
another canal project. Since the high tides and the silt-laden waters of
the Bay of Fundy were major difficulties in the construction of the Baie
Verte canal,31 H. G. C. Ketchum, an engineer, projected a
ship railway to transport vessels a distance of 17 miles from Amherst,
at the north of the LaPlanche River to Tidnish on Baie Verte. Ketchum
first revealed his plans and details of the scheme at the Mechanics'
and Manufactures' Exhibition at Saint John, New Brunswick, in 1875.
Seven years later the Chignecto Marine Transport Company was
incorporated with a total share and bond capital of $5.5 million to
carry out the project. In 1886 the dominion government granted the company an annual subsidy of
$170,602 for 20 years, or such portion of that time as might
expire before the company earned 7 per cent on its authorized share and
bond capital. If the earnings exceeded 7 per cent per annum, the
surplus over and above that amount was to be paid to the government
until the whole subsidy paid had been refunded. On its part the company
engaged to construct works capable of raising, transporting and lowering
vessels of 1,000 register tons with full cargo.
Construction was begun at Amherst on a large dock equipped with gates
30 feet high to retain the water after the recession of the Fundy tide.
This dock was 530 feet long, 300 feet wide and 40 feet deep. It was
large enough to accommodate at one time six vessels of 1,000 register
tons each.
Once a vessel was in the dock it was to be guided over a huge lift
equipped with a ship carriage or cradle, which ran on two hundred and
forty wheels. Power from twenty large hydraulic presses was then to be
applied to the lift and the ship
elevated to the level of the railway on land. Heavy locomotives were
then to draw the carriage with its marine burden on double tracks at the
rate often miles an hour to the terminus of the line, where, by similar
means, it was to be lowered into the water. At Tidnish, the Northern
terminus, a dock with gates was not necessary because the tides of
the Gulf of the St. Lawrence had a range of only from six to seven
feet.32
Though the project appeared practicable from an
engineering point of view, it was never completed. Construction was
started and continued for a time and it was thought that the undertaking
might be finished in 1892. However, financial difficulty forced
suspension of the work. The dominion government extended the completion
date but asked for some assurance that capital to complete it was
available. No such assurance was given and the subsidy lapsed. "The
partially completed Chignecto ship railway remains only as a sorry monument
to millions of dollars of wasted capital."33
At the same time (1876-80) as the St. Peters Canal in Cape Breton was
being enlarged and improved, the St. Francis Canal was being built in
western Canada. Situated near the outlet of Rainy Lake on the north
side of Grand Falls, this canal was located 237 miles northwest of
Prince Arthur's Landing on Thunder Bay and 215 miles southeast of Fort
Garry, Manitoba. Its purpose was to improve transportation between Lake
Superior and the Red River country by opening the navigation of Rainy
Lake with that of Rainy River and the Lake of the Woods. In 1875 work
was begun on the canal to be 800 feet long by 36-1/2 feet wide with one
lock 200 feet long by 36 feet wide having 7 feet of water on the sills.
In January, 1879, it was reported that the lock was nearly completed but that the lock gates
should be deferred until the materials for such a purpose could be
brought by the C.P.R. However, due probably to the operation of the new
C.P.R. line from Thunder Bay to Manitoba, further construction was
discontinued, the outstanding debts were settled and the project left
unfinished. The total cost up to the time the work was suspended
equalled $288,275.51.34
Another work in western Canada was St. Andrew's Lock located on the
Red River in Manitoba and first opened to traffic in 1910. Built and
operated by the Department of Public Works, St. Andrew's consisted of a
lock and dam at Lockport on the Red River about 15 miles north of
Winnipeg and afforded communication between that city and Lake Winnipeg.
In 1912, 95,549 tons of goods passed through consisting almost entirely
of forest and mining products.35
One projected canal, which was seriously considered during the
decade of the seventies and on which some work was done, was the Ottawa
ship canal.36 During the decade following confederation
steamboat navigation on various portions of the river above the city of
Ottawa extended as far as the mouth of the Mattawa River, a distance of
192 miles. Of this distance, 120 miles between Ottawa and Joachim Rapids
were navigable for vessels of 6 feet draught of water, and 50 miles
between the Joachim Rapids and the mouth of the Mattawa for vessels of
from 3-1/2 feet to 2 feet draught during low water. Among the principal
obstructions to a continuous line of navigation were the rapids of
Calumet situated 66 miles above the city of Ottawa. The Culbute Canal was
built to overcome this destruction by connecting the navigation between
the village of Bryson at the head of the Great Calumet Falls and the
village of Aberdeen at the foot of the Joachim Rapids, a total distance
of 77 miles. The canal was commenced in 1873 and completed in 1876. It
comprised two combined locks of 200 feet by 45 feet each with 6 feet of
water on the sills. Two submerged dams were constructed in order to
raise the water in the north channel of the Ottawa from Bryson to
Culbute; one of the dams was on the north channel below Bryson near the
foot of Calumet Island and the other dam was on the south channel toward
the head of the same island.37
IV
i
After 1880 there was a renewed interest in canal construction due in
part to the greater attention being given to the problem of providing
cheap transportation for the shipment of grain from the expanding area
west of the Great Lakes. Already in 1871 the royal commission studying
canals regarded the construction of a Canadian canal at Sault Ste. Marie
as "the natural commencement of the improvements of the inland
navigation of the Dominion."38 The relatively slow development of
commerce on Lake Superior largely accounts for the comparatively late
construction of this canal in the St. Marys River connecting Lake
Superior and Lake Huron. Previously a ship canal with 11-1/2 feet depth
and two locks to connect Lake Superior and Lake Huron had been
constructed on the United States side of the river between 1853 and 1855
by the state of Michigan. Finally in 1887 the Canadian government made a
survey of the ground and contracts were let for the construction of a
canal on St. Marys Island.39 The work was divided into
three sections.40 The first commenced at the navigable
channel of St. Marys River below the rapids and extended upstream to the
foot of St. Marys Island a distance of 5,300 feet. The second extended
from the foot to the head of St. Marys Island, a distance of 3,500 feet,
and embraced the excavation of the prism of the canal and lock pit, the
guard gate, side walls, etc. The third section extended from the head of
St. Marys Island 9,300 feet to the navigable channel of the river. A
contract for the lower entrance was entered into on 30 January 1889; for
the upper entrance on 26 March 1889; and for the canal and lift lock on
20 November 1888. The project, as covered by these contracts,
contemplated a lock chamber 600 feet long and 85 feet wide with a depth
of water on the sills of 16-1/4 feet at the lowest known water level.
However, the possibilities of the Canadian West developing as a
wheat-producing country resulted in pressure being applied to the
Canadian government to increase the dimensions of the lock. Whereupon,
under authority of orders in council of 21 May and 3 June 1891, a
supplemental agreement was entered into with the contractors for the canal and
lock whereby the following dimensions were to be adopted; length of lock
in chamber 650 feet, width 100 feet, depth of water on the sills 19
feet, the time for completion being extended one year to 10 May 1893.
Further discussion took place in Parliament during the session of 1891
regarding the desirability of making the entrance of the lock in a
straight line with the walls of the chamber. A second supplemental
agreement was therefore made with the contractors on 5 April 1892, the
dimension of the lock to be as follows: length of chamber 900 feet,
width 60 feet throughout, with a depth of 20 feet 3 inches of water on
the sills at the lowest recorded stage of the water in the river below the lock,
the date for completion being fixed as 31 December 1894.
The desirability of completing the work at an earlier date resulted
in a further agreement being made with the contractors on 8 November
1892 for the completion of all works under their contracts by 1 July
1894, including the deepening of the canal prism to a further depth of
4 feet, making it 22 feet below the lowest known river level. The
contract for the electric light and power plant for the canal was
awarded to the Canadian General Electric Company, 9 May 1894. The large
lock permitted three vessels, one behind the other, to be locked through
simultaneously; one of the lake type 320 feet long and two of the
Welland Canal type 255 feet long, with ready means of entrance and exit
on a course through the gates and lock straight with the line of the
canal. It was opened for navigation in 1895 and the increase in traffic
over the next decade was astounding. With the development of the
Canadian West there was a steady growth in the volume of water-borne
wheat while the development of the mineral and timber resources along
the north shore of Lake Superior added to the volume of trade. Moreover,
the tendency at the time was to increase the size and carrying capacity
of vessels resulting in a greater flow of goods.
