Contents
Click the stars to jump
New Locomotives for Silverton Tramway
Railway Accidents in Australia
Decorated Tramcars in San Diego
Progress towards a new Flinders Street Station
When a Czar Travels
Important Contracts
Compressed Air Locomotive
Snow-bound in Scotland
Railway travelling in Japan
A one-rail Elevated Railway
Utilising New Zealand's iron resources
Level crossing protection in Europe
Ventilation in underground railway
Metropolitan Railway tunnels
Signalling on the Cronulla line
Dubbo Railway Picnic
Bridal Tram Car
PRIVATE
RAILWAY INTRODUCES NEW MOUNTAIN
TYPE LOCOMOTIVES FOR ORE HAULAGE
Silverton
Tramway Co. Uses British-Built Steam Engines
With its fortunes linked closely to the prosperity of the western New
South Wales silver lead mines at Broken Hill, the Silverton Tramway
Company recently introduced new motive power for the movement of 1000-ton
ore trains destined for Port Pirie on Spencer's Gulf. South Australia.
It is now known that Broken Hill has the largest single lead-silver-
zinc ore bed in the world, and with the ever expanding demand for non-
ferrous metals, at home and abroad, this important thriving industrial
centre of New South Wales is the scene of increasing activity. The nearest
outlet for the processing of its products is by way of the 3ft. 6in,
gauge line of the South Australian Railways which runs from the NSW-SA
border, at Cockburn, to Port Pirie.
An important link in this vital rail transport is provided by the Silver-
ton Tramway Company from Broken Hill to the South Australian border.
The Company have taken steps to improve their locomotive stock and
Messrs. Beyer-Peacock & Co. Ltd., of Manchester, Eng., have built four
modern 4-8-2 tender locomotives for use on this line.
Main Details
Many modern features have been introduced. Streamlining has enhanced
the appearance of the new locomotives. The ample boiler capacity provided
is quite remarkable for an engine of this power. The firebox is of
unusual proportions to allow low grade fuel to be burnt efficiently.
Particular attention has been given to the cab to provide the maximum
comfort for the engine crew. Dunlopillo seats and carefully arranged
controls make for easy operation. Such modern applications as the Hadfield
power reverse gear remove the need for the exertion of physical effort
by the driver.
Accessibility and maintenance have been borne in mind and 8KF roller
bearing axleboxes are provided on the carrying wheels and the tender.
Every- thing has been done to eliminate work and to give maximum availability.
The ashpan is of the self emptying hopper type and the smokebox is self
cleaning.
>Electric light equipment is provided for the headlight and the cab.
Attention is also drawn to the extended cab floor by cantilever arrangement.
These locomotives, a product of British design and construction, will
rank amongst the most modern type in Australia today and will undoubtedly give a good account of themselves hauling trains over this 3ft. 6in.
gauge railway. The Company is to be congratulated in obtaining a modern
and economical form of motive power well built to withstand heavy work
with the minimum of attention.
Locomotive Design
The following brief details cover new features in firebox construction
etc. noted in the four 4-8-2 narrow-gauge engines delivered to Silverton
Tramways recently.
From
details supplied by MR. R. S. York N.S.W. Representative Beyer Peacock
& Co. Ltd.
These modern general purpose locomotives, on a light axleload of 9¾
tons, have been specially designed for maximum economy in operation
and maintenance. The boiler is an outstanding feature; very special
attention has been paid to its design to allow the slow burning and
full length flame of low grade coal.
The inner firebox is of steel of Colville's Double Crown brand, special
firebox quality and is of all-welded construction. Increased volume
is obtained by a combustion chamber and good circulation and steaming
quality is enhanced by the provision of a thermic syphon and two 3"
diameter arch tubes. There are twenty-two large tubes 5¾" o.d. and seventy
small tubes 2" diameter of solid drawn steel.
The superheater is of the Superheater Co.'s type with ball joint full
length elements made from 1 3/8" diameter tubes with integrally forged
return bends. Owing to the length of the combustion chamber the distance
between tube plates is only 14 feet; hence an ideal-A/S ratio of 1/404
is obtained. An A/S round 1/400 ensures a-free flow of gases round the
superheater elements with low back pressure and smokebox vacuum and
a high degree of superheat temperature. (The A/S ratio being "A" the
tree gas area of the various sections of the flue tube multiplied by
their portion of the length of the flue tube and divided .by the total
length of the flue, whilst "S" represents the total gas swept surfaces
of the flue tube and element.) As there are 22 flues containing the
superheater elements and only 70 smoke tubes 2" diameter the free gas
area through the flues is 62% of the total tree area through the boiler.
It is worthy of note that this figure is considerably higher than in
any other locomotive boiler in Australia. The good A/S ratio combined
with the high percentage of free area through the flues and the careful
thought given to all details in the boiler design have resulted in what
is stated to be a remarkably free steaming boiler under all conditions
of service.
The grate area is 27 sq. ft. British- made Waugh firebars form the
fire- grate and are rocked by hand from the cab, the front portion forming
a drop grate.
Reprinted from Railway Transportation, February, 1952
RAILWAY
ACCIDENTS IN AUSTRALIA
England is not the only country where lives are lost and
property destroyed by the infatuation of a small minority of railway
directors who persist in using a complicated and unreliable form of
brake apparatus. Although, thanks to the independence and superior practical
insight of the chief railway engineers in this country, all our principal
railways are supplied with vacuum brakes, there are still a few roads
where the air pressure brake is used, and, consequently, we are subjected
to such disasters as those at Lowmoor Tunnel, Blackburn, and Manor Park.
The Sydney papers record a terrible accident at Zigzag,
thus commented upon by the Sydney Morning Herald.
“We have, fortunately, been so free from railway accidents
in this colony, that the news of such an occurrence creates a feeling
of surprise akin to that with which we might hear of a shipwreck. Accidents,
however, it has been wisely remarked, will happen on the best-regulated
railways ; and, if for that reason only, those who are directly responsible
for the safe management of the trains in motion, should be always on
their guard against them. The disposition to trust to, luck which so
often manifests itself among men engaged in dangerous occupations, is
probably a more frequent cause of disaster than is generally supposed.
The fact, however, that our list of railway accidents is a singularly
small one, goes to show that the men in charge of the New South Wales
trains are fully aware of their responsibilities. The accident which
took place yesterday on the Zigzag will, of course, form the subject
of official inquiry, and among the questions which will then occupy
attention, the conduct of the engine driver and the guard will necessarily
have to be considered. The action of the Westinghouse brake has been
a subject of discussion among railway experts for many years past, and
opinions have been much divided as to its merits. Whether yesterday's
accident was attributable to defect in the brakes, or to the slippery
state of the rails owing to the recent rains, or to any want of caution
on the part of the driver in proceeding on the journey after notice
that something was wrong, remains to be determined. At the present moment
it would seem, judging from the evidence before us, that the unfortunate
result was brought about by a combination of these circumstances, although
in what proportion it would be difficult even to conjecture. The line
of route is known to be dangerous, in the sense that danger may always
be anticipated there, and that great care is essential to the safe management
of the traffic. When it was found, at an early period of the journey,
that the brakes were not acting, and consequently that the driver had
little or no command over his train, that officer would certainly have
been justified in declining to take the risk of proceeding any further.
With slippery rails and useless brakes, a train running down the steep
inclines of the Zigzag might be expected to become unmanageable ; and
in that state every mile of the running would be full of danger, which
neither skill nor experience could avoid."
The particulars are given by several witnesses. We select
the following accounts:—"The No. 32 up train, otherwise known as the
tourists' train, which leaves Bathurst at about 4 o'clock in the morning,
ran into the buffer-stops at the upper points on the Zigzag, on this
side of the Blue Mountains, near Lucasville. The train was damaged,
and two ladies and a boy were hurt. A special engine, van, and carriages,
and a medical man, were at once obtained from Penrith, and the line
was cleared for one train to proceed. It was not found necessary to
send a medical man from Sydney, as the injuries were not supposed to
be of a very serious nature, but a member of the Medical Board was in
attendance at the railway station at Redfern when the train arrived.
The train in question was timed to reach Sydney at 11.35 a.m., and,
therefore, the accident must have occurred about 10 o'clock.
"A later account says :—The train which met with the accident
left Glenbrook at 10 o'clock yesterday morning, being 10 minutes late.
When it arrived at the top of the point of the Lapstone Zigzag the rails
were found to be very * greasy,' owing to a heavy mist prevailing at
the time. The train, composed of nine carriages, became unmanageable,
although the driver and guard applied both air and hand brakes, and
finally ran into what is known as the ‘top buffer' of the Zigzag. The
shock wrecked the engine and severely damaged two carriages, besides
injuring many of the passengers. As there was a telephone at Lucasville,
near the scene of the accident, a message was sent from that place to
Glenbrook; thence the occurrence was telegraphed to Penrith, and at
10 minutes past 11 o'clock a relief train was sent out with Dr. Swayne,
of Penrith, on board, and the passengers transferred into it and brought
to Sydney, arriving at Redfern at a quarter to 2 o'clock yesterday afternoon.
Dr. Woodward met the train at the station, and attended to the wants
of the passengers. The gradient at the point of the road where the accident
occurred is i in 33. The Westinghouse air-brake was used.
"A gentleman who was in the train states that the brakes
worked badly, owing to the slippery state of the metals. On approaching
the ' top buffer' the necessary brake pressure could not be brought
to bear on the train, which ran into the buffer with considerable force.
Many of the passengers were stunned for a while in consequence of the
violence of the collision, and much excitement and confusion prevailed.
It is also said that the train overshot the mark at one or two stopping-places
on the way down from Wentworth. It is believed that the driver did all
he could to avoid the accident, but he was powerless to arrest the progress
of the train, as the slippery condition of the rails prevented the brake
power from being properly applied."
Reprinted from Railway Engineering, June, 1886
DECORATED CARS
It is interesting to note in connection with street railway parks and pleasure resorts, that railway companies
are beginning to institute novel parades, consisting of
specially decorated cars.

In Fig. 1 are shown five very handsomely decorated
trams which were used on the San Diego Electric Railway
in the McKinley parade in San Diego, Cal., during the
recent political campaign. The cars were designed by
Joseph A. Flint, general manager of the railway company,
and the decorations were the work of a Grand Army post
of San Diego. The train consisted of one motor car and
four trail cars, all of which were gracefully draped with
yellow, with rosettes of red, white and blue, and bunting
of the same colors. A number of yellow, and red, white
and blue incandescent lights were also used in the
decorations. On the front platform of the motor car was
hung a large portrait of Mr. McKinley, framed with
yellow incandescent lights and draped with smilax, which
was also draped around the trolley pole and around the
words, *McKinley and Hobart," which were placed on the
top of the car. The cars were filled with ladies, attired in
white dresses, with yellow trimmings, and young ladies
also acted as motormen and conductors.
On the top of the motor car was placed a mimic
throne, covered by a canopy which was tastefully decorated with electric lights and bunting. On the throne
was
seated a Goddess of Liberty. and behind her stood a
young man representing Uncle Sam. On either side of
the goddess stood sentinels, one uniformed as a soldier
and another as a sailor, representing the army and navy
defending liberty.

In Fig. 2 is shown another car which also created a
great deal of excitement when it appeared on the streets.
This car was called "Santa Claus" and was designed by
Warren Y. Soper, of the firm of Ahearn & Soper. The
car was used on the street railway tracks at Ottawa, Ont.,
and made its first appearance on the afternoon before
Christmas. For some days before Christmas, the company
caused letters to appear in the newspapers dated at various
points between the North Pole and Ottawa. These letters
stated that Santa Claus with his reindeer would appear in
Ottawa on the afternoon before Christmas and were signed
by Santa Claus himself. The result was that an immense
crowd gathered along the street railway tracks at the
stated time and the car met with an enthusiastic reception. The car was covered with imitation snow and ice
and on the top was placed a representation of Santa Claus
with his reindeer and sleigh filled with toys of every description. The car was filled with various kinds of toys.
The motorman and conductor were dressed as Icelanders
and an Eskimo stood beside the motorman and played on
a cornet throughout the trip. As the car proceeded
oranges were thrown to the children along the way.
Reprinted from Street Railway Journal, February, 1897
NEW CENTRAL PASSENGER STATION, VICTORIA
At the last meeting of the Railways Standing Committee
it was decided that that body should first inquire into
the question of erecting a central passenger station at
Flinders-street, and then deal with the proposal to construct a
second reservoir at Upper Malmsbury to supplement the
Coliban water supply. The Chairman (Mr. Cameron, M.L.A.)
referred to some criticism which had appeared in the press
respecting the action of the committee in rejecting the plans
prepared by the Railway Department in 1896 for the erection of a new railway station at Flinders-street. He pointed
out that that plan was estimated to cost £88,400, while under
the scheme now proposed the department intended expending
upwards of £200,000 on that railway station and yard. The
former plans made no provision whatever for the accommodation of the traffic from the northern suburbs which would be
brought in by the direct railway from Collingwood. Now
that that line had been authorised, it would have been
necessary, had the committee permitted the new station to be
erected on the plans of 1896, to re-open Prince's-bridge
station, and thus the saving which the department contemplated
would have been largely diminished. He added that the
committee had also been adversely criticised for not sanctioning the covering in of all the station by a wide roof, but had
that been permitted the supports of the roof would now have
been in the way of the re-arrangement of the platforms, which
was essential if the northern suburbs traffic was to be provided
for. The action of the committee in delaying the erection of
the new station had been fully justified by the alterations in
the design proposed by the department.
Reprinted from Railway Budget, February, 1899
WHEN THE CZAR TRAVELS
A RAILWAY MAN'S STORY
There is one noteworthy change in the young Czar's
mode of traversing his dominions, as compared with
the extraordinary secrecy which used to mark the railway
progresses of their late Majesties Alexander III., and his
predecessor, the Czar-Liberator. When the court now
goes to the Crimea, two Imperial trains are employed, one
for the Czar and Czaritsa and their personal attendants,
and the other for the suite. Occasionally, as in the recent
case of the Emperor's journey to Copenhagen, only a single
train is used. In this connection, a retired railway superintendent, who used formerly to take charge of one of the
Imperial trains coming and returning from the Crimea
over the Taurida section, related to me the other day some
particulars of the old style. He was speaking of the time
of Alexander II. There were, he said, always three
double-engined trains employed, and these were despatched in fairly close succession from the terminus. One
carried the Imperial family, another the suite, and the
third the baggage. Returning from the Crimea to the
capital, these Imperial trains always left Sebastopol after
nightfall, and except among the immediate entourage of
his Majesty, no one was permitted to know which of the
three trains, all identical in appearance, carried the Czar.
On the last occasion of the Second Alexander's leaving
the Crimea, my informant was in charge of the second
train. "Merely as a matter of personal curiosity," continued the ex-superintendent, "my engineer colleague in
control of the first train and myself quietly took such close
observations as to assure ourselves that his Majesty was in
the train first despatched. We had a fearful night of it
owing to a sudden snow-storm and blizzard which overtook us just beyond Simferopol. After infinite trouble
with the snow-blocked track we reached the sectional terminus about 5 a.m., several hours late. Immediately before us the snowdrifts had become impassable, but I was
happy in behoving that the Emperor's train ahead of us
had got through safely. A few minutes later, while
shouting some directions to the driver and machinists
amid the driving and roaring of the blizzard, we heard one
of the coach-doors blow open and the sound of smashing
crockery. Suddenly the Minister of the Court was by our
side, and apostrophising us in all kinds of grossly reproachful epithets for the stoppage and delay. Did we
not know that we were carrying his Imperial Majesty the
Gossudar? &c. I was certainly greatly astonished at this
intelligence.
"The Minister was still storming and fuming when the
tall figure of Alexander II., loosely wrapped in a long fur
pelisse, appeared in our midst. He took in the situation
at a glance. The driver, machinists and myself looked
like so many forlorn Esquimaux. We were partly encased
ia ice and frozen snow. Laying a restraining hand on the
Minister's shoulder, his Majesty said, "Not another word!
Do you not see how helpless we all are in God's hands?
Whilst you and I and the rest of us have been comfortably
sleeping in our berths, these poor fellows have been
battling with elements through this terrible night for our
convenience and safety. You should rather thank them for
their noble and persevering efforts, and not reproach them
for what is really God's visitation." The Emperor then
addressed to us some touching words of thanks and sympathy, and returned to the Imperial coupe. With the
assistance of a couple of snow ploughs we subsequently
got the train through to Moscow, with about 18 hours'
delay. As a memento of that memorable night the engineer-Superintendent pointed to a decoration he was
wearing, and took from his pocket a gold chronometer,
bearing the monogram of the Imperial donor; his companions were similary rewarded."
Among other things, my informant said that during the
last two reigns the drivers of the Imperial trains were
never allowed to use the whistle. Between one engine
and another the drivers signalled by hand motions, and
in the night by lamp signals. Under the block system
the track is always kept clear for the Imperial trains. No
such secrecy is now observed with regard to the particular
train in which the Emperor Nicholas II travels, and it is
devoutly to be hoped that the beneficently reforming
policy of the young Monarch will obviate all necessity for
resorting to such secret and clandestine methods in the
future.
Reprinted from Railway Budget, February, 1899
IMPORTANT CONTRACTS
The Central London Underground Railway Company has just
contracted with the British Thomson-Houston Company for the
equipment of its lines with the American built dynamos and motors
of the General Electric Company. This is the most important contract yet closed across the water and the selection of American
apparatus at a price said to be nearly or quite $100,000 above the bids
of European manufacturers, is a tribute to the perfection which has
been reached in this country in electric railway apparatus. The
total contract price is about $450,000.
The General Electric Company has also closed a contract
through its Australian representative, Arthur W. Jones, for the
equipment of the Government tramway system of Sidney [sic] New
South Wales. This contract calls for twenty-eight car equipments
and four 850 k.w. generators and the contract price is about
$200,000.
Reprinted from Street Railway Journal, June, 1897
LETTER TO THE EDITOR OF THE "BUDGET."
Sir,—I was greatly surprised to see the railway picnic at Dubbo
recently degenerated into a political demonstration. Members of
Parliament are reported to have been invited there, and to have
made all sorts of allusions to politics and federation, one member
expressing very advanced opinions. Now, why should we introduce
elements of discord at our friendly social picnics; we are supposed
to keep free publicly from politics? The Commissioners, I assume,
give us a holiday with pay to enjoy the day, and free passes and
special trains for our wives and little ones, in the belief that the
privilege will not be abused by making the picnics demonstrations
to enable politicians to talk claptrap. The whole affair is a mistake,
as in the first place it will create discord, owing to the political
differences that are bound to crop up, and in the second place, if
it is going to be allowed, do you not think, Mr. Editor, that it is
likely to lead to the withdrawal of the picnic privileges? In my
opinion the Dubbo committee, or whoever is responsible, has been
most unwise and as one who values the privileges we enjoy, I
protest against the false position in which such an action is likely
to place railway men. —Yours, &c.,
PICNIC
Reprinted from Railway Budget, March, 1899
A BRIDAL ELECTRIC CAR
The Straten Island Midland Electric Company will shortly put into operation a bridal car for the use of wedding parties.
The car will be elegantly furnished, with reclining sofa and chairs, and will have a dining apartment. The car has already been engaged for several parties.
Reprinted from Street Railway Journal, March, 1897
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COMPRESSED AIR MOTORS FOR ELEVATED RAILROAD SERVICE
The accompanying engraving shows a new compressed air locomotive recently built by the American Air Power Company for the
Manhattan Elevated Railroad Company of New York. The locomotive will be put in operation within a few days on the Sixth Avenue
division of that company and will operate between Fifty-eighth
Street and Rector Street.
The wheels are 42 ins. in diameter; the dimensions of the
cylinder are 13 ins. in diameter by 20 ins. stroke, and the storage-
reservoir has a capacity of 175 cu. ft. This, it is estimated, will
allow the locomotive to make the round trip between Rector
Street and Fifty-eighth Street with 20 per cent reserve. The reservoir
is composed of Mannesmaun tubes with a diameter of 9 ins. and
having various lengths, from 14 ft. to 20 ft. 6 ins. The thickness of
the tube is 9 ins. The tubes are rolled from solid ingots according
to the regular Mannesmann process.
The air is stored in the reservoir at 2000 lbs. pressure. It is used
in the cylinder at 200 lbs. pressure with cut-off at 10% stroke. In 5 stroke. Ix
passing from the reservoir to the cylinder it traverses the usual hot
water reheater and enters the cylinder at a temperature of from 200
to 300 degs. The water is kept heated by a small coal fire. But little
fuel is required to maintain this, as will be appreciated when it is
stated that only an ordinary scuttleful of coal is carried by the
engine.
A novel feature of the engine, as will be seen, is the location of
the cylinder. This is directly under the cab, giving a short lead for
the heated air. The valve mechanism is extremely simple and can
be seen in the engraving under the cab. It is operated by the wheel
which can be seen through the window of the cab. The weight of
the entire locomotive equipped is 47,000 lbs. The power station will
be located at 100 Greenwich Street.
Reprinted from Street Railway Journal, May, 1897
SNOW
BOUND
The severe weather in Scotland is making travelling a rather
uncertain, undertaking. The two trains on the Caithness line, which
were snowed up on Wednesday the 1st [January, 1879] remained embedded
until the 4th. The passengers who were in the first train made their
way to a station, and the surfacemen who were on the relief train are
believed to have got shelter in a “bothy“. They were well supplied with
provisions, and it was remarked last Saturday there is no fear that
they will starve. The 12.40 train from Perth on Saturday morning, 28th
ult., came to a stand in a wreath near Dava station, and the line was
blocked at this point, where the snow is about 5ft. deep and very dense.
The two engines were uncoupled, and attacked the wreath, making their
way through it, and leaving the passengers and carriages behind. The
engines got on a distance of half a mile, when they were completely
blocked in a second wreath, and the drift closed in on them before and
behind. A snow plough and gangs of men were set to work to dig out the
passenger train. It was half-past six in the morning when the train
got blocked, and it was not extricated till four in the afternoon. The
passengers, twenty in number, had to remain the whole day exposed to
the fury of the storm at the bleak spot where the train stuck. The train
reached Inverness at eight p.m., having been nineteen hours on its way
from Perth.
Pleasant experiences!
Reprinted from The Engineer, 10th January, 1879
RAILWAY
TRAVELLING IN JAPAN.
As we [Editors of Railway Engineer]
have lately been giving some drawings of rolling stock (designed by
Mr. B. F. Wright) in use on the Japan Government Railways, we think
the following description of a railway journey taken on one of the railways
in that country may be interesting. The cars we illustrated, however,
would appear to be superior to those here mentioned. The account is
by a correspondent of the Boston Transcript, and relates to a short
journey from Kanagawa to Tokio, a distance of 18 miles.
Trains are running between the two stations every hour and
a quarter during the day, leaving both stations simultaneously. The
whole equipment is English. The cars are divided into three classes.
Even the first-class cars are decidedly plain. These are divided into
three compartments, The second- class cars would hardly be used on a
horse-railroad in Boston. They are as plain as plain can be, and made
just like a horse- car, having two long seats on the sides facing each
other. The seat are upholstered with the same kind of matting which
the Japanese use on their floors. The third-class cars have simply plain
benches for seats. The exterior of all three classes is the same. The
engines are smaller than the shifting engines in the Boston depots.
The time required for the 18 miles' ride is 57 minutes. Everything pertaining
to the road is kept in the best condition. The road-bed is like a floor;
the cars are clean; the stations are clean; all the officials are uniformed.
I never knew one of them to be in any way impolite. Passengers are not
allowed to cross the track except by the bridges overhead. Following
English custom, the trains run on the left-hand track. No baggage is
allowed to go free except what one can take in his hand. You can take
no living thing into the train, not even a canary, without paying an
extra price. Posted up in the stations is a notice to the effect that
the Government does not run its roads for the transportation of dogs,
but if dogs must travel provision has been made for them. So every station
is provided with boxes latticed on top, in which poodle or mastiff can
be transported for a definite sum. I understand that when it is necessary
to transport a dead body an extra car is put on for the purpose.
Let us start on our 18 miles' ride from the Tokio station.
It is a fine large building built of stone, having two large entrances
in front. The waiting rooms are furnished with the daily native and
foreign papers. Five minutes before the train starts a warning bell
is rung. The ticket office is styled a "booking office," and a notice
tells you that you must be "booked" before you can enter the train.
Just before the train starts the bell is again rung in the station and
the doors closed, so there is no possible chance for a belated passenger
to "run for the train," and possibly get run over by the train. There
are no side doors, either, through which you can dodge the official.
Having booked yourself, or purchased your ticket, you are allowed to
pass through a very narrow passageway to the outward-bound train, showing
your ticket as you pass. Although there is no gold-leaf or bird's-eye
maple on the cars, there are other arrangements that more than compensate
for this loss of elegance. One of these is that by buying a round-trip
ticket to any station you get a discount of 50 per cent. on return ticket—tickets
good for one day only. Fare to Yokohama, first-class, $1 ; round-trip,
$1.50; second-class, 60 cents ; round-trip, 90 cents. No official goes
with the train; no brakeman in dulcet tones whispers out the name of
the next station. The only brake on the train is on a car made specially
for that purpose, and attached to the rear of the engine. No conductor
shouts, " Tickets, please," and when he has finished his rounds sits
down by the fair miss who goes daily for her music lessons. Every passenger
is expected to enter the class car for which he holds a ticket. If he
doesn’t do this and he is found out, there is a penalty for his misdemeanour.
When it is time for the train to start, an official on the
platform blows a little whistle, the steam engine blows a shrill whistle,
which would be terrific if it were only powerful enough, and off we
go. And now we see one advantage over the average American railroad—there
is not the slightest jerk in starting; indeed, you never know when you
are really in motion unless you look at objects outside the window.
The train glides (that just expresses it), not swiftly to be sure, for
if it were swift, probably the Japs would condemn it. Nothing upsets
a native like swiftness—time is no object here.
Reprinted from Railway Engineer, November, 1883
A
ONE-RAIL ELEVATED RAILWAY.
A company in Boston, U.S., have obtained a charter to construct
one mile of this kind of road in the city of Cambridge. An engine and
car adapted to the structure are also to be built. If the road, when
completed, is approved by the Railroad Commissioners, the projectors
will be allowed to build such roads in Boston with the permission of
the city government.
The structure consists of a single rail elevated upon a
line of posts 14 feet from the ground. It is called a single rail, though
perhaps a more correct description would be two rails placed one above
the other at a distance of 4 feet, and connected by a series of braces.
The supports or posts are placed at distances of 45 feet, and are almost
exactly like those of the New York Elevated Railroad, except that the
lower end is firmly encased in concrete and rests upon a solid bed of
concrete several feet underground. The truck frame of the cars is placed
astride the rail, like a saddle upon the back of a horse, and each truck
frame has six wheels. Upon either side, two of these wheels run upon
the lower part of the rail, inclining upward and outward from the point
of contact at an angle of 45 degrees. The other two wheels are placed
horizontally under the car, and level with the top of the rail, along
the sides of which they run, one upon each side. By means of hydraulic
pressure applied from the engine, they are made to clasp the rail tightly,
and by this power of traction the forward or backward motion is secured.
Each wheel has an independent axis of its own, and the opposing wheels
are always kept at right angles with the rails, regardless of curves.
Some of the curves may be very sharp; steep grades may be overcome by
means of the traction power. The truck frames of the locomotive are
like those of the car, with the connecting-rods attached to the horizontal
wheels upon either side of the rails. The pressure of the wheels upon
the rails is such as to make it almost impossible for them to leave
it, but in case this should happen the car could not leave the track,
but would drop 1½ inches and slide along, resting upon the top of the
rail, the truck frame serving as a substantial brace upon both sides.
The cars are cylindrical in form, and built of iron.
Reprinted from Railway Engineer, February, 1886
UTILISING
NEW ZEALAND'S IRON RESOURCES
A remarkable invitation is addressed to the ironmasters
of Europe and America by the Government of New Zealand. The two islands
which form that colony are, as is generally known, rich in iron and
coal of excellent quality. The Government has within a few years constructed
over 1000 miles of railroad, all the materials for which, except the
sleepers, have been carried out from England. Yet the Public Works Department
of the Colony is even still, with so many lines laid down, only apparently
at the outset of its labours, for the Minister of Public Works, the
Hon. James MacAndrew, has determined to make a bold experiment to naturalise
the iron industry in the colony, and has called for tenders for 100,000
tons of steel rails, or any portion thereof, to be manufactured in the
colony from New Zealand ores.
A pamphlet containing full information on the subject, illustrated
by maps and plans, has been published by order of the Government, and
may be had from the Agent-General of the Colony, Sir Julius Vogel, K.C.M.G.,
at 7, Westminster-chambers, by ironmasters and others desirous of obtaining
authentic information on the subject.
Reprinted from The Engineer, 21st March, 1879
Along with diesel-electric locomotives, D4-class tank engines take a hand with shunting duties in the VR's Melbourne yard. Built originally for working suburban trains,
these steam units have all been assigned to yard duties throughout the system.
LEVEL CROSSING PROTECTION
An apparatus very necessary in Germany and Holland
earning travellers of an approaching train at road crossings
been constructed by Messrs. Siemens and Halske. By an electrical
arrangement a bell begins to ring violently at the crossing when
the train is 1500 yards therefrom, and continues ringing till the
train has passed. The apparatus is particularly intended for the
light or second-class railways in Germany worked by omnibus
trains, where such crossings are not guarded.
Reprinted from The Engineer, 8th February, 1889
VENTILATION IN UNDERGROUND RAILWAY
A number of persona, without much experience of
underground railways, have been pressing for an
underground city railway extension for Sydney. The
following, from one of the railway papers, will illustrate
the discomfort entailed on underground lines. The illustration is taken from London, but with our warmer, muggy
climate the result would be much more discomforting:-
“On the occasion of the return to London of the guards
from the Soudan, a large crowd congregated at the railway
Station, and immediately after there was the usual rush to
get away again. One of the heavily loaded trains on the
City and Waterloo underground line became stalled, and
to escape suffocation the 300 or more passengers made.
their way out of the tunnel on foot. This road is scarcely
a mile long and connects the Waterloo station with a point
in the city near the Bank of England; the line dips down
from each terminus and crosses under the Thames. There
are separate tunnels for the two tracks, and they are but
little larger in cross-section than the oars. Starting from
one terminus the car is carried for two-thirds of the distance
by gravity, the ascent at the other end being by electricity.
No provision for ventilating the tunnel is made, the car
itself setting up a current of air; in this case when the
motors were unable to mount the final grade, and the train
stopped, the air soon became foul, and the passengers were
panic stricken."
Reprinted from Railway Budget, March, 1899
METROPOLITAN RAILWAY TUNNELS
In The Engineer of the 26th October 1888, [there was] published
engravings of Anderson's proposed system of smoke and fume passages for the prevention of the pollution of the atmosphere of the
Metropolitan tunnels. Since that time Mr. Anderson has developed
his invention, and has recently exhibited a model of the apparatus
in a simple form in the subway at South Kensington. It was there
visited by a great many engineers interested in the subject, and
favourable opinions frequently expressed. From the account we
published it will be seen that the proposal is to lay an iron box flue
along the railway on top of the sleepers, and to make connection
between this and the smoke-boxes of the moving engines by means
of a long sliding box placed under the locomotives and working
with its open under side in contact with the upper plane surface of
the flue. The necessary draught or suction required for withdrawing the products of combustion from the engines is produced by
exhausting apparatus or fans, which are placed at suitable intervals
on the roads, and are worked by stationary engines. As advantages Mr. Anderson claims that the prevention of any fouling of
the atmosphere of the tunnels by the furnaces of the locomotives
is absolute, and not palliative; that the condensing water now used
is entirely unnecessary, and that its cost will be saved; that the
present open spaces necessary for ventilation may be covered in
and utilised for building or other purposes; and that the receipts
of the Metropolitan and District Railways might be considerably
increased as a result of the improved condition of the tunnels.
Reprinted from The Engineer, 12th April, 1889
SINGLE LINE AUTOMATIC SIGNALLING INSTALLATION
GIVES 13 TROUBLE-FREE YEARS OF SERVICE ON BUSY BEACH LINE
On several Australian railway systems the lack of double track
has led to the introduction of single line automatic signalling to
increase line capacity and reduce operating expenses. With more
than 550 miles of double tracked main line on the NSWGR system,
such single line installations are comparatively short. Most interesting application occurs on the Sydney metropolitan electrically
operated Cronulla branch line, where fluctuating passenger traffic
is handled efficiently and rapidly with only two crossing loops.
The first large installation of
automatic signalling over single
track was made by the NSWGR
in 1925 on the then newly opened
line from Molong to Dubho in
Western New South Wales. This
was intended mainly for the movement of eastbound trains between
Dubbo and Orange, thus avoiding
the long, steep grades of the original mainline via Wellington, as at
that time the heavy traffic from the
Cobar mines had created difficulties
in train operation.
Following the closing down of
the mines some years later this
pioneer installation was abandoned
and electric staff working substituted, due to the lighter traffic and
several crossing loops were closed
and materials reclaimed.
In October, 1926, full accelerated
electric train services were commenced between the City and
Sutherland, in the Sydney metropolitan area, and two months later,
in association with the opening of
the city underground railway to St.
James, the branch line to National
Park, which carried heavy weekend traffic, was wired for electric
traction. This is a surface line, 1.2
miles in length, with undulating
grades, laid with single track, leaving the Illawarra line a short distance south of Sutherland. The latter station is 15 miles from Central.
In order to deal with the additional number of trains the former
electric staff system was withdrawn
and track block automatic signalling
introduced in its place.
Two Crossing Sites
When it was decided to construct the electric railway
from Sutherland to Cronulla,
a popular seaside resort south of
Sydney, restricted funds prohibited
the building of a double track line,
although provision has been made
for its future duplication when required.
Traffic trends are seasonal, heavy
during the summer, particularly at
week-ends, and rather lighter at
other times of the year; the busy
season lasting from October to end
of March. It was also desirable that
adequate provision should be made
for normal annual increase in passenger traffic, particularly as this
outer-suburban district is expanding
rapidly. Accordingly it was decided
to provide two crossing places only,
and the time required to cross trains
was reduced to a minimum.
Under electric staff working this
time would usually take up to three
and four minutes, with staff changing
and normal working of staff instruments. Automatic track block signalling was considered to be the most
suited alternative, and this involved
the use of motor-worked points and
a small relay interlocking at each
crossing loop.
The Sutherland-Cronulla line,
opened in December, 1939, is 6.23
miles in length, with crossing loops
located at Gymea and Caringbah, the
respective sections being Sutherland -
Gymea (1.98 miles), Gymea - Caringbah (2.10 miles) and Caringbah -
Cronulla (2.60 miles). The sectional
running times are 5 minutes each
in either direction, and this includes
stops at intermediate stations at
Kirrawee, Miranda and Woolooware,
located in each of the above sections
respectively.
The layout at each crossing station
is identical, with down and up tracks
on each side of an island platform.
The general working arrangement is
extremely simple, and all points and
signals are operated by miniature
levers at a control panel in the
stationmaster's office. The interlocking consists of a small five lever
frame, in which all train movements
are controlled by Nos. 1 and 5 levers,
Nos. 2 and 4 are spare, and No. 3
is the closing key provided for
switching out when the station is
unattended. Lever lights are provided
above each lever, which indicate that
the locking mechanism under its control has functioned correctly to each
move.
The movement of all trains is
shown on the indicator diagram,
which is of the 'spot-light' type, sited
above the control panel. It shows all
signals and points, and signal aspects
are repeated with red and green
lights, while white lights indicate
when points are in normal or reverse
positions. Additional information is
given on the diagram in respect of
the direction of the train on the single
track, on each side of the station,
i.e., a red light and a red arrow
indicates a train arriving and a green
light and arrow for trains departing.
White lights situated at each end
of the diagram shows when a train
has been accepted at the station in
advance.
Signals at each crossing station
consist of down and up Home and
down and up Starting, the last two
also acting as Accept signals for the
station in advance. All signals arc
protected by train stops, with an intermediate train stop located at the
arrival end of the station, which
functions in respect of the Starting
signal. Trains passing the Home signal at caution are required not to
exceed 25 m.p.h. average speed entering the station, when the intermediate train stop will clear before the
train passes it. Should this speed be
exceeded the train will be tripped.
Operation
At each crossing station Nos. 1
and 5 levers have three positions, up, horizontal and down,
and differ from most NSWGR interlockings in that they control a group
of functions.
At Gymea No. 1 lever controls all
train movements between that station and Sutherland. When placed in
the down position it will clear the
Accept signal (Sutherland's down
second Home and Starting signal -
subject to that station's control) and
down Home signal. In this case the
loop points are not affected as they
are lying in their normal position
for down trains. This will permit a
down train from Sutherland to proceed to the Starting signal at Gymea.
In its up position. No. 1 lever, following the operation of Sutherland's
Accept lever, reverses the points (up
main to main) and clears the up
Starting signal for a train to proceed
to Sutherland.
Similarly, No. 5 lever controls all
train movements on the section
Gymea-Caringbah. and these arrangements, in a like manner at Caringbah, are responsible tor train working in the section Caringbah-Gronulla.
Trains may be accepted by Gymea
and Caringbah as far as the Sutherland end of their stations in respect
to down trains, and the Cronulla end
in respect, to up trains. Trains standing at station platforms are protected
by respective Home signals showing
stop indications, and train stops.
Special Working
The signal arrangements have
been designed to permit the
through movement of trains
through crossing stations when they
are switched out. This is facilitated
by the provision of two departure
switches attached to the down and
up wall on the down and up sides
of the station near the door to the
station master's office. On these
occasions down Home and Starting
signals will display caution and stop
indications respectively, and trains
may proceed as far as their respective Starting signals. This allows the
simultaneous approach of trains from
either direction.
When ready to proceed the guard
places a key into the departure
switch, subject to the indicating light
over the switch showing, turns the
key and holds it over tor three seconds. This causes the Home signal
for the opposite direction to show
stop, reverses the points and clears
the Starting signal.
Normal train service on the Cronulla branch is given by trains to and
from St. James (Sydney) each half-
hour throughout the day, with increased services during morning and
evening peak periods and on Summer
Sundays. The average number of
trains varies from 48 to 62, the latter
figure including Sunday relief trains.
With the 30 minute service in each
direction trains are crossed at Caringbah and at busy times both crossing places are used. Time of journey
over the 6.23 miles is 17 minutes for
down trains and 19 minutes for up
trains including five intermediate
stops. The additional time on the up
is taken up by the crossing at Caringbah and for the generally rising
grades towards Sutherland.
Train operation on the steeply
graded main line between Como and
Sutherland is at times hindered by
delays to down trains awaiting line
clear before crossing the gauntlet
track over the George's River bridge
at Como. This, in turn, affects up
trains on the Cronulla branch making crossings, and the small amount
of additional time allowed in this
direction enables normal scheduled
times to be regained.
In actual practice the time taken
for crossing trains is reduced to a
matter of seconds. Recent observations show the time from the arrival
of the second train to departure of
the first (up) train, ranged from eight
to 15 seconds, with the second train
completing station business in about
20-25 seconds.
In its 13 years of operation, the
installation has given little trouble
and has fully demonstrated the wisdom of its adoption.
Reprinted from Railway Transportation, January, 1953
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