Jiniiiiiiniii
A 1 W'
'%irff»aminiTiiMiTmTnittT~'''""-'"°''''"'""''"'""''''
CYCLES
For Strength combined with Lightness, for
Rigidity and Reliability, there is no machine
known to the cycling world to beat a Humber.
Its well -fitted bearings make easy running a
certainty, the superior quality of every single part
is the pride of the makers, and the elegance of its
design the pride of the owner.
There is a wide range of models from which
to make a choice, all of which — from the
" Beeston " supplied to H.M. the King to
the lowest-priced cycle — are good value
because of their exceptionally long life.
A " Humber " will fetch a good price after
even 10 or 15 years' service.
Illustrated Catalogues and Terms gladly sent on request
HUMBER
LTD.
COVENTRY
LONDON:
32 Holbirn Viadac!;
SOUTHAMPTON:
27 L3adon Road
lALERS EVERYWHERE
14e6H
r
=J^
]y]pTOT@CLE
The Motor Cyclist's Newspaper
li you 'are a motor cyclist, you are a
reader of " The Motor Cycle," of course.
K you are a cyclist, and are thinking of
becoming a motor cvclisj:. you will find ''The
Motor Cycle " exactly the paper you want.
IT will assist you
in choosing a suit-
able machine, and
give you many
useful hints on driv-
ing, care and man-
agement, equipment,
legal matters, etc.
Special attention is
given to the needs of
beginners, and ad-
vice may always be
obtained from the
Editor, free of charge.
EVERY
THURSDAY
of all Newsagents
and Booksellers.
Publishers :
ILIFFE & SONS. LIMITED
20 Tudor Street, London, E.C.4
BICYCLES and—
MOTOR CYCLES
Carry all riders who
appreciate care -free
t
; ; recreation : :
LET YOUR NEXT
MOUNT BE A
ROYAL ENFIELD
CATALOGUE— FREE ON REQUEST
The Enfield Cycle Co. Ltd.
REDDITOH and
48 Ho/born Viaduct, London, E.C.1
MASCOT ' ■" "
I JUVENILE
I CYCLES
TT/^^ concentrate ex-
^^ clusively on one
line — the manufacture of
high-grade Cycles for boys
and girls.
Built throughout of the best
materials, and beautifully
finished, the MASCOT
Juvenile Cycle is a mount that
any hoy or girl would justly he
proud to possess.
The MASCOT is strong, dependable
and — reasonable in price.
Ask for a copy of our latest Catalogue.
■
THE MASCOT CYCLE COMPANY
49 Gresham Street
COVENTRY
r
^ The lure of the countryside, the thoughts of its
people, the history of its ways, make an instant im-
pression upon the tourist who revels in the beauti-
ful scenery with which he is ever coming in contact
^ But to derive to the full the enjoyment of a tour let
your mount be the latest All-Chain Drive 4 h.-p.
Triumph with Patent 3-Speed Gear and easy
acting Shock Absorber — a revelation in transmission
efficiency
^ Triumph Pedal Cycles — Ladies' and Gents' Models
— known the world over for their excellence, are
obtainable at prices ranging from £14 17s. Gd.
^ Illustrated Cycle or Motor Cycle Catalogue sent
post free on request
mil Hill Hill
Triumph Cycle Co., Ltd., Coventry
London: 218, Great Portland Street, VV.l
AND AT Leeds, Manchester and Glasgow
Agents Everywhere
X
PITMAN'S COMMON COMMODITIES
AND INDUSTRIES
THE
CYCLE INDUSTRY
ITS ORIGIN, HISTORY AND \ ' >' /, /
LATEST DEVELOPMENTS
/-^/
BY
W. F. GREW
^^•f'^AW^"^'
SIR ISAAC PITMAN & SONS, LTD.
PARKER STREET, KINGSWAY, W.C.2
BATH, MELBOURNE, TORONTO, NEW YORK
1921
MIDDLEMORE'S
SADDLES
1// 1
No. L 96
When ordering your new mount specify
MIDDLEMORE SADDLE
Middlemore's (Coventry)
COVENTRY ^^^
iiiiiiiiiiiiiiiiiiiiiiiiiiiiiiiiiii
PREFACE
The manufacture of bicycles can be truly described as
one of the most important industries of the country.
The bicycle is also a common commodity, and it is for
these two reasons that this book was undertaken. An
attempt has been made in the following pages to give
a brief outhne of the history of the manufacture of
bicycles in this and other countries from the introduction
of the velocipede to the present day mechanically
propelled machine, the motor cycle.
The author has endeavoured to describe some of the
more important processes of manufacture and to embody
with those descriptions particulars of the numerous
other trades on which the cycle manufacturer is
dependent.
In conclusion, the writer would Hke to thank those
who have so kindly provided him with illustrations of
the machines they make. His thanks are also due to
Messrs. Bell & Sons for their kind permission to repro-
duce illustrations of by-gone models from the late Mr.
H. Hewitt Griffin's book. Cycling. At the same time
he wishes to make the fullest acknowledgments to all
who have in any way assisted him with information
in any form.
W. F. G.
WHITLEY
SIDECARS
Enjoyable Motor Cycling can only be
obtained if the mind is clear of break-
age possibilities. Fit a "Whitley"
Sidecar to your Machine ; the Sidecar
produced for the true Economist,
THE MAN WTIO MUST HAVE THE BEST
Catalogues from all reputable Garages or direct from
The Whitley
Manuiacturing Co., Ltd.
'Phonb: t 1 15 1 /^ J Wires:
No. 835 JLondon Kd., Lioventry "whitcaks"
CONTENTS
CHAP. > . PAGff
PREFACE ...... V
I. EARLY HISTORY AND ORIGIN OF THE
BICYCLE ...... 1
II. THE TRICYCLE ERA . . . .17
III. TANDEM BICYCLES . . . .24
IV. MATERIALS ...... 27
V. FROM THE STORES TO THE RAILWAY DRAY 32
VI. PRODUCTION METHODS .... 45
VII, THE PNEUMATIC AND OTHER TYRES . 50
VIII. CHANGE SPEED GEARS .... 58
IX. SPRING FRAMES ..... 64
X. THE TRADE AND RACING . . .67
XI. THE CYCLE BOOM . . . .71
. XII. ROADS IN GREAT BRITAIN ... 76
XIII. THE WEIGHT QUESTION .... 81
XIV. THE BICYCLE ON THE CONTINENT . . 84
XV. MILITARY AND OTHER SERVICE BICYCLES . 87
XVI. IN THE FACTORY . . . ' . .91
XVII. ACCESSORIES ..... 96
XVIII. PIONEER RIDES ..... 102
XIX. THE MOTOR CYCLE i . . . 105
XX. THE FUTURE OF THE INDUSTRY . .115
INDEX . . . . . .118
THE
"SPARKBROOK
GRAND"
This high-grade Spakkbrook bicycle appeals to the
discriminating rider, whether Lady or Gentleman,
who appreciates the best in workmanship, quality of
materials used, combined with exclusive features,
distinctive design, and superb finish. It is a specialized
product of skilled workmen and practical men, whose
long experience as practical cyclists and manxifacturers,
enables them to vmderstand and meet the requirements
of cyclists.
SEND FOR LIST TO THE SOLE MAKERS
The Sparkbrook Mfg. Co., Ltd.