The following figures will give some indication of the volume of
traffic pouring through the Canadian canal at the Sault at the turn of
the century. During the 1901 season the total movement of freight was
2,820,394 tons carried in 4,204 vessels with 2,910 lockages. Of wheat,
9,639,627 bushels, and of other grain, 2,769,425 bushels passed
through the canal along with 1,245,243 barrels of flour, 1,596,549 tons of
iron ore, 510,393 tons of coal, and 12,553,948 feet of
lumber.41 Two years later during the 1903 season, these
figures rose to 5,511,868 tons of freight carried in 4,351 vessels with
3,242 lockages. Of wheat, 32,232,315 bushels, and of other grain,
6,154,448 bushels passed through the canal along with 2,808,927 barrels
of flour, 2,683,000 tons of iron ore, 998,780 tons of coal and
30,609,187 feet of lumber.42
ii
The year which saw the Canadian government survey the ground for the
Sault Ste. Marie Canal also saw the completion of the third or New
Welland Canal, begun about 1873, to a depth of 14 feet. The first
Welland Canal completed in 1829 with locks 100 feet long by 22 feet wide
carried all the traffic between the lakes until 1845. The second canal
opened in 1845 had locks 150 feet by 26-1/2 feet with 9 feet of water on
the mitre sills. After being in operation only eight years, it was found
to be too shallow and the lock walls and banks were raised to allow
vessels of 10 feet draught to pass through. Moreover, the locks were
eventually enlarged to 200 feet by 45 feet with a depth of 19-1/4 feet on
the mitre sills. This canal was in operation till 1881 when it in turn
was replaced in 1883 by the New Welland with locks 270 feet long by 45
feet wide with 12 feet of water on the sills.43 However the
canal was not completed before a further change was made. The lock walls
and banks were again raised to allow vessels drawing 14 feet of water to
pass through. The new completed canal had 26 locks, one less than the
old line.
The Welland Canal now had two entrances from Lake Ontario to Port
Dalhousie, one for the old, the other for the new line. From Port
Dalhousie to Allanburg, 11-3/4 miles, there were two distinct lines of
canal in operation, the old line and the enlarged or new line. From the
head of the Welland Canal a deep water navigation extended through Lake
Erie, the Detroit River, Lake St. Clair, the St. Clair River, Lake Huron
and the St. Marys River to within a short distance of the Sault canal, a
length of 394 miles.44 A glance at the following figures will
give some indication of the quantity of freight passing through the New
Welland Canal in the years immediately following its opening. During
the season of 1892, 955,554 tons moved through the canal of which
quantity 929,946 tons was through freight and 25,608 tons local freight;
685,348 tons of freight passed eastward and 270,206 tons passed
westward. Canadian vessels carried 245,739 tons of the through eastbound
freight and United States vessels carried 420,527 tons. Of the westbound
freight Canadian vessels carried 22,267 tons and the United States
vessels 241,413 tons.45 The quantity of grain (barley, corn,
oats, peas, rye or wheat) which passed down the Welland to Montreal from
ports west of Port Colborne increased from 180,694 tons in 1882 to
261,954 in 1892.46 The total quantity of freight passed eastward
through the Welland and St. Lawrence canals from Lake Erie to Montreal
in 1892 was 263,144 tons, and westward from Montreal to Lake Erie was
9,452 tons.47 The total quantity of freight passed eastward
through the Welland Canal from United States ports in 1892 was 300,733
tons and westward 240,332 tons.48
33 Plan showing location of the Welland
Ship Canal in the Niagara Peninsula.
(Annual Report, 1915-16, Dept. of
Railways and Canals.) (click on image for a PDF version)
|
iii
The Soulanges Canal, constructed during the 1890s, was a principal
and most important link in the enlarged St. Lawrence navigation. Ever
since the royal commission had reported in 1871 recommending a scheme
of canal enlargement, much thought had been given to the problem of how
best to obtain the required canal accommodation between Lakes St. Louis
and St. Francis. A decision had to be made whether to enlarge the
existing Beauharnois Canal on the south side of the St. Lawrence by
which the intervening rapids were then surmounted, to construct a
new canal on the south side, or to construct a new canal on the north
side of the river. As early as 1872-74, surveys were made for an
enlarged canal between Lakes St. Louis and St. Francis. These surveys
reported in favour of a route between Coteau Landing and Cascades Point
on the north shore with a 12-foot navigation, the scale adopted prior to
1875. Between these two points the fall in the river was relatively much
greater than on any similar length of the St. Lawrence between Lake
Ontario and tidewater. Following these surveys of 1872-74, nothing
further was done in this matter until 1889 when extensive excavation was
begun with a new 14-foot navigation. Finally after considerable
discussion, the government adopted the line recommended in the early
part of 1891. An order in council, dated 7 February 1891,49 decided upon
the construction of the new work on the north side of the river and
adopted a line extending upward from Cascades Point to Macdonald's
Point near Coteau Landing. As contemplated by the order in council, the
canal would be on practically a straight line 14 miles long comprising
five lift locks overcoming a total rise of 82-1/2 feet. Four of the locks
would lift 17-1/2 feet each and one was of variable lift along with a guard lock
at the upper end of the canal. The dimensions of the locks were those of
the enlarged system; namely, 270 feet long, 45 feet wide with a depth
of 14 feet of water on the sills. The summit level was about 10-1/2 miles
long and for more than half of this length the canal would be in
embankment below the mean level of Lake St. Francis.50
To ensure rapid transit and the minimum cost of maintenance, the
most up-to-date and most approved system of construction and operations
was adopted for the Soulanges Canal.51 Construction plans for
it differed significantly from those hitherto carried out on the
enlarged Welland, Cornwall and Lachine canals. Concrete was used where
deemed advisable throughout the locks and weirs instead of stone
masonry and timber, as was previously used. For example, the
foundations in the lock bottoms were entirely of concrete and stone
instead of the usual timber. The Soulanges had side walls differently
proportioned to those of the Welland with a heavier cross-section and
wider base. The locks were filled and emptied through culverts formed in
the side walls running the whole length of the chamber and connected
with it by numerous openings. The upper gates were placed upon a curved
breast of solid masonry, while none of the gates were pierced by valve
holes and all were operated by electrical power. Moreover, the weirs
regulated the height of water in the several reaches by an automatic
electrical apparatus connected with their sluice gates and the water
would therefore not be partly discharged over a breast as
heretofore.
The position of the Soulanges Canal, as regards line and level in
relation to the river, was peculiarly advantageous for the cheap development of
electrical power to be used on the operation of all structures, the
lighting of the canal and, if practical, the introduction of cable or
some other system of towing vessels of full size (about 2,000 tons)
safely and expeditiously through without using their own power. The
point selected for the power station was at the crossing of the
Rivière-la-Graisse on the south bank of the canal. The site had several
advantages. It was only 600 feet from the St. Lawrence and the surface
of the canal was 20 feet above that of the river. It was calculated that
only 10 per cent of a moderate flow through the prism at this place
would yield between 500 and 1,000 horsepower. When completed and opened
to navigation in October 1899, the Soulanges Canal overcame about
two-fifths of the entire lockage between Montreal and Kingston
the average lift lock being more than twice that which obtained on the
other river canals.52 As soon as it was open to navigation,
the canal was a huge success. Along its whole length on the north side,
closed arc lamps of 2,000 candlepower were placed 480 feet apart while
at the locks and entrance piers they were much closer and on both sides.
The result was that the canal was easily navigable by night thereby
practically doubling the carrying capacity of this important link in the
St. Lawrence navigation. The electrical operation of the entire canal
proved completely successful and expeditious; the passage through the
whole canal and its five locks, 14 miles, required only 2 hours and 25
minutes. Moreover, at the same time as the canal was opened to navigation,
a new system of grain traffic came into operation, that is,
large lake boats laden with grain for export put in at Depot Harbour on Georgian
Bay; the cargo was then transhipped over the line of the Canada Atlantic
Railway to Coteau Landing at the head of the Soulanges Canal, and
thence by barge to Montreal. In the season of 1899 the total freight
carried by this route to Montreal totalled 309,573 tons, of which
259,531 tons were grain.53
Prior to 1914 the need for electrical power led to the construction
of power projects on the Soulanges section of the St. Lawrence extending
from the foot of Lake St. Francis to the head of Lake St. Louis, a total
distance of 18 miles. The oldest of these was the St. Timothee plant
of the Canadian Light and Power Company with an installed capacity of
28,800 horsepower. This plant was brought into operation in 1911. It
drew water from the abandoned Beauharnois navigation canal and operated
under a head of about 50 feet. The Cedars Rapids plant of the Quebec
Hydro-Electric Commission was the next one to be put into operation in
1914. This powerhouse was located on the north shore of the river at the
foot of the Cedar Rapids. An agreement with the Canadian government
allowed the plant the use of 56,000 cubic feet per second in perpetuity
which could be increased to 75,000 c.f.s. during the non-navigation
season.54
iv
Yet another of the projects undertaken at this time to improve the
St. Lawrence-Great Lakes navigation was the construction of the Murray
Canal extending through the Isthmus of Murray and affording a
connection westward between the headwaters of the Bay of Quinte and Lake
Ontario, thereby enabling vessels to avoid the open lake
navigation.
Construction of the canal required that a 4-1/2 mile long cut be made
through the isthmus along with extensive dredging and erection of piers
in order to form the entrance channels at either end. When completed the
canal was practically a "strait" or channel without locks. From the
western terminus near the village of Brighton on the harbour of
Presqu'lle on Lake Ontario, the future western terminus of river
navigation to Port Dalhousie, the entrance to the Welland Canal, the
distance was slightly less than 120 miles. A contract was entered into
on 24 August 1882, for the construction of the canal with a length of
5-1/6 miles between eastern and western pier heads, 80 feet wide at
bottom across the isthmus and with a depth at low water of 12-1/2 feet.
According to the contract the canal was to be completed by 1 June 1885,
but the work was actually not finished until August 1889.55 Traffic
through the canal during the 1894 navigation season totalled 21,885 tons
of which 8,360 tons were produce of the forest.56
Throughout the 1890s the Lachine Canal was being continually
improved. Such improvements consisted of (a) the construction of a large
regulating weir to permit a great quantity of water being introduced
into the canal in order to keep the upper reaches at the proper level,
and (b) the deepening for a 14-foot navigation between St. Gabriel and
Lachine locks, a distance of 6-1/5 miles. The contract for the deepening
of the prism of the canal to 15 feet was awarded in September 1894, the
work being carried on night and day during the season of navigation
until it was completed at the end of April 1899.57
v
It has already been pointed out that, in order to make the St.
Lawrence navigable by vessels of the same class as passed through the
Welland Canal and to carry out the general scheme of enlargement adopted
by the government, work was commenced on the Cornwall Canal in 1876
a canal originally designed and constructed to allow vessels to
surmount the Long Sault Rapids extending from Cornwall to Dickinson's
Landing, a distance of 11-1/2 miles with a rise of 48 feet. The original
channel was now deepened, widened and straightened; the embankments were
improved, and enlarged locks were built 270 feet long by 45 feet wide
with not less than 14 feet depth of water on the mitre sills when the
river was at its lowest stage. In order to facilitate construction, the
canal was divided into nine sections. Work was commenced with section I
at the lower eastern entrance in 1876 and was finished in 1882. Work
was done next on section X commencing in 1884 and being completed in
1895. Work to complete the upper entrance, consisting in the extending,
strengthening and widening of the channel of the north or landward side
of the present entrance from deep water west of the upper gates for a
distance of about 3,500 feet, was let under contract in September 1899
to be completed in November 1900.58 At the same time the old locks were
kept in a state of good repair so that they could be used in case of
accident to the new ones by the class of vessels hitherto employed on
the St. Lawrence.59 Improvements on the Cornwall Canal were
finally completed in 1905 with the installation of electrically driven
winches for hauling vessels through the locks.60
Meanwhile work was progressing with the entire enlargement of the
St. Lawrence canals to the 14-foot depth, though this was not finally
attained until 1904. Farran's Point Canal, situated about 5 miles west
of the village of Dickinson's Landing, the head of the Cornwall Canal,
was built to overcome the short swift rapid above the village of
Farran's Point and was about three-fourths of a mile long with a
lockage of 3-1/2 feet. It was first opened to traffic in 1847 for 9 feet
navigation. Enlargement having been authorized, a contract was entered
into in June 1897 to undertake the work which consisted of forming a new
eastern or lower entrance north of the original and free from the eddies
produced by the rapids. A new flotilla lock 800 feet long and 50 feet
wide with 14 feet of water on the sill at the lowest known stage of the
river was constructed (extending from deep water at its eastern entrance
to a point 200 feet west of the old lock and nearly parallel to it on
the north side). Also the old channel was deepened and straightened to
the head of the old canal and extended through Point Avoyon to Empey's
Bay. The old lock was kept in good repair so that it could be used in
case of accident to the new lock, which was ready for traffic in
September 1899 and immediately used by all heavy draught vessels.
Dredging of the canal channel resulted in more than 14 feet depth of
water being available at the lowest stage of the river.61
In November, 1888, a contract was let for the widening and deepening
of the upper entrance of the Galops Canal and for the construction of a
lift lock from the river below the Galops Rapids about 4,000 feet from
the upper entrance together with a guard lock and supply weir to the
canal adjacent to that point. Both locks were completed and the water
admitted to them in October
1894. By the use of this new lift lock, vessels able to stem the
currents of the Iroquois and Cardinal rapids could dispense with about 7
miles of canal passage traversing only the 4,000 feet between the lock
and the upper entrance in order to pass the Galops Rapids. As a result
no steps were taken toward the enlargement of the 7 miles of canal east
of the lock. In the river opposite the canal the formation of a new
channel through certain areas in the Galops Rapids was completed in
1888. The improved channel was 3,300 feet long and 200 feet wide, the
intention of the government in creating the new channel being to afford
a safe passage to a low stage of the river water for vessels drawing 14
feet. Since it was considered advisable to allow a clear margin of 3
feet below the keel of a vessel of this draught, the channel had a depth
of 17 feet.62 One further word about improvement of the
Galops Rapids. In 1904 a dam was built with an extreme length of 900
feet and a maximum depth of 17 feet in what was known as "The Gut"
between the Canadian Adams Island and the American Les Galops Island.
The primary object of the dam was to shut off a side or cross current in
the Galops Rapids and thereby render that channel safer for the passage
of vessels. A secondary object was to raise the water in the upper
entrance of the Galops Canal by lessening the cross-sectional area of
discharge of the river. The depth of water on the sill of lock 27 at its
lowest known stage was only 13 feet. The objects of the dam were
attained when the current crossing the Galops Rapids channel was
overcome and the water in the upper entrance of the Galops Canal was
raised.63
The Rapide Plat Canal enabled vessels ascending the river to pass
the rapids at that place. Descending vessels ran the rapids safely.
Improvement of the Rapide Plat Canal consisted of the enlargement of the
channel way above, and for some distance below, the existing guard lock
at the head of the canal. A new guard lock was constructed along with a
supply weir in connection with the old lock. The bottom of the channel,
for a distance of about 1,000 feet below, and out about 700 feet into
deep water above the lock, was excavated to afford a navigable depth of
14 feet. The new lock was completed in
1888. In January, 1891, contracts were awarded for the enlargement of
the remaining portion of the canal, including the lock at the lower
outlet.64
V
i
The turn of the century found a large immigration pouring into
western Canada, cultivating vast areas of wheat lands, resulting in an
immense increase in the western grain crop. Realizing that the shipment
of western grain was the most urgent transportation problem of the day,
the federal government set up a royal commission to make "an
investigation of questions affecting the transportation of Canadian
products to the markets of the world through and by Canadian ports with
the view of ascertaining as far as possible the best means of placing
such products in a position to compete successfully through all Canadian
channels with the products and exports of other countries."65
The bulk of the western grain poured by way of the railways from the
place of production through the elevators at the Lakehead, then eastward
through the Great Lakes to ports convenient for export trade. To grain
passing eastward through Sault Ste. Marie the problem
was one of providing the cheapest, quickest and best route or routes
from the elevated Great Lakes system to ocean navigation.
At this time Depot Harbour and Midland were the principal ports on
Georgian Bay. Established by the railway companies in order to afford a
convenient and short rail route to Montreal the Canada Atlantic
Railway running from Depot Harbour and the Grand Trunk Railway from
Midland a large movement of grain passed through these ports
along the increasingly important route by way of Georgian Bay. When
testifying before the royal commission, C. M. Hayes, general manager
of the Grand Trunk Railway, stated in reference to the Midland route:
"The grain comes directly down by our Midland Railway and comes into
the Grand Trunk at Belleville, thence to Montreal. Our plans are for the
reduction of our grades from Midland to what is our present standard .04
per cent (at present 1 per cent is the maximum) and to double track the
line to our main line at Port Hope."66 Improvement of grade
and roadbed would enable the moving of not less than 40,000 bushels in a
train load.
One of the great weaknesses of this Georgian Bay route was its want
of sufficient elevator accommodation. At the same time of year as the
western grain crop was being moved to the seaboard, the railways
operating from the Georgian Bay ports were also moving large quantities
of general merchandise, as well as United States grain, and, partly
because of this traffic, the railways did not move forward the western
grain as rapidly as was necessary in order to prevent congestion. The
royal commission studying this whole problem therefore strongly
recommended that a competent board of engineers be appointed to lay out the
harbours of both Depot Harbour and Midland on a broad comprehensive
plan, and also that the government undertake the construction of a
system of elevators at each of the ports so as to provide proper storage
capacity at each place for at least 10 million bushels.67
ii
By the all-water route via the Welland and the St. Lawrence canal
system the distance between Fort William and Montreal was 1,220 miles.
Vessels carrying up to 70,000 bushels of wheat could pass through the
Welland Canal with its locks 270 feet long, 43 feet wide and 14 feet
deep, but larger vessels drawing more water had to discharge at Port
Colborne on Lake Erie the surplus of their cargo above 70,000 bushels
either in lighters or into freight cars of the Grand Trunk Railway for
transportation by rail. The lighters passed through the Welland and
their cargo was loaded into vessels at Port Dalhousie on Lake Ontario,
going then to Kingston or Prescott where the surplus was again
discharged into lighters and the remainder carried through to Montreal
on original vessels, stored or discharged into other craft at Kingston
or Prescott. The commission strongly recommended the speedy completion
of the 2-million-bushel elevator at Port Colborne along with other
improvements at that port. The commission recommended the enlargement
and deepening of the Welland Canal to the standard of the Sault Ste.
Marie Canal, thereby enabling vessels of the largest size to continue
their voyage to Kingston or Prescott and thus bring their cargo within
180 miles or less of Montreal before discharging it. Such an enlargement
of the Welland was urged upon the commission by those private interests at Kingston
engaged in providing excellent facilities for the transhipment
business. They wished to see the large vessels plying on the upper lakes
proceeding direct to Kingston with cargo intact without being obliged to
discharge a portion or all of it at Port Colborne.
iii
A matter which gave the commission much concern was the necessity of
extending open navigation in Lake Superior and in particular the
harbours of Sault Ste. Marie, Port Arthur and Fort William. Boards of
trade, including those of Winnipeg, Fort William and Port Arthur,
addressed the commission on this subject urging that a powerful and
properly equipped ice-breaker capable of overcoming two to three and
one-half feet thickness of ice should be supplied by the Canadian
government. It was proposed that such a vessel should accompany the
first upward bound vessels in the spring from Sault Ste. Marie to
Thunder Bay, that the vessel might be utilized by the marine or public
works departments during the summer season, and that in the late fall
the vessel could perform the service of any ice-breaker required at
Thunder Bay prior to its return to Sault Ste. Marie. The commission
believed that, due to the date of the harvesting and shipment of western
grain, any lengthening of the period of fall navigation at the Lakehead
was a matter of great importance from both a national and western
standpoint. At the same tine the flow of immigration into western Canada
along with the movement of enormous quantities of merchandise westward
necessitated the earliest possible opening date in the spring navigation
in Lake Superior.
Every day gained in the delivery of this freight was crucial to the
economy of western Canada. At that time recorded dates of the opening
and closing of navigation at these places showed that the season of
navigation at Sault Ste. Marie under existing circumstances was longer
than at the Lakehead by an average of 19 days. Regarding the paramount
importance of an extended seasonal navigation, T. C. Keefer, in his
presidential address to the Royal Society of Canada in 1898 on winter
navigation declared, "The early closing of the St. Lawrence has been
given as the reason why 75 per cent of our Manitoba wheat was exported
from New York last year and only 25 per cent from Montreal. Whether this
is correct or not, there can be no difference of opinion as to the
importance to Canada of an extension of the length of the season of
navigation if only for one month and also of the value of the earliest
possible reopening of navigation in the spring which would follow a
diminished ice-pack."68
In conclusion the commission recommended a uniform standard depth of
water of 23 feet in all harbours and waterways in connection with the
Great Lakes down as far as the foot of Lake Erie and that such portions
of the harbours of Port Arthur, Fort William, Depot Harbour, Midland
and Port Colborne as were required for present use should be immediately
deepened to that standard.
34 St. Andrews Lock, Lockport, Manitoba, about
1910.
(Public Archives of Canada.)
|
iv
When discussing the port of Midland the commission suggested that it
should serve also as the port for the Trent River navigation upon which
the dominion government had already expended upwards of $6 million. The
commission recommended that this waterway be
completed as soon as possible by way of the Severn River at the
Georgian Bay end and the Trent River on the Bay of Quinte so that its
terminals would lie in protected waters for the greater safety of the
smaller boats and barges to be used along this route. The term "Trent
River navigation" was applied to the several water stretches lying for
the most part along the valley of the Trent River between the Bay of
Quinte on Lake Ontario and Georgian Bay on Lake Huron. The idea was to
form a continuous line of landlocked navigation between the two lakes
by connecting the several water stretches by short canals. The route
contemplated ran along the Trent River, Rice Lake, Otonabee River and
Lakes Clear, Buckhorn, Chemong, Pigeon, Sturgeon and Cameron to Balsam
Lake, to summit water being about 165 miles from Trenton. Then from
Balsam Lake by a canal and the Talbot River to Lake Simcoe; thence by
the Severn River to Georgian Bay on Lake Huron. The total distance was
about 235 miles requiring the construction of only 20 miles of
artificial waterway.
We have already noted that as early as 1835 the imperial government
chose this route as affording the most natural and feasible along which
to make a water communication between the two lakes, and that the
provincial government voted money to construct part of the work but
that the scheme was subsequently deferred. However, a few works were
built and some sections made practicable for local navigation and the
passage of timber. The following figures indicate the distance of
navigable and unnavigable reaches in 1893, a decade before the Royal
Commission on Transportation commenced its inquiry.69
|
| Navigable Miles | Unnavigable Miles |
|
From Trenton, Bay of Quinte, to Nine Mile Rapids |
| 9 |
|
From Nine Mile Rapids to Percy Landing | 19-1/2 |
|
|
From Percy Landing to Heeley's Fall dam |
| 14-1/2 |
|
From Heeley's Fall dam to Peterborough | 51-3/4 |
|
|
From Peterborough to Lakefield |
| 9-1/2 |
|
From Lakefield to a point across Balsam Lake | 61 |
|
|
| 132-1/4 | 33 |
|
The total distance from Bay of Quinte to Balsam Lake was 165 miles. A
branch of the main route extended south from Sturgeon Lake, afforded
communication with the town of Lindsay and continued through Lake Scugog
to Port Perry, 190 miles from Trenton. The branch included 48-3/4
navigable miles and 27-1/2 unnavigable miles.
The following is a list of the works by which the Trent River
navigation was improved by 1900, comprising canals with locks at
Burleigh Rapids, Buckhorn Rapids and Fenelon Falls along with dams at
Lakefield and Young's Point.70 These works afforded
communication between Lakefield 9-1/2 miles from Peterborough and Balsam Lake,
the headwaters of the system, opening up a total of about 160 miles of
direct and lateral navigation.
|
Trenton to Balsam Lake: | Miles from Trenton |
|
Chisholm's Rapids: the work here consisted of a canal and lock, a dam and slide | 15-1/2 |
|
Percy Landing: the work here consisted of a retaining boom for sawn logs | 28-1/2 |
|
Campbellford: the work here consisted of guide boom | 34-3/4 |
|
Middle Falls: the work here consisted of two dams and a slide | 37-3/4 |
|
Crow Bay: the work here consisted a retaining boom | 38 |
|
Heeley's Falls: the work here consisted of a dam and slide | 42-3/4 |
|
Crooks Rapids: the work here consisted of one lock, one dam and slide for timber | 56-1/2 |
|
Whitlas' Rapids: situated below Peterborough, the work here consisted of one lock, one dam and canal | 92-7/8 |
|
Peterborough: the work here consisted of three piers and one boom | 94 |
|
Lakefield: situated 9-1/2 mi. above Peterborough; here the dam at the
head of Nine Mile Rapids of the Otonabee River, completed during 1886-87, maintained
navigation on Katchawannoe Lake to Young's Point. | 103-1/2 |
|
Katchawannoe Lake: the work here consisted of one boom 4
miles long separating navigable and timber channels | 108-1/2 |
|
Young's Point: situated 5 miles from Lakefield; the work here
consisted of one lock and a dam which controlled the water level through
Clear and Stony lakes up to the foot of the Burleigh Canal. |
|
|
Burleigh Rapids: situated 10 miles from Young's Point; the
work here consisted of a canal about 2-1/4 miles long comprising three
lift locks and a few dams and passing
the Burleigh and Lovesick rapids thereby giving communication
between stony Lake and Deer Bay. | 118 |
|
Buckhorn Rapids: situated 7 miles from Burleigh Rapids; the
work consisted of a canal, one-quarter mile long, having one lift-lock;
a dam at this point kept up the level of the water of the lake west of
it as far as Bobcaygeon including Lakes Pigeon, Buckhorn and Chemong. |
125 |
|
Bobcaygeon: situated 15-3/4 miles from Buckhorn Rapids; the
work here consisted of a dam 553 feet long which controlled the water
level up to Fenelon Falls. | 140-3/4 |
|
Fenelon Falls: situated 15 miles
above Bobcaygeon; the work here consisted of a canal, one-third mile
long with two lift-locks, constructed in 1885, and connecting Sturgeon
Lake with Cameron Lake. | 154-3/4 |
|
Rosedale: the work here
consisted of one lock giving entrance from Cameron's Lake to Balsam
Lake. | 162-3/4 |
Branch from Sturgeon Lake to Lake Scugog: |
Lindsay: work here consisted of one lock built by the Ontario
government in 1879. | 161-1/4 |
|
The navigation is, by this work, extended to
Port Perry on Lake Scugog. | 190 |
|
All the above-mentioned locks were 134 feet long by 33 feet wide with
a depth of 5 feet on the mitre sills.
By the turn of the century new construction was under way to make a
continuous line of navigation between Heeley's Falls and the ports on
Lake Simcoe, a distance of about 160 miles.71 Provision was
also made for an eventual draught of eight feet along this new section
of navigation. For many years a
continual subject of complaint was the management of water in the
different regions during the dry season.72 At the time the
regulation of water was under three different managements: the federal
government, the provincial government and private industry. The immense
country drained and becoming every year more cleared created increasing
difficulty in the proper regulation of the water which was running off
more rapidly in the spring with few dams to conserve it. Around
Peterborough the regulation of water was most unsatisfactory owing to
the mills at Young's Point, Lakefield, using all the
surplus.73 Any temporary stoppage in the mills greatly
reduced the entire flow in consequence of which the mills located below
Peterborough often had to cease operation for a time. Hence negotiations
were opened between the federal and provincial governments for the
transferral of the several dams (over 50 controlling some 70,000 acres of
water in which over 25 billion cubic feet of water could be stored) from
the province to the dominion. These dams to some extent controlled the
water in the north country and it was proposed to extend the system for
the benefit not only of the navigation of the Trent waterway but also of
the commercial interests located along it. Finally in 1905, under an
order in council, various lakes and 50 dams were taken over by the
federal government of which 36 were constructed of concrete and the
remainder of timber.74
Traffic on the Trent waterway nearly doubled during the decade of the
nineties, the total number of lockages increasing from 2,500 in 1893
to 5,442 in 1903.75 However, this did not fairly represent the traffic
on the waterways as, owing to many of the longer routes of the steamers
not passing through the
locks, no record of the traffic was kept. There were at the turn of
the century over 30 vessels engaged in commerce between Lakefield and
Balsam Lake besides a large number of small steamers belonging to
private individuals. There were also several steamers on the reach
between Peterborough and Heeley's Falls and several on Lake Simcoe.
Many of the larger steamers were of considerable size, some of them
carrying as many as 450 passengers.
Meanwhile improvement of the Trent waterway continued. A new
hydraulic lift lock near Peterborough was formally opened for traffic in
June 1904.76 The occasion was one of considerable interest especially
from an engineering point of view. The lock in a single operation raised
or lowered a vessel of the ordinary type, 800 tons capacity, used on the
canal, a distance of 65 feet in three minutes actual movement. Not only
was it the only lock of its kind in North America but it was double the
size of any of the three existing in Europe. In 1911 a new electric
lighting system was installed at the Peterborough hydraulic lift
lock.77 This not only greatly improved the appearance of the
lock but made it possible to pass boats through after dark.
During the session of 1907 the government decided upon a through
water route from Trenton, on the Bay of Quinte, to Rice Lake by the
Trent River and voted a sum of $700,000 to begin the work.78
Construction was begun that fall. The work carried out on the principle
of damming the river at suitable points by means of dams and connecting
the pools thus created by means of locks. These were 175 feet long by 33
feet wide with 8 feet 4 inches of water on the sills and in the reaches
a minimum depth of 9 feet of water. The 58
miles of river had a fall of 369 feet between Rice Lake and
Trenton.79
By 1914, therefore, the Trent navigation had been greatly improved by
the construction of short canals with locks at Hastings. Peterborough
(from Peterborough to Lakefield there were seven locks, one being an
hydraulic lift), Young's Point, Burleigh Falls, Lovesick, Buckhorn,
Bobcaygeon, Fenelon Falls, Rosedale, and six locks between Balsam and
Simcoe, one being an hydraulic lift at Kirkfield formally opened for
traffic on 6 July 1907. There were also dams at Heeley's Falls,
Hastings, Peterborough, Young's Point, Burleigh, Lovesick, Buckhorn,
Bobcaygeon, Fenelon Falls, Rosedale, and three between Balsam and Simcoe
lakes.80 Also by 1914 there was considerable development of
hydro-electric power along this waterway. The Sidney Electric Power
Company constructed hydro-electric plants at the west end of Dam No. 2
on section 1 of the Lake Ontario-Rice Lake division and at the rear of
dam No. 5 on section 2 of the same division.81 The company
also built a transformer station which was used as a distributing point
for all power generated between Trenton and Frankford. Here the current
was stepped up from 6,600 volts delivered from the power house to 44,000
volts for transmission to various parts of the country.82
The Seymour Power and Electric Company had a generating plant at dam No.
11 on section 5 of the same Lake Ontario-Rice Lake
division,83 while the Campbellford municipal electric plant
was located at dam No. 12.84
v
The Royal Commission on Transportation reported in 1905 that one of
the Canadian routes which merited serious consideration as a possible
artery by which the products of the West could reach ocean navigation was an
all-water route from Georgian Bay down the Ottawa River to Montreal.
This scheme had been proposed many years before and was again revived at
the turn of the century. In 1899 and 1900, under special appropriations
voted by Parliament, surveys were conducted on the upper Ottawa with a
view to ascertaining the feasibility and probable cost of constructing
a canal system which would give a 14-foot navigation along such a
route.85 A special report on the proposed Montreal, Ottawa
and Georgian Bay canal dated 21 March 1901 from the engineer in charge,
H. A. F. MacLeod, contained an estimate of the cost of the proposed
waterway.86 MacLeod based the estimate on (a) the surveys
and estimates of cost made in 1859-60 for a route which left the
Allumette Lakes at the head of Allumette Island and passed down the Culbute
channel through Coulonge Lake and the Rocher Fendu channel, (b) a recent
survey of the summit section from Talon Lake to Nipissing Lake, along
with (c) a recent description of work to be done and estimate of cost
prepared by H. G. Stanton, for a 14-foot navigation between Lake St.
Louis and Ottawa. MacLeod's estimate was for 14 feet navigation with 16
feet in the open reaches and with two sets of combined locks to be
constructed at a cost of $23,898,000, and for a 20-foot navigation the
cost would be $72,627,000. The distance from Georgian Bay to Montreal by
this route would be 430 miles.
Though railway development after 1900 seemed to lessen the urgent
need of the Georgian Bay Canal, the enormous pressure of the grain
traffic on transportation facilities led to periodic revivals of
agitation for building it which
would shorten the distance between Montreal and Sault Ste. Marie by
about one-half as compared with the Welland route. In 1904 Parliament
provided an appropriation for yet another survey of the route. The
report of this survey submitted in 1909, stated that a 22-foot waterway
covering the 440 miles between Montreal and Georgian Bay could be
constructed with 27 locks at a cost of $100 million.87
Following this report nothing further was done except to construct
storage works on the upper Ottawa to regulate the flow of the river for
power development purposes. The tremendous cost of the undertaking and
the time that would be consumed by vessels in passing through the locks
were serious drawbacks to the accomplishment of this project.
VI
The Washington Conference in 1871 found Great Britain and the United
States discussing the reciprocal use of Canadian and American canals. On
18 March 1871 the American commissioners proposed that Canadian and
American vessels should have equality of treatment in these
canals.88 The British commissioners replied, however, that
the privilege of using the Canadian canals was a much greater concession
to the Americans than the privilege of using the American canals was to
the Canadians. Thereupon the Americans suggested that Canada concede the
navigation of the St. Lawrence and the use of the Canadian canals and in
return the United States would give to Canadians the navigation of Lake
Michigan and the use of the canals in the United States. But the
British commissioners declined this proposal. They suggested, instead,
the same arrangement with regard to the canals and
added as a part of the bargain "a reciprocal agreement as to transit
and transshipment" and a pledge by Canada not to impose export duties on
logs floated down the St. John River for shipment to the United States.
The American commissioners assented to this but they desired further and
it was agreed "that the transshipment arrangement should be made
dependent upon the non-existence of discriminatory tolls on the Canadian
canals."89 By Article XXVII of the Treaty of Washington,
Great Britain and the United States respectively agreed to urge on
Canada and on the separate states concerned to accord navigation of
their canals on terms of mutual equality to the people of both
countries.90 That compact was honourably kept by Great
Britain and Canada whose canal policy was in no way antagonistic to the
letter or spirit of the Treaty of Washington. American barges took
Canadian lumber from Ottawa, through the Ottawa River and Chambly
canals, for the markets of New York and returned with American coal for
Canadian consumption.91 They used these canals on exactly the
same terms as barges of Canadian registry. Unfortunately the compact
made was not kept by the United States. No Canadian boat or barge was
permitted to carry Canadian lumber to the markets of Troy and Albany or
bring American coal for Canadian use through any of the New York
canals.92 So much for Article XXVII of the Treaty of
Washington.
Article XXX of the treaty pertained to reciprocal agreement as to
transit and transhipment. According to this article Canadian vessels
could carry goods from an American port to a Canadian port; those goods
could be hauled by rail to another Canadian port and shipped from there
in a Canadian vessel to an American port. Added to Article XXX was the clause,
insisted upon by the American commissioners, declaring that this
transit business should be stopped if canal toll discrimination should
be resorted to by Canada.93 No discrimination was practiced
or charged but the transit trade grew to such proportions as to attract
attention. Where upon the United States gave notice of its desire to
secure the abrogation of Article XXX, and abrogated it was in 1885.94
Thus the equivalent for the free use of the canals, which permitted the
transportation of grain from Duluth to Collingwood, and from Coliingwood
to Toronto and thence to Ogdensburg, was withdrawn.
Prior to 1883 tolls were paid by shipping on the St. Lawrence and
Great Lakes and also on the Erie Canal. In that year, however, tolls on
the latter were abolished. The natural consequence of the action was
that more lake traffic tended to flow to New York by this route. To
counter this development tolls on grain passing through the Welland
Canal were halved in 1884 upon the urgent requests of forwarders and
other groups interested in the grain trade. Before 1884 tolls on grain
for passage through the Welland were 20 cents a ton. In the following
year 1885, tolls were further reduced to 2 cents a ton and this rate
prevailed up to 1892. That year witnessed another reduction to 2 cents a
ton on grain passing down the Welland and St. Lawrence canals and
exported, and in such cases only. An order in council, dated 13 February
1893, reduced tolls to 10 cents a ton on grain passing westward through
the Welland irrespective of destination, and the same rate of toll was
allowed by succeeding orders in council up to and including the year
1900. At this time the rate through the St. Lawrence canal only was 10 cents a ton
but goods having paid full toll on the Welland were allowed to pass down
the St. Lawrence to Montreal free from payment of any further
toll.95 Such progressive reductions in tolls resulted in
marked increase in traffic.
Renewed requests of forwarders and shippers of Montreal, along with
the management of the Canada Atlantic Railway Company, for a reduction
of tolls on certain agricultural products, resulted in the passage of an
order in council, dated 3 May 1901, authorizing a reduction as
follows:
For the season 1901 the canal tolls for the passage of the
following food products, wheat, indian corn, pease, barley, rye,
oats, flax-seed and buckwheat for through passage eastward through the
Welland Canal, shall be 10 cents per ton, and for through passage
eastward through the St. Lawrence Canals, only 10 cents per ton, payment
of the said toll of 10 cents per ton for passage through the
Welland Canal to entitle these products to free passage through the St.
Lawrence Canals, or any portion thereof; further, in the case of any of
the above named products brought down from Parry Sound over the line of
the Canada Atlantic Railway Company to their elevator at Coteau Landing,
the through rate thereon from that point to Montreal, to be 2-1/2 cents
per ton.96
Finally, in 1904, tolls were abolished on the St. Lawrence-Great
Lakes route, and all shipping was free to use the Canadian or United
States locks at Sault Ste. Marie without fee of any
kind.97
In 1909 a treaty was signed between Canada and the United States
regarding "boundary waters" extending between the two countries. By this
treaty both countries could use the waterways. Tolls might be imposed if thought
desirable but only without discrimination as to nationality.
Accordingly, if either country desired to abandon the system of
toll-free canals, it would have to impose tolls on its own shipping. In
accordance with the provisions of the treaty, the International Joint
Commission was created in 1911 as a permanent commission to deal with
the lease, obstruction or division of boundary waters.
VII
The report of the Department of Railways and Canals for 1902 contains
some interesting statistics relating to the competition between
Canadian canals and railways for the transport of western grain, in that
year 151,566 tons of grain and peas passed down to Montreal through the
Welland and St. Lawrence canals, a decrease of 93,095 tons compared
with the previous year. At the same time the Canadian Pacific and Grand
Trunk railways carried 227,700 tons, a decrease of 1,924 tons compared
with the previous year. Over the route from Depot Harbour, on Georgian
Bay via the Canada Atlantic Railway to Coteau Landing at the head of the
Soulanges Canal, thence by barge to Montreal, in the season of 1900, the
total freight carried to Montreal was 319,865 tons, of which 303,259
tons were grain. In the following season 321,016 tons were carried of
which 291,834 tons were grain. Of the grain so carried in 1900, 126,963
tons were wheat and 154,815 corn; and in 1901, 207,403 tons were wheat
and 71,459 corn.98
A glance at statistics relating to traffic on the New York state
canals and railways for the year 1901 shows that the quantity of grain
carried to tidewater on the canals was 355,760 tons, an increase of 46,815 tons over the
previous year while the quantity carried by the railways to tidewater
amounted to 4,630,479 tons, an increase of 234,038
tons.99
By 1907 the growing importance of water transport in Canada was
clearly shown. In that year the quantity of freight carried on the
dominion canals was 20,543,639 tons, an increase over the previous year
of 10,020,459 tons, or 95.2 per cent. Most of this addition was largely
at the Canadian Sault Ste. Marie Canal where the 6,574,039 tons of 1906
were increased to 15,588,165 tons, in 1907. Through the Welland Canal
from points west of it there passed down to Montreal 789,167 tons as
against 479,442 tons in 1906; of this 635,573 tons were grain. One
hundred and two Canadian and fourteen American vessels took their grain
cargoes, 5,168,796 tons, to Montreal without transhipment in 1906. Down
the Welland there passed 840,890 tons of grain to Kingston and
Prescott.100 The two major railways, Canadian Pacific and
Grand Trunk, carried to Montreal 383,735 tons of grain, a decrease as
compared with the previous year of 3,228 tons.101 It was
clear that the use of water transport for certain classes of
commodities, where it was available, was becoming more commercially
desirable. But water transport offered more than the mere conveyance of
goods. It controlled and restricted freight charges as against its
competitor, the railway. Producer, consumer, and the several interests
lying between then, all profited by this control.
Suggestive of the awakened interest of Canadian enterprise in the
problem of water communication from the Great Lakes to tidewater at
Montreal was the statement, made by the superintending engineer to the
Soulanges Canal in his
report for 1902, to the effect that there were then building at
various points on the upper lakes and under contract for delivery in
1903, ten steel freight steamers of full canal size, 255 feet in length
overall, 241-foot keel, 44-foot beam and 18 feet in depth to be fitted
with triple expansion engines. It was estimated that they could carry
2,200 tons of cargo on a 14-foot draught.102 The revival and
expansion, at this time, of the Canadian ship building industry, long
dormant on the Great Lakes, was a highly gratifying development.
Heretofore the United States, England and Scotland supplied the vast
fleet of steel vessels plying these waters. Now, however, Canadian
shipyards, notably those of Coliingwood on Georgian Bay, commenced
building large vessels adapted for carrying 200,000 to 300,000 bushels
of wheat.103 Such shipbuilding is not surprising since, by
the beginning of the 20th century, three great classes of freight
ore, coal and grain were shipped in bulk on the Great
Lakes.104 The ore traffic, the greatest of the three main
classes, moved eastward from the Duluth area at the head of Lake
Superior down to ports on Lakes Michigan and Erie. Much of it was used
at the ports of destination but some of it was subsequently shipped
further inland by rail to centres of the iron and steel industries. The
ore traffic accounted for about 67 per cent of the traffic at Sault Ste.
Marie. Most of this traffic passed down to the Lake Ontario area by
water. Next, but with the flow reversed, was the coal traffic, the bulk
of which reached water at Lake Erie ports and proceeded northwest to the
head of Lake Superior. Some 17 per cent of the traffic passing through
Sault Ste. Marie was made up of this class. The grain traffic
constituted about 11 per cent of the tonnage passing through
the locks at the Sault. These forms of bulk traffic were responsible
for unusual port and shipping developments. The vessels which this
traffic produced were unique boats steadily increasing in size;
the largest with a length of over 600 feet, a beam of 64 feet and a
designated draught of 21 feet.105 These vessels moved the
large bulk cargoes of grain and ore eastward and the return trip when
possible was made with coal. Whereas the ore and coal trade were local,
a very large part of the grain traffic was for destinations overseas
and the problem was how best to get it down to ocean ports from the
producing areas, from the lake terminals to the Atlantic ports,
principally Montreal and New York. Montreal had the advantage of a
through route by water from the head of the lakes at the eastern end of
which the large cargoes had to be transferred to smaller boats or rail
to proceed to Montreal. Waterborne traffic, therefore, shrunk between
Lake Erie and Montreal. Clearly more traffic destined for export would
have continued down to Montreal by water if only the waterway could
have been enlarged to accommodate the large bulk freighter.
35 Locks on the Rideau Canal at the Ottawa end, about 1914.
Note the curved floor of the lock in the foreground.
(Public Archives of Canada.)
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VIII
Because of the bulk freighter and the fact that increased traffic
would likely flow further east in such vessels if facilities allowed,
starting in 1907 the question of enlarging the Welland Canal was raised
by many interests including practical businessmen composing boards of
trade in important cites from Halifax to Vancouver. These men were fully
acquainted with the immediate conditions of traffic on the lakes and,
foreseeing a rapid expansion in trade and commerce between the east and
fast growing west, urged that better means of water communication be
provided between Lake Superior and Lake Ontario. In all
27 boards of trade and other commercial bodies, including the Dominion
Marine Association and the Grain Produce Exchange of Winnipeg, sent
resolutions urging enlargement of the Welland to the Department of
Railways and Canals. The following extract from these resolutions shows
the attitude of the applicants.
The enlargement and improvement of the Welland Canal is a matter
of the most urgent importance to Canada, both as a means of
reducing the cost of transportation of grain and other export
products from the interior to tide-water, and also as a means of making
the St. Lawrence route the highway which it should be, not only for the
export commerce of the Dominion, but also for that of the control and
northern portion of the United States.
That at present the route from the head of the lake to the sea board
via Buffalo and New York enjoys a great advantage in the cheapness with
which grain can be carried from western lake ports to Buffalo, in large
vessels of 10,000 tons and over; that advantage will be further
increased by the enlargement of the Erie canal which has been
undertaken whereby barges of 1,000 tons will replace those of 250
tons now in use on the second portion of this route; and that under
existing conditions the Canadian route via the Welland canal cannot
possibly compete with that via Buffalo and New York, even it Port
Colborne harbour is improved so as to provide the same facilities
for storage and transhipment as are now available at Buffalo, because
additional difficulties and expenses are entailed in providing for
the navigation of the second part of the route, which
includes, with the Welland canal and the St. Lawrence,
the broad exposed waters of Lake Ontario. That on the other hand if
the Welland canal is enlarged and approved so as to permit these large
vessels of the upper lakes to extend their voyages to the full
length of deep water at or below the foot of Lake Ontario, the
longer haul of the large cargoes in unbroken bulk will place the
advantages decidedly on the Canadian route.106
At this time the Welland Canal system contained 25 lift locks whose
dimensions were 270 feet in length by 45 feet in width with but 14 feet
of water on the sills, while the narrow canal prism compelled severe
restrictions on speed. Vessels using the Welland Canal were practically
restricted to dimensions of 255 feet in length and 44 feet beam. They
therefore had a very limited carrying capacity. This gave much concern
to the commercial interests which held that to make a remunerative
voyage from Lake Superior western ports to Lake Ontario eastern ports, a
vessel should be capable of carrying 7,000 to 10,000 tons.107
Any possible enlargement of the Welland Canal required serious
consideration being given to three major factors; (1) the extent of
enlargement, (2) the speed of passage through the new enlarged canal and
(3) the cost of the work. As to the first point it was essential that an
enlarged Welland Canal should at the very least, be able to accommodate
the large class of vessel, from 500 to 600 feet in length, then using
the Sault Ste. Marie Canal. This meant a depth of water 25 feet in the
reaches and not less than 22 feet in the lock gate. It also meant a
widening of the canal prism by about two and one-half times its
present width and increasing its depth to 25 feet. As to the second
point (speed of passage), the multiplicity of lift locks on the
Welland Canal was an unavoidable source of great delay in passage through,
and it was essential that the number of locks should be as limited as
possible. By reducing the number of locks to seven, the normal delays
would be partly reduced and passage through the canal could be effected
in about seven hours instead of the usual fifteen hours for a loaded
vessel of full canal size.108
As a result of all these resolutions and discussions regarding the
enlargement of the Welland Canal, plans were made during the period
1907-12 for the reconstruction of the canal on lines which it was
believed would meet all possible requirements for many years to
come.109 The proposed new canal would follow an entirely new
route from Thorold to Lake Ontario by means of a new cutting to be made
from Allanburg, crossing the existing canal just below lock 25 and
recrossing again below lock 11 with the proposed canal entering Lake
Ontario at the mouth of Ten Mile Creek about three miles east of Port
Dalhousie, the entrance of the existing canal. Above Thorold, however,
the proposed canal followed roughly the route of the existing one,
half way across the peninsula, to Port Colborne on Lake Erie. The lift from
lake to lake remained, of course, the same as before but was now
accomplished, in the proposed new canal, with only seven locks, each
having a lift of 46-1/2 feet, instead of 25 locks as in the existing
14-foot canal. The dimensions of the locks were to be 800 feet in length
by 80 feet in width in the clear with 30 feet of water over the mitre
sills at extreme low stages on the lakes. The width of the canal at
bottom would be 200 feet. It was proposed that at first the canal would
be excavated to a depth of 25 feet only, but all the structure would be
sunk to the 30 foot depth so that the canal could be deepened at any future date by
the simple process of dredging out the reaches. Plans of the proposed
canal called for the construction of twin locks numbers 4, 5 and 6 in
flight. These three locks overcame a descent of 139-1/2 feet. One flight
would be used for downbound vessels and the adjoining flight for upbound,
a double flight being required to save long delays in the passage
of vessels through the canal.
The lock walls will be 82 feet high above the top of the gate
sills and including the necessary foundation work required below this
level two of the locks will have walls 100 feet high.
The lock gates will be of the single leaf type, swinging on a hinge
at one side of the lock, and resting when closed in a notch cut
in the opposite wall, a single leaf thus spanning the whole width of the
lock chamber. The gate at the foot of said lock will be 83 feet
in height and 88 feet in length, and will weigh about 1,100 tons.
The valves and culverts in the walls are of large dimensions
and will permit of the lock being filled in less than eight
minutes. This will mean that the time of passage through the
canal will be much reduced below that required at present.110
Work was begun on the Welland Ship Canal in 1913 but, due to the
war, construction was suspended in the fall of 1916.
IX
With a view to assisting in the development of trade through the
canals as well as the formation of a well-protected harbour at Port
Colborne, the Department of Public Works planned in 1904 to carry out
extensive harbour improvements. Already completed was the dredging and
cleaning up of the bottom of the canal basin along with the entrance
harbour to a depth of 16 feet at low water. Excavated also was a wide
channel 23 feet in depth from deep water in the lake to the lighthouse
situated 2,000 feet from the shore line on the southern end of the west
pier and the construction of two elevator docks at this point. Moreover,
the department had recently completed a breakwater across the southwest
face of the harbour 4,500 feet long and situated on the lake about 1,650
feet south of the new docks. But that was not all. In order to afford
protection from easterly storms the department was at the time building
a second breakwater 2,400 feet long and beginning 600 feet from the
eastern end of the present one.111 Previously in 1903 the
Royal Commission on Transportation visited the harbour and heard
evidence in reference to the works then under contract and contemplated
for the improvement of the Welland Canal and Port Colborne Harbour. The
commission discussed at length the construction of suitable foundations
and elevators of the most modern type and required capacity on the new
docks as well as the required rail connection out of the
docks.112
X
When studying the Richelieu River navigation in 1871, the Royal
Commission on Canals concluded that the wisest policy for Canada to
follow, in regard to the line of water communication between the lumber
yards of Ottawa and the great lumber markets at Troy and Albany in New
York state, was to enlarge all the canals on this line of navigation
from Ottawa to Lake Champlain to one uniform scale commensurate with
that recommended for the Ottawa canals and with which the lock at
St. Ours already corresponded.113 This recommendation, if
allowed, necessarily involved the enlargement of the Chambly Canal
extending from Chambly basin to St. John, 12 miles with 74 feet of
lockage and 9 locks. The cost of such an enlargement was estimated in
round numbers at $1.5 million. Once that work was done it was not
considered necessary to make improvements on any other part of the
Richelieu.
By June, 1896, the total amount expended by the government for
original construction and enlargement of the Chambly Canal was
$637,206.76 and for the St. Ours lock was $121,537.65.114 After 1900
traffic increased along this waterway. In 1903, 379,442 tons of freight
were moved on the Chambly Canal, an increase of 19,644 tons over the
previous year, of which 25,084 tons were produce of the forest and
23,768 tons of coal.115 In September, 1908, the electrical
lighting of the St. Ours lock and its approaches by arc lamps was
inaugurated. This proved to be a great aid to navigation. There were in
all ten 2,000 c.p. lamps: four on the lock, two along the lower
approach, three on the upper approach, and one on the yard near the
shops.116 In addition to the above, a number of incandescent
lamps were placed in the various buildings connected with the
canal.117 The new light was a decided improvement on the old
system of oil lamps and greatly facilitated navigation of the lock. In
1910, concrete foundations were laid for the proposed new Chambly Canal
power house.118 At that time the Montreal Light, Heat and
Power Company was supplying the canal with the required power under an
agreement dated 22 January 1907. However, only the lower section of the
canal about two miles in length was electrically lighted, and, in
view of the extension of the lighting along the whole length of the
line, the foundations of the power house were devised for water power
sufficient for the purpose.119
Three years later electrical machinery was designed for the operation
of the lock gates and sluices at St. Ours.120 Steel frames
and timber top logs were placed on the crest of the dam here in such a
manner that both could be removed at will (a movable dam). The purpose
of this movable dam was to keep the level of the section of the
Richelieu River between St. Ours and the foot of the Chambly Canal about
two feet above low water mark. This proved satisfactory and the level of
the river was kept up as intended during the period of low water. At
the same time as the movable dam was built, four of the old cribwork
boom piers on the east side of the lower entrance were removed and
rebuilt with concrete laid on pile foundations. In the same year, 1913,
the bottom of the Chambly Canal's lock No. 6 was renewed.121
The old planking was removed and replaced with concrete. The canal's
lighting system was remodelled and extended from lock No. 2 to St.
Johns. It was decided to adopt incandescent lamps instead of arc lamps
as generally used on canals. The power used here was supplied free of
charge by the Montreal Light, Heat and Power Company from their Chambly
plant. The supply of free power came about as a result of the Chambly
Canal power house being carried away during the spring floods in 1908.
The unprecedented rise of the Richelieu River at that point that year
and the consequent destruction of the canal power house were due to the
existence of the Montreal Light, Heat and Power Company's dam some
distance below. After protracted negotiations the Department of Railways and Canals secured
from the company, among other things, an undertaking to supply
in perpetuity to the Chambly Canal, for the loss of its power house,
electrical energy equal to 75 h.p. Under a subsequent agreement, dated 9
April 1912, power was to be supplied at the rate of 100 h.p. during the
season of navigation and 40 h.p. during the winter months. This power it
was expected would be sufficient for the lighting of the canal from one
end to the other.122
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