Coventry
Founded and continued since 1883
ILLUSTRATIONS
FIG. PAGE
1. A BONESHAKER BUILT ABOUT 1868 . . 3
2. THE ARIEL BICYCLE OF HAYNES AND JEFFRIES . 5
3. SHERGOLD'S rear-driven safety BICYCLE ^ . 7
4. THE ORDINARY OR HIGH BICYCLE OF 1888-89 . 7
5. THE KANGAROO INTRODUCED BY HILLMAN,
HERBERT, AND COOPER . . . . ' 11
6. A FRENCH BONESHAKER OF ABOUT 1868 . 12
7. A VERY EARLY LEVER-DRIVEN SAFETY BICYCLE . 13
8. LAWSON'S CHAIN-DRIVEN SAFETY BICYCLE . 13
9. THE RALEIGH CYCLE CO.'S DIAMOND FRAMED
BICYCLE ...... 15
10. THE OTTO BICYCLE ..... 18
11. THE RUDGE ROTARY TRICYCLE ... 19
12. THE OLYMPIA TANDEM TRICYCLE ... 23
13. THE B.S.A. SAFETY BICYCLE ... 29
14. THE FRAME-BUILDING SHOP OF RUDGE- WHITWORTH,
LIMITED ...... 33
15. THE FINISHING SHOP IS A VERY IMPORTANT
DEPARTMENT OF A CYCLE FACTORY . . 43
16. THE DRAWING OFFICE AT RUDGE-WHITWORTH,
LIMITED ...... 47
17. a roadster safety bicycle of orthodox
Pattern . . . . . .51
18. a triumph roadster bicycle with oil bath
gear case ...... 55
19. the linley and biggs two speed gear . 59
20. the sparkbrook roadster ... 73
21. the triumph resilient front fork . . 93
22. the triumph eccentric bottom bracket . 93
23. the harrington cradle spring saddle . 97
24. an american gas lamp . . . .99
25. A MODERN ladies' DROPPED FRAME SAFETY
BICYCLE ...... 103
26. THE SPARKBROOK TWO-STROKE MOTOR CYCLE . 105
27. THE VILLIERS FLY-WHEEL MAGNETO . . 106
28. THE OMEGA LIGHT-WEIGHT SIDE-CAR MODEL . 108
29. THE 6 H.P. ROYAL ENFIELD SIDE-CAR MODEL . 109
30. THE 4 H.P. TWIN-CYLINDER HUMBER . . Ill
31. THE MILLFORD SIDE-CAR . . . .113
IX
COMMON COMMODITIES
AND INDUSTRIES SERIES
Each book in crown 8vo, illustrated, 3/- net
TEA.. Ry A. Ibbetson
COFFEE. By B. B. Keable
itUUiitt. By Geo. Martineau, C.B.
OILS. By C. AiNSWORTH Mitchell,
B.A., h.l.C.
WHEAT. By Andrew Millar
KUBBEEL By C. Beadle and H. P.
Stevens, M.A., Ph.D., F.I.C.
IRON AND STEEL. By C. Hood
COPPER. By H. K. Picard
COAL. By Francis H. Wilson,
M.Inst.M.E.
TIMBER. By W. Bullock
COTTON. By R. J. Peakk
SILK. By Luther Hooper
WOOL. By J. A. Hunter
LINEN. By Alfred S. Moore
TOBACCO. By A. E. Tanner
LEATHER. By K. J. Adcock
KNITTEO FABRICS. By J. Cham-
berlain and J. H. Quilter
CLAYS. By Alfred B. Searle
PAPEIR. By Harry A. Maddox
SOAP. By William A. Simmons,
B.Sc. (Lend.), F.C.S.
THE MOTOR INDUSTRY. By
Horace Wvatt, B.A.
GLASS AND GLASS MAKING. By
Percival Marson
GUMS AND RESmS. By E. J.
Parry, B.Sc, F.I.C, F.C.S.
THE BOOT AND SHOE INDUSTRY.
By J. S. Harding
GAS AND GAS MAKmO. By
W. H. Y. Webber
FURNITURE. By H. E. Binstead
COAL TAR. By A. R. Warnes
PETROLEUM. By A. Lidgett
SALT. By A. F. Calvert
ZINC. By T. E. Lones, M.A., LL.D. ,
B.Sc.
PHOTOGRAPHY. By Wm. Gamble
ASBESTOS. By A. Leonard
Summers
SILVER. By Benjamin White
CARPETS. By Reginald S. Brinton
PAINTS AND VARNISHES. By
A. S. Jennings
CORDAGE AND CORDAGE HEMP
AND FIBRES. By T. Woodhouse
and P. KiLGOUR
ACIDS AND ALKALIS. By G. H. J.
Aolam
ELECTRICrrY. By R. E. Neale,
B.Sc, Hons.
ALUMINIUM. By Captain G.
Mortimer
GOLD. By Benjamin White
BUTTER AND CHEESE. By C.
W. Walker-Tisuale and Jean
Jones
THE BRITISH CORN TRADE. By
A. Barker
LEAD. By J. A. Smythe, D.Sc
ENGRAVING. By T. W. Lascelles
STONES AND QUARRIES. By J.
Allen Howe, O.B.E., B.Sc,
M.LM.M.
EXPLOSIVES. By S. I. Levy, B.A.,
RSc, F.I.C.
THE CLOTHING INDUSTRY. By
B. W. Poole, M.U.K.A.
TELEGRAPHY. TELEPHONY, AND
WIRELESS. By J. Poole,
A.M.LE.E.
PERFUMERY. By E. J. Parry
THE ELECTRIC LAMP INDUSTRY.
BV G. .^RNOLIFFE PeRCIVAL
COLD STORAGE AND ICE MAKING.
tsv H. ri. Spri.sgett
GLOVES AND THE GLOVE TRADE.
By B. E. Ellis
JUTE. By T. Woodhouse and
P. KiLGOUR
DRUGS IN COMMERCE. By J.
Humphrey
THE FILM INDUSTRY. By
Davidson Boughey
CYCLE INDUSTRY. By W. Grew
SULPHUR. By Harold A. Auden
TEXTILE BLEACHING. By
Alec B. Steven.
PLAYER PIANO. By D. Miller
Wilson
WINE AND THE WINE TRADE.
Bv .\NnRE L. Simon
mONFOUNDINQ. By B. Whiteley
COTTON SPINNING. By A. S. Wade
ALCOHOL. By C. Simmon ds
CONCRETE. By W. Noble
Twelvetrees
THE CYCLE INDUSTRY
CHAPTER I
EARLY HISTORY AND ORIGIN OF THE BICYCLE
In this introductory chapter it is not proposed to deal
with the forerunners of the bicycle, such as the hobby
horse and some of the more weird wooden machines
with four wheels and lever motion, which were known
to be in existence before the introduction into this
country of the bicycle propelled by cranks attached
to the axle of the front wheel, called a velocipede.
We will therefore begin with the velocipede, a type
of machine which first attracted the attention of a
Mr. Turner, who saw it being ridden and exploited
at a Paris school of gymnastics.
At this period in the history of bicycles, about 1868,
the city of Coventry had established, by the enterprise
of a few Coventry gentlemen, a factory for the produc-
tion of sewing machines. The firm was known as the
Coventry Sewing Machine Company (afterwards The
Coventry Machinists Co.), and was founded to find
employment for people in the city who had been
thrown out of work by the fierce competition of the
foreign ribbons and watches which were admitted into
the country, either free of duty or on conditions which
left very little profit for Coventry ribbon and watch
makers. Mr. Turner, who was an agent for the firm,
had been asked to look out for something in the
mechanical line, suitable for manufacture at the
2 THE CYCLE INDUSTRY
sewing machine factory, and having been much
impressed by the novelty and possibiUties of the new
velocipede, immediately secured a sample of the
machine and brought or sent it to Coventry. The
directors and managers of the concern there, after
a trial of the boneshaker sent over from Paris, decided
to begin manufacturing and marketing the machine,
and a dozen or so were put in hand at their workshops
and proved a success. This bicycle was made with
a cast-iron frame, the felloes and spokes of the wheels
were of hickory, with steel tyres, and the saddle was
a wooden one covered with leather, thinly padded,
and supported on a long flat spring of steel; the
bearings were plain' journals, i.e. in place of steel ball
bearings the axles of the wheels were of steel and
they turned in chilled cast iron holes in the ends of the
forks. The pedals were called " treadles " and were
mostly of wood. A machine of this description, ready
for the road, was sold in London for about ;£12, without
accessories such as lamp, pocket oil can, shifting spanner,
leather toolbag and brake cord, which cost about
25s. more.
The success of this machine made by the Coventry
Machinists Company laid the foundation of the trade
in Coventry, and it was not very long before quite a
considerable business was done by the pioneer firm, and
they found it necessary to import into the city mechanics
who were more used to the running of heavier machinery
than their first employees, engaged in the making of
sewing machines.
Many of these men came from a firm of ships engine
makers, Penn's, of Greenwich, now merged with other
concerns. Among them were such well-known names
as George Singer, James Starley, W. Hillman, etc.
T. Bayliss and J. Thomas were pioneers in the trade ;
EARLY HISTORY AND ORIGIN OF THE BICYCLE 3
the former was a Birmingham gun maker, the latter
came from a cutlery shop at Banbury.
Gradually these people started workshops of their
own and with local capital and their own savings
embarked themselves as manufacturers of bicycles.
Fig. 1
" FACILIS DESCENSUS "
A boneshaker built about 1868
Matters progressed rapidly, and like all new trades
it attracted other mechanics and engineers to the city
of Coventry. Names such as Haynes and Jeffries,
Rudge, Warman, Laxon, Hazle wood, George Townend,
Hosier, Hillman, Harrington, etc., are all associated
with the early days of bicycle manufacture.
In other towns. Parr, at Leicester, Robinson and
4 THE CYCLE INDUSTRY
Price, at Liverpool, etc., were gaining a reputation.
Gradually the design of the boneshaker was improved,
wrought iron frames followed the cast ones, bearings
were made adjustable, rims were covered with rubber
instead of steel (the early rubber tyres were fiat and
secured to the felloe by nails), and steel spokes followed
the wooden ones.
The great drawback to the boneshaker was its
weight, and makers were constantly endeavouring to
lighten their productions. Naturally, the saving of
weight that first occurred to these pioneers was to make
the parts hollow. Many keen practical minds were
at work, and one part after another was reduced in
weight until there were few parts of the machine that
were not made either of hollow steel tube or stamped
hollow ; even spokes were tried of thin steel tube before
the introduction of the suspension or wire wheel. The
backbone of the bicycle which was evolved from the
boneshaker was of steel tube, at first of fiat steel folded
and brazed and, lastly, drawn out from a soHd steel
block without a join, or weldless, as it is termed. The
forksides or blades of the fork, the part in which the
wheels revolved and which were used to connect the
wheels to the backbone, on which the rider sat and
propelled the machine, were made hollow in the same
manner.
The wheels were at first copies of a light hand-cart
wheel, the wood spokes were brought together by
tapering the spoke ends and wedging them together
at the nave or hub and inserting the other ends in
slots in the felloe or wood rim. The whole was sur-
rounded with a flat steel tyre shrunk on by heating
the rim, dropping it over the felloe, and when it cooled
it shrank and compressed the parts together. That is
the principle of the compression wheel, and is used
EARLY HISTORY AND ORIGIN OF THE BICYCLE 5
ior all wood-wheeled carts and vans to-day. The
cycle makers, in their search for lightness, first made
similar compression wheels, with hollow steel spokes
screwed into iron naves and rims. Then came the
suspension wheel which had all the spokes in tension
instead of compression. These were first constructed
by heading the spokes, threading them through a steel
Fig. 2
THE ARIEL BICYCLE OF HAYNES AND JEFFRIES
The wheel spokes were tensioned by levers
felloe or rim and inserting them into screwed nipples
which were in their turn screwed into the flanges of
the hub. Subsequently the spokes were screwed direct
into the hub and tensioned by turning the spoke itself
and not the nipples. Mention also must be made of
the lever construction of Haynes and Jeffries, the
precursors of the Rudge firm. This was an arrangement
that tensioned the wheel by pulling a lever attached
to the spokes so that they were strained in a direction
tangential to their hub and held tight by locking the
6 THE CYCLE INDUSTRY
lever. Following the methods already described, the
laced and tangent spoked wheels were introduced.
This type of wheel is the modern one that has survived
all the others, and reverses the process employed for
straight spoked wheels in tension. The flanges of the
hub are drilled at right angles, the headed spokes are
bent close to the head, and threaded through the holes
made in the hub flange. The rim ends of the spokes are
screwed and inserted in brass or gunmetal nipples,
which are passed through holes in the rim from the
top or outside and have heads which prevent the
tension on the spoke from pulling them through the
rim ; washers are also placed under the heads and
fitted in the bed of the rim to strengthen the rim at the
points where this tension strain occurs.
Having now outlined the design of the wheels from
boneshaker days to the present time, a task which was
necessary to enable other items in the process of evolu-
tion to be clearly understood, we can return to the
machine itself.
The tendency, in the main, from the early daj^s to
the zenith of glory attained by the high bicycle, or
" ordinary " (as it was latterly termed to distinguish
it from other types which were introduced) was to
increase the size of the front driven wheel and reduce
the size of the trailing wheel. In the earliest models
of 1868-70 the driven wheel was always the larger,
but gradually the diameters of the two wheels became
estranged until a driven wheel of 60 ins. was followed
by a trailing wheel of 18 ins. There was only one
reason why the large wheel stopped growing, and that
was because the length of the rider's hmb defined the
size of wheel he could bestride. It will therefore be
almost unnecessary to explain that the further a rider
was split up or the longer his legs, the greater advantage
Fig. 3
shergold's rear-driven safety bicycle
One of the earliest examples of this type, said to have been
produced about 1876
Fig. 4
THE ORDINARY OR HIGH BICYCLE
2— (1466H)
8 THE CYCLE INDUSTRY
he had over men of lesser stature who could only
straddle a 52 in. wheel, which was the average size
of high bicycle used in the late eighties. Tall men were
almost always successful on the race track, although
lightning pedallers sometimes made up in activity
for what they lost in stature. In other words, those
of a well-known " bookie " of the period, " I'd back
a good big' un against a good httle 'un on a hordinary."
The objections to the high bicycle were many, and
among its chief drawbacks were that owing to the
disparity in wheel diameters and the small weight of the
backbone and traihng wheel, also to the rider's position
practically over the centre of the wheel, if the large
front wheel hit a brick or large stone on the road, and
the rider was unprepared, the sudden check to the wheel
usually threw him over the handlebar. For this reason
the machine was regarded as dangerous, and however
enthusiastic one may have been about the ordinary —
and I was an enthusiastic rider of it once — there is no
denying that it was only possible for comparatively
young and athletic men, and if it had remained the
only bicycle obtainable, the pastime and the utility
of cychng would never have reached its present state
of popularit3^
Introduction of the Ball Bearing. Among the im-
provements made to the ordinary high bicycle the most
important was the patenting of the ball bearing. The
actual patent was the subject of litigation at a later
date, but I believe the credit for the screw-adjusting
t5^e should be given either to William Bown, of Bir-
mingham, or to an engineer named Green of the same
city. Previously to the ball bearing a bicycle had
either plain bearings or roller bearings. The former
required constant oiUng, the latter were not easily
adjustable for wear and entailed a heavier construction
EARLY HISTORY AND ORIGIN OF THE BICYCLE 9
than ball bearings. Bown then, or Green, brought
out a bearing which consisted of a grooved cone
and two cups, the grooves in all three being slightl}'
wider in radius than the diameter of the ball. When
wear took place the cups or one cup were screwed
inwards and relocked. These were separate pro-
prietary articles and were attached to the fork of a
bicycle by cotters and nuts. The rear wheel was
provided with a shghtly different type of ball bearing,
the adjustment being effected by screwing the cones
or one cone inwards instead of the cup or cups. Sub-
sequently ball bearings were apphed to the steering
and the pedals, but an indication of their importance
may be gained by the fact that for a long time the
manufacturers catalogued their machines with plain
bearing pedals and charged 30s. extra for ball
pedals.
We have now arrived at the stage when a high bicycle
was regarded as dangerous, and, if the front wheel were
too small, it detracted from the rider's speed owing
to the shorter distance covered by each turn of the
wheel. What was the next move ? The engineer's
mind turned towards a method of gearing by cogs
or chains, by which one turn of the crank axle would
cause the driven wheel to turn more than once. That
is where we get our method of describing the ratio of
gearing between the crank and the wheel of a modem
safety bicycle. The previous machines had wheels,
say, from 50 ins. to 60 ins. in diameter or height from
the ground. Now supposing you took a 25-in. and a
30-in. wheel and by means of gearing made them turn
twice to each turn of the pedals and cranks, they would
be equal to 50-in. and 60-in. wheels — without gearing —
that is why we still speak of a bicycle with 28-in. wheel
being geared up to, say, 56 ins. when it travels as far
10 THE CYCLE INDUSTRY
for one turn of the cranks as a wheel of 56 ins. does
in one revolution.
Various devices were tried for rendering the high
bicycle safer to ride, but none was commercially successful
except, perhaps, the Facile.
The Facile was introduced primarily to enable the
rider to sit further back along the backbone, and, instead
of the pedals being attached direct to the cranks, the
ends of the cranks were connected to levers pivoted
on extensions of the forksides and having a bearing
for attachment of the connecting rod about one-third
of the distance along the lever from the pedal end.
The rider, therefore, pedalled by pushing the levers
down alternately and releasing the pressure at the end
of the strokes. The Facile was followed at a later date
by the Geared Facile, which was the same design as the
Facile and had the same lever motion for pedalling,
but included a sun and planet gear on the hub. Briefly,
this consisted of a large toothed wheel on the axle
and a crank extending beyond the edge of the wheel.
Working in a bearing on the crank end was a small
planet pinion, or toothed wheel, which meshed with
the larger toothed wheel. Pressure on the pedal
caused the planet wheel to travel around the larger
sun wheel and the road wheel was geared up to the
extent of the added diameter of the planet wheel.
Thus, if the planet wheel were one-fourth the size of
the sun wheel, it geared up the road wheel of 45 ins.
to 56i ins. or thereabouts.
Then, with a bound came the geared up front driver ;
the first was the Kangaroo, produced by Hillman,
Herbert and Cooper. This machine had wheels of about
36 and 24 ins., the front (of 36 ins.) being driven. To
gear up the wheel the fork blades were extended beyond
the centre of the wheel, towards the ground, and bent
EARLY HISTORY AND ORIGIN OF THE BICYCLE 11
slightly backward. At each end was a bearing for
a separate crank, and attached to the crank shaft,
which ran on a ball bearing and was very short, was
a chain wheel. This wheel was slightly larger than
a similar wheel on the hub and the two wheels were
connected by a chain. The arrangement was duplicated
the other side of the main driven wheel and, as already
Fig. 5
THE KANGAROO INTRODUCED BY PULLMAN,
HERBERT AND COOPER
explained, owing to the gearing up the wheel was turned
about H times for one complete turn of the crank
axles. Many hundreds were sold, but owing to the
short crank bearings and the difficulty in keeping the
chains equally adjusted, the vogue was comparatively
short lived.
The Kangaroo was followed by the geared ordinary
and the Bantam, Boothroyd's patents. The first was
a dwarf ordinary with a gearing in the front hub, which
had the same effect as the chains and sprockets of the
12
THE CYCLE INDUSTRY
Kangaroo, but employed spur wheels with teeth all
enclosed in a casing formed by the hub shell. The
" Bantam " had smaller wheels and a similar gearing.
Various attempts had been made, about 1876-79,
to design an absolutely safe bicycle. H. J. Lawson
produced a machine, in 1876, which was practically
Fig. 6
A FRENCH BONESHAKER OF ABOUT 186S
A similar machine was brought to Coventry as a model for
The Coventry Machinists Co. to develop
equivalent to enlarging the rear wheel of a high bicycle,
leaving the front wheel the same size and driving the
rear wheel by a lever motion. The lever motion, as
distinct from the rotary crank, was the first form of
driving medium used on wood four-wheelers prior to
the velocipede or boneshaker. Briefly, when brought
out on Lawson's rear driven bicycle, it comprised a
crank on each side of the hub and keyed to the axle.
EARLY HISTORY AND ORIGIN OF THE BICYCLE 13
a continuation of the frame carrying a bearing for the
foot lever. At a point along the foot lever, varjnng
A VERY EARLY LEVER-DRIVEN SAFETY BICYCLE
This model preceded the chain-driven type by about two
years
Fig. 8
LAWSON'S CHAIN-DRIVEN SAFETY BICYCLE
WHICH FIRST SAW THE LIGHT ABOUT 187&-9
with the t3^e of machine, was a bearing for a con-
necting rod which connected the crank on the hub
axle to the foot lever, in a similar way to the Facile
already described.
14 THE CYCLE INDUSTRY
The Singer Xtraordinary Challenge was another
model that was introduced to put the rider further
back and down the backbone and yet to leave him
in a position where he could exercise power over the
cranks. The machine resembled an ordinary, but had
an abnormally raked fork at an angle of nearly 30°.
The cranks were driven by levers pivoted to bearings
on the fork-sides about half way between the wheel
centre and the periphery.
There are various claimants to the credit of intro-
ducing the first rear driven safety bicycle, where the
wheels were practically of equal size and the gearing up
of the driven wheel being effected by a pair of chain
wheels and a chain. Commercially — and it is the object
of this book to show the growth of the industry from
a business view point — the honour is due to the late
J. K. Starley, nephew of the original James Starley.
Mr. Starley was in partnership with a Mr. Sutton in
Coventry as a bicycle maker, and in 1885-86 designed the
" Rover " safety bicycle which has " set the fashion
to the world," as, say, The New Rover Cycle Co.'s
advertisements. The original " Rover " was the
forerunner of many famous safety bicycles, and numerous
and ingenious were the designs brought out to obviate
infringement of the original registered design and yet
produce a safety bicycle with similar characteristics.
Starley's frame connected the two wheels by forks,
but there was no tube connecting the saddle and the
bottom bracket as was afterwards done by Thos.
Humber, at Beeston, Notts. An inspection of the
illustration of the original Rover frame is the only way
to understand what is meant by the above description.
The Rover safety bicycle sounded the death knell
of the " ordinary " and gave an immense impetus
to the industry.
EARLY HISTORY AND ORIGIN OF THE BICYCLE 15
Humbers produced an open diamond frame with
all the tubes straight, which was, of course, the correct
method from an engineer's view point. The Raleigh
Co., at Nottingham (then Woodhead, Angois and ElHs)
made a similar machine. Makers sprang up all over
the Midlands and in the London district. A famous
road racing cycUst, Dan Albone of Biggleswade,
designed the cross frame safety bicycle, and this was
largely copied by others too numerous to mention.
Fig. 9
THE RALEIGH CYCLE CO.'S DIAMOND-FRAMED
BICYCLE
Later the designers of the famous Humber firm at
Beeston, near Nottingham, introduced the Beeston
Humber frame. This was the forerunner of the present
day safety bicycle and has been little altered to this day.
Originally, the Beeston Humber had equal wheels of
28 ins., a straight tube diamond frame with a fairly
long steering head and the top tube sloped slightly
upwards. Naturally, the model was copied by almost
every manufacturer.
16 THE CYCLE INDUSTRY
Other models, of course, had a big run. A firm in
London, G. L. Morris & Co., designed a popular machine
about 1886-87 ; this was named the Referee and may be
said to be a pioneer pattern much favoured by London
club riders. The makers of the Premier, at Coventry,
brought out the Catford Premier about the same time.
None, however, survived the original Beeston Humber
design and although Coventry and Birmingham makers
adhered for long to their pet patterns they had to admit,
one by one, the soundness of the original Humber
model, and introduce something as near to it as possible
without infringing the parts of it that were registered
or patented.
The modern safety bicycle differs very little from
the Humber frame, the steering head is shorter, the
top tube is horizontal, the tread (width over the cranks)
is, perhaps, narrower and there are other modifications
in parts, dealt with elsewhere, but the broad outline
is still with us.
CHAPTER II
THE TRICYCLE ERA
The tricycle was undoubtedly introduced to combat
the danger of riding the high bicycle. Riders of the
early models of these machines will, however, confirm
my opinion that they were far from safe, and if one did
get a spill from one it was almost certain to result in
a mix up with the wheel spokes and other mechanism,
because one was seldom thrown clear of the machine
as in the case of a fall from a bicycle.
The tricycle did, however, provide a means of cycling
for those who could not manage a high bicycle and,
of course, ladies were enabled to indulge in the pastime
for the first time since they had ridden pillion fashion
behind their squires on the old hobby horses.
The t5rpe of tricycle that first made a name in the
industry was the machine invented in 1877 by the late
Mr. James Starley, uncle of the Mr. J. K. Starley who
subsequently made the name of Rover a household
word throughout the kingdom and far beyond.
This machine was named the Coventry Lever Tricycle,
and was driven by pedals and levers. It had a single
driven wheel and two steering wheels, the latter being
moved to and fro by a side handle hke that of a spade,
rods and a rack and pinion. The latter form of mechan-
ism consists of teeth on a small wheel engaging with
similar teeth on a flat strip ; the small wheel or pinion
is attached to the actuating rod and by turning it the
rack is moved to and fro. The same mechanism is
used to-day for the steering of very low-priced small
motor-cars, and the movement of the wheels is thereby
17
18
THE CYCLE INDUSTRY
geared down. It was used on early tricycles for the
same reason, viz., that a relatively large movement of
the spade handle only diverted the steering wheel of
the tricycle a small amount, which gave the rider more
control over the steering and prevented the wheel from
Fig. 10
THE OTTO BICYCLE
A two-wheeled machine which required to be balanced in
the fore and aft directions
being twisted out of his hand. Among the well-known
tricycles that followed the original of James Starley
were the Challenge (Singer & Co.), the Salvo (Starley &
Sutton), etc. James Starley was the first to use a
balance geared axle on a tricycle ; this is a piece of
mechanism that is embodied in the axle and divides
the shaft into two parts. It will be readily seen that,
when a tricycle is turned, the outer wheel that describes
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20 THE CYCLE INDUSTRY
the biggest radius or curve must travel further than the
inner, which remains practically stationary or turns
very slowly, according to the sharpness of the curve.
Starley overcame this by fitting a balance gear which
enabled one wheel to over-run the other when the tricycle
was deflected from a straight course, and yet allowed
both wheels to take their equal share of the driving
power. Previously, only one wheel was driven — the
other running loose on the axle.
Whether Starley actually invented the device or
adapted it from Aveling and Porter's road traction
engine is obscure ; in any case he should have the credit
of being the first to recognize its importance. It may
be added at this point that practically every motor
car is provided with a balance geared axle.
The designs of tricycles went through several stages.
There were rear driven tricycles with one wheel at the
rear and two front steering wheels, double driving
tricycles with two rear wheels and one front steering
wheel, both having three tracks. The advocates of
two tracks made machines with two rear driving wheels
and the front steering wheel in a line with one side
driving wheel (usually the off side) — the Royal Mail
was one of this type. Then came a most ingenious
machine, the Rudge Rotary. Haynes and Jeffries, who
preceded D. Rudge and the Rudge Co., had made a
machine on these lines, but when the storage of a tricycle
was tackled by the makers it was found that to enable
a tricycle to be wheeled through narrow doorways it
must not exceed about 2 ft. in width. The ordinary
tricycle was about 3 ft. wide.
The ingenious Rotary was made with one large driving
wheel, so dispensing with the differential or balance
geared axle. The rider sat on a saddle perched over a
frame that extended fore and aft with its centre about
THE TRICYCLE ERA 21
18 ins. away from the big driving wheel. The side tube
of the fore and aft frame had a small steering wheel at
each end, carried in forks, and the two were intercon-
nected by a rack and pinion, so that one steering
handle of the spade type turned both wheels simul-
taneously to the correct degree to allow one to follow
the path of the other when turning.
This machine had a big vogue and was fast and
fairly light. It certainly made the reputation of the
Rudge Co. in those days.
Another type of tricycle that was much favoured
was the Humber front steerer. This was made with a
backbone and trailing wheel like a bicycle, the axle
was balance geared and ran in bearings connected to a
frame that sprang upward to form the steering head
and downward and rearward to carry the crank axle
and its bearings. It was steered by moving the two
driving wheels by a handlebar just like a bicycle. Its
one disadvantage was that owing to the construction
the machine had approximately to fit the rider's length
of reach.
Following this tjrpe of tricycle it was natural that the
advent of the rear driving, front steering safety bicycle
should have turned designers' thoughts to make a
tricycle like a safety, only with two rear wheels in place
of one. Humbers were one of the first to make a tricycle
with a front steering wheel in a fork like a safety, and
they named it " The Cripper " after the name of a
professional rider, Mr. Robert Cripps, who won many
races on it on road and track. Bob Cripps, as he was
known to track frequenters, is alive to-day and runs
a motor garage business at Nottingham.
From the days of the Humber Cripper tricycle this
type of machine has advanced along very similar lines
to the safety bicycle. Gradually the size of steering
22 THE CYCLE INDUSTRY
wheels increased, and driving wheels, once about 44 ins.,
decreased till they became all one size, 28 ins., then
26 ins., where they remain to-day. The side elevation
of a modern tricycle is exactly the same as a safety
bicycle, and the weight of the road racing tricycle is
sometimes no more than an average roadster safety.
There are cychsts, like Mr. F. T. Bidlake, who prefer
a tricycle to a safety, and to such men a long ride on a
tricycle is no more fatiguing than a safety bicycle ride
of the same distance.
Very few large manufacturers, however, cater for
the tricycle trade as the demand is so limited, and
tricyclists mostly obtain their machines from local
assemblers, who are much aided in their work by the
beautiful tricycle balance geared axles made by the
Abingdon firm of Tyseley, near Birmingham. This
concern was one of the pioneers in the industry and
originally were small arms makers in the gun making
quarter of Birmingham.
Tandem tricycles and sociable tricycles are machines
of the past. The latter were ponderous affairs weighing
over 1 cwt. and mostly made by taking a front steering
tricycle or a Rotary and coupling another wheel, crank
axle and chain to the existing frame and extending
it outwards to accommodate the seat or saddle of the
companion rider.
Tandems were rather a different affair. The Olympia
tandem of Marriott and Cooper and the Beeston Humber
tandem were fast reliable machines. The former had
a single rear driving wheel and two steering wheels
actuated like the steering wheels of a motor car, i.e.
each wheel was separately pivoted. The saddle for the
front rider was carried on an extension of the frame
and the handle-bar was bent to pass behind the rider's
back. Chains were used to convey the transmission
THE TRICYCLE ERA. 23
and the later models had equal sized wheels and pneu-
matic tyres. The Beeston Humber tandem tricycle
was exactly the same as the solo machine already
described; it had a saddle for the front rider on the
swivelling portion of the frame that carried the combined
Fig. 12
A TANDEM TRICYCLE CALLED " THE OLYMPIA "
driving and steering wheels. Owing to the way the
weight of the two riders was distributed, one in front
of and the other behind the axle, the machine was well
balanced and much faster than any other machine
of the tricycle tandem type — ^until the introduction
of the tandems made on the lines of the modem tandem
safety, only with a pair of double driving rear wheels
in place of a single wheel.
3— (U66h)
CHAPTER III
TANDEM BICYCLES
That the tandem form of bicycle is a most fascinating
machine few will deny who have had an opportunity
of riding one. Compared with the single, however,
they are not popular, as for every tandem thousands
of singles are to be seen on the roads, and that is caused
by the increased handiness of the solo mount and the
fact that the double type necessitates the partner
always being ready to accompany one on rides. There
is also the difficulty of storage, as a tandem bicycle is
not the most convenient form of machine to stable
in a house, and tandem owners usually find it essential
to provide accommodation for the steed in an outhouse.
The earliest practical forms of tandem bicycle began
to appear on the roads about 1893, or contemporary
with the pneumatic tyre. They were, of course, intro-
duced to permit the use of a bicycle by a lady and
gentleman, and all early models were designed for the
lady to occupy the front saddle. Among the firms
who were pioneers of this type of machine one remembers
the Humber, the Singer, the Rudge, the Raleigh, the
Whitworth and the Chater Lea.
By placing the lady in front it was thought in those
days that she must occupy the place of honour, and the
fact that she was likely to receive the first bnmt of a
collision, not to speak of cold winds, was forgotten.
Naturally, the mere male was entrusted with the steering
and balancing, and to enable these functions to be con-
trolled from the rear handle-bar the two sets of handles
had to be connected by a rod on the off side. This
24
TANDEM BICYCLES 25
arrangement meant that the front rider had handles to
hold but was not expected to do any steering or balancing,
or she interfered with her partner's control of the
machine, and by ignoring the instructions might cause
a spill at a critical moment.
The early frame designs were rather crude, as might
be expected, and consisted of a strengthened dropped
front frame attached to a rear quadrilateral terminating
in the usual rear fork. The rear rider's pedal crank
axle was connected to the front crank axle by a
chain, so that the thrust of each rider's pedals were
communicated to the rear road driven wheel.
The frame described above was weakness itself, and
much binding of chains and bearings caused the machine
to run rather hard.
It is difficult to say who first introduced the lady
back tandem, as the modern type is described, but
tandems for two male riders had been in use for a long
time before the dropped part of the frame was placed
at the rear. I believe the late P. L. Renouf made one
of the first lady back tandems, at Humber's Coventry
works, but doubtless others may claim the title of
first.
The design of G. P. Mills, when at the Raleigh Co.,
Nottingham, was regarded as the most scientific type
of tandem frame for years, in fact it remains unbeaten
to-day. This frame is triangulated from front to rear
and can be ridden by two women, wearing skirts, by
a man and woman, or two men.
The tandem has got a bad name as a roadster because
so many imagine that it requires harder pedalling
uphill than a single. I do not agree absolutely with
this opinion, and I think it has arisen chiefly because
tandem pairs do not practise together sufficiently often
to acquire the unity of action that is required to make
26 THE CYCLE INDUSTRY
hill climbing as easy on a double as a single. Also,
tandems are often geared too high. On level ground
and down hill the tandem scores every time, principally
because the surface area offered to the air resistance
is but little more than that of a single machine and rider
plus the increased propulsion effort of the second rider.
Weight also counts down hill. Luggage carrying
capacity is said to be reduced to that of a single because
there is only the space over the one rear and one front
wheel in which to place carriers for two people. This
may be an objection, but in my opinion a tandem is an
ideal touring bicycle for husband and wife, because
the weaker efforts of the lady rider can be compensated
to some extent by the more energetic and powerful
pedalling of the partner. Strickly speaking, both efforts
should be equal, but providing the double power is
applied to the cranks evenly and at the correct crank
position, there is no retarding effect if one rider exerts
more power than the other.
In the case of the modem lady back tandem, the
rear handle-bar is a fixture and only the front one is
used for steering and balancing in the usual manner.
The increased cost of motoring has had something
to do with the recrudescence of the tandem bicycle,
as there is evidence of more of these machines being
used this year than for some time past.
CHAPTER IV
MATERIALS
There is little doubt that the pioneers of the industry
had a hard up-hill struggle with materials in the early
days of the bicycle. The parts makers all had to be
educated to their requirements. We have read that the
early velocipedes had cast iron frames, wood wheels,
long bow springs for the saddle and steel tyres. No
great difficulty there, because the carriage builders
of that time were conversant with the parts required.
When tubular backbones, wire spokes, ball bearings,
special stampings and castings, india-rubber tyres, steel
tyre rims, handles, saddles and other parts were required,
makers of these had to be found, and not only manu-
facturers of the goods but those capable of making
them to a specification. Coventry, the home of the
cycle trade at that period, was not a manufacturing
town in the sense that Birmingham was and is the
centre of the steel toy manufacturing industry.
It was, therefore, natural that in their search for
suitable unfinished and partly finished materials the
Coventry engineers and mechanics turned to Birming-
ham and the adjacent Black Country towns to provide
them with much of the raw and partly finished material.
Shefiield supplied bar steel for bearings, wire for spokes,
handles, made of horn on steel shanks, etc. Walsall
provided saddles. Springs came from Sheffield and
Redditch, and so on.
Without the beautifully drawn steel tube for back-
bones and later for frames, which was produced by
firms like the Weldless Steel Tube Co. and other firms
27
28 THE CYCLE INDUSTRY
now merged in Tubes, Ltd., it would have been impos-
sible to produce a bicycle at the weight required. Other
Birmingham firms made balls for the bearings ; at one
time these were cast or moulded like old-time bullets,
placed in grinding machines and rubbed round (or as
near to a sphere as possible, they were many thousandths
of an inch out of round) with emery powder and oil.
Each ball was worth a shilling at one time and the
writer has paid that sum for them.
Then came ball making machinery, each machine
specially constructed by the ball maker such machinery
could not be purchased. One maker of balls, to produce
them at a price, went into the country and used water
power and more or less secrecy to keep his trade and
knowledge to himself. Afterwards machinery was
designed and first made by Mr. W. Hillman and erected
at Coventry for cutting balls from steel wire. Foreign
makers also flooded our markets with cheap balls.
Imagine the early struggles of men like the late James
Starley, George Singer, W. Hillman, Thos. Humber,
and many others, every time they altered a part they
had to make, with their own hands and tools, patterns
in iron, brass, or gun-metal, take or send them to
specialists in stampings, or to a coachsmith, and have the
first few parts made, forged bit by bit by hand. These
men had no draughtsmen, no pattern makers, everything
was the product of their own heads. Gradually, when
the pioneer work began to show results, manufacturers
in a larger way of business were attracted by the require-
ments of the bicycle trade, but the above-named pioneers
did most of the spade work.
The assistance of Birmingham was not exactly without
its risk to Coventry, because in the production of parts
and materials this larger city began, when slack times
came, to look round for outlets for a production that
MATERIALS
29
Coventry could not always assimilate. Birmingham
produced parts of bicycles but few complete machines.
Large firms, notably Perry & Co., Ltd., the pen makers,
the Birmingham Small Arms Co., and others, began to
supply sets of fittings for small makers, who were thus
enabled to make bicycles with the engineering part
Fig. 13
THE B.S.A, SAFETY BICYCLE
The forerunner of a famous firm's products
that required first-class machinery largely eliminated.
The Eadie Manufacturing Co. was established at Red-
ditch by Albert Eadie, Perry & Co.'s sales manager,
and Robert W. Smith, a Coventry engineer from Rudge's
big factory. The B.S.A. Co.'s machinery at Small
Heath, Birmingham, was not fully employed on rifle
contracts, and the directors looked about for other
.suitable mechanical work to keep their staff employed.
Bicycles were largely demanded. The firm's engineer
30 THE CYCLE INDUSTRY
was at that time O. P. Clements, a Swede, who had come
to Birmingham to organize the B.S.A. gun and rifle
production. He was consulted about bicycles, the idea
at first being to make complete machines. After he
had thought over the question he said he knew nothing
about bicycles but he could make the parts of bicycles,
partly on machine tools used in the production of
lethal weapons. From that time the B.S.A. Company
has never relinquished its hold on the bicycle industry
and has amalgamated with other concerns to make
bicycles, motor-cycles and motor-cars. The bicycle-
making side of the business was, until recently, presided
over by Mr, G. A. Hyde, the patentee of one of the best
free wheels for bicycles and known as the Hyde free
wheel.
One might say that at one time while Coventry was
known as the hub of the cycle industry, Birmingham
produced very many of the parts from which Coventry
gained its reputation as a bicycle producing centre.
However, making good parts is not, as every cycle
engineer knows, the end all and be all of a first-class
bicycle. Coventry excelled all round in the production
of perfectly made frames, hard, wear-resisting bearings,
and in the finish of the completed article. Birmingham
was the " mass producing centre in the early days,
and gradually the industry spread to Wolverhampton.
It was estabhshed by Thos. Humber at Nottingham,
by Albert Eadie at Redditch, and by others at London,
Leicester, and many other places. Coventry is still
largely dependent on Birmingham and district for
most of the steel tubing from which bicycles are made,
the steel bars for bearings come mostly from Sheffield,
the springs for brakes and saddles from Redditch ;
saddles are made in Coventry but larger quantities
are produced in Birmingham and Walsall. T>Tes
MATERIALS 31
are almost wholly produced in Birmingham, some in
Edinburgh, Leicester, and, again, some in Silvertown,
Essex. The castings and stampings are produced in
Coventry, Birmingham, Walsall, Dronfield, Oakengates,
etc. Rims are made in Birmingham and Coventry.
The industry may now be said to have spread all over
the Midlands, Yorkshire, and parts of London. In fact
there are very few places now where something or other
is not made which is used in the manufacture of bicycles.
Wolverhampton, Birmingham, Bristol, London, etc.,
supply the enamels and paints used for the finishing
of the frames and wheels. Yorkshire, Coventry,
Birmingham, America, and before the war, Germany,
supplied machine tools. Nickel plating materials are
supplied from Birmingham but some of the material
comes from overseas. Sweden sends the steel blocks
from which the steel tubing is made. Tin plates for
chain cases come from South Wales, celluloid for
handles from Germany, leather for saddles from the
Argentine, balls for bearings from Sweden, rubber for
tyres and pedals from South America, Ceylon, Java, etc.
So one might go on enumerating the different centres of
industry that supply the cycle trade ; but it does not
require much imagination to compare the early struggles
of the pioneer cycle mechanics with those of the present
day, who have largely to fit together what is made for
them by other producers.
CHAPTER V
FROM THE STORES TO THE RAILWAY DRAY
In writing a chapter on the production of bicycles under
the above heading it is possible to describe each process
in detail until one would have quite a large book on that
subject alone. It will be readily understood that in a
book of this size such microscopic attention is impossible.
It is, therefore, my intention to take the reader a per-
sonally conducted tour round a large cycle factory,
commencing at the stores and finishing at the loading
bay of the packing department, and refer briefly to each
process in passing. We will imagine, therefore, that
the entree has been secured to look over a cycle factory
where everything except saddles, handles, tyres, and
toolbags, is produced on the premises and assembled
to make a complete bicycle. Arrived at the rough
stores we find bins on the floor and racks lining the walls
right up to the roof. In the racks and bins are steel
tubing in multiple lengths of several feet, ready for
cutting up into frame tubes, bars of steel of various
sizes for making into cups, cones, and spindles for hubs,
castings and stampings for frame lugs, spokes in bundles,
steel and wood rims of various sizes, and of course,
the usual stock of steel and other stores required by
the factory millwrights for engineering purposes other
than the actual construction of the bicycles.
Each stores has its own storekeeper, a clerk who
speciaUzes in organizing his department so that there
is not a superfluity of one article and a scarcity of
another. The various articles as they are dehvered
are counted, weighed, or otherwise reckoned, and a
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34 THE CYCLE INDUSTRY
record on cards of the number or weight is placed over
each bin or rack. As the articles are requisitioned
by the factory management, the numbers or weight
extracted from bins or racks are noted on the cards
and the supply made up from outside, the aim of a good
storekeeper being to maintain a certain high-water
mark, below which the stock is not permitted to fall.
Very little of the material issued from a rough stores
ever comes back again, but the state of things in the
finished stores is different. Here, again, are bins,
fixtures (a series of shelves in wood or iron with vertical
divisions like large pigeon holes of a desk), and racks,
but they all hold finished or partly finished parts.
Thousands of axles, cups, cones, balls, nipples, nuts,
screws, etc., will be seen all neatly arranged and docketed,
the racks hold finished frames, forks, saddles, mudguards,
brakework, etc.
The procedure here with regard to issuing the parts
is that a requisition comes from the office management,
sales or other department, to put through, we will say,
100 machines of a certain model (the requisitions in
some factories are much larger, but we will take the
above figure as an example). The storekeeper in the
rough stores issues to the machine shop and frame
builders 100 sets of frame lugs, 100 sets of tubes cut to
length and mitred, enough tube to make up 100 seat
pillars, fork-sides, and crowns for 100 forks, 200 rims,
the necessary spokes, and so on. These are made up
into complete frames, wheels, forks, etc., and go when
completed to the finished stores ; here they are viewed,
and re-issued to the finishing department with the
necessary tyres, saddles, handles, brakework, and so
on.
Each time the parts enter the stores from the factory
the work done is entered and the operatives are given
FROM STORES TO RAILWAY DRAY 35
credit for the work done, and the cards or books pass
along to the wages office, where those who are on
piecework rates are credited with the various amounts,
and paid weekly, or the amoiuits are allowed to accumu-
late for a period settled between the shop stewards and
the management, and the workpeople draw a weekly
wage on time clocked, balancing the accoimt at
intervals.
In very large factories there may be a separate stores
for tyres, another for brakework, frames and forks,
and another for wheels, each floor or department
having its own stores. Whether this arrangement or
the one outlined is followed, the procedure is practically
the same as regards the checking and recording of the
work as it passes through the various processes.
Frame Building. We now enter the frame building
shop, where the lugs and tubes are built up to make the
frame. The lugs, in the form of castings or stampings,
have been machined in the machine shop. This consists
of placing the lug on a jig (a tool that holds the lug at
the correct angle for turning, drilling or boring) which
is bolted to the lathe or drilling machine which forms it.
Iron castings are hollow and have little superfluous
metal to be removed, stampings are solid and the steel
to be machined away is considerable. Modem methods,
however, allow either to be dealt with with practically
equal rapidity, and when completely machined each
lug weighs only a few oimces. Some firms, notably
the Raleigh and Rudge- Whit worth, use pressed steel
lugs, a process which presses the lug from sheet steel,
which is folded, so to speak, between dies in a very
powerful screw, or other type press. The frame builder
is provided with a sort of master frame, called a jig,
on which he assembles the lugs and tubes roughly,
and when they are positioned by stops on the jig he
36 THE CYCLE INDUSTRY
turns screws which lock the parts while he drills holes
at each joint for conical metal pegs which keep the tubes
in place while the joints are brazed. The frame builder
is responsible for the correct ahgnment of the frame.
When the joints are pegged he passes on the frame,
or it is taken for him, to the brazing shop.
Brazing. Brazing is done in different ways in different
factories, some adhere to hearth brazing, others use the
more modem liquid brazing. Brazing is really soldering
with hard brass, as distinct from soft solder. In hearth
brazing an open fire of " breeze " (small coke) is kept
at a high temperature by allowing a pressure coal gas
flame to impinge on the glowing coke. The joint of
the frame is pushed into the fire, but before the frame
builder parted with it he had coated the two metals
to be united with a flux to facilitate the flow of the brass.
The brazer has in his hand a " stick " of brass or a
spoon filled with brass dust called " spelter." When
the joint has reached the correct temperature he feeds
it with the " stick " or " spelter," and the flux carries
the molten brass into the joint. Parts on which the
brass should not adhere are specially coated to prevent
the molten brass from sticking to the steel or iron.
The other process, called liquid brazing, consists
of placing the joint of the frame or other part into
molten brass spelter, heated in a special kind of gas oven.
The part is withdrawn when the brass has run into and
between the two surfaces to be brazed.
After brazing, the frames and forks go into vats
and are pickled. This is a bath of corrosive liquid
that attacks the rough spelter and softens it previous
to the filing up of the joint, or, if the firm has a sand
blasting shop, the rough spelter is blown off by a strong
cmrent of air, in which sand or shot is carried, and
forced on to the joint from a flexible pipe held in the
FROM STORES TO RAILWAY DRAY 37
operator's hand, the frame, fork, etc., being supported
on a bench. The sand blasters wear masks and cloaks
which make them appear like the pictures of torturers
in illustrations of the old Spanish Inquisition.
From the filing up or sand blasting shops the frames
go to the iron polishers. These men or women (for
female labour is employed for polishing) hold the frames
on grinding wheels or in some cases endless belts coated
with emery, and they grind or polish the whole frame
till it is bright and very smooth.
The frames and forks then go to the enamellers,
a part of the factory we shall visit presently, when
the other parts are ready for the painting process.
The Machine Shop is the department where all the
parts that require turning, boring, milhng, or profiling,
are machined, as the various metal removing processes
are termed. Here we may see turret lathes, forming
hubs from bar steel, milling machines, forming the
teeth on sprocket wheels for the reception of the driving
chain, milling or profiling cranks, turning and boring
frame lugs and fork crowns, profiling the internal parts
of free wheels, and a hundred other small parts that go
to make up brakework, pedals, etc. Small screws,
nuts, steps, bolts, etc., are usually bought from specialists
who can make these parts from steel bars in automatic
lathes at very much lower prices than can a cycle
manufacturer, who would have a comparatively few
of each to make before he had to change the tools in
the machine. Hubs are made from stampings and
castings as well as from bar steel, opinion being divided
as to the economy of the three processes.
The wheel building is often done by women and girls.
The steel rims are drilled or punched in special machines
which space out the holes evenly, for 32, 36, 40, or 44
spokes, according to whether they are to be used in
38 THE CYCLE INDUSTRY
front wheels, back wheels, racing or roadster machines.
The spokes of steel wire are supphed headed, bent, and
screwed. Where the screwing is rolled on instead of
being cut with dies, each spoke is apparently only
touched against the rolls and the thread appears. The
rolling leaves the skin on the metal and enables a hghter
wire to be used, because it does not cut through the
skin and weaken it.
The nipples are of brass or gun-metal and the washers
of steel. The wheel builder laces the spokes through
the holes in the hub flange, then through the holes
in the rim and shps a washer and nipple on the end of
each. When the wheel is loosely assembled it has to be
trued. This is a process that requires skill to obtain
the same degree of tension on each spoke and is effected
by screwing the nipples down the spoke with a special
nipple key turned by hand or power on the end of a
flexible shaft. The final truing process is done entirely
by hand.
Brakework and mudguards are usually made up in
a separate shop or on a separate bench. The mud-
guards are rolled by specialists from flat strips of thin
steel and are delivered to the makers bright, ready for
attaching the stays and bridges. The latter are the
strips of metal laid across the mudguard and riveted
to it, or, in some cases, electrically welded or brazed.
The eyes are formed on the stays or they may be separate
parts brazed or welded to the stays.
The brakes vary a good deal on different machines,
but on high-class bicycles they are usually operated
by Bowden cables and wires which are concealed in
the handle-bar and are operated by inverted levers
underneath the hand grips. The Bowden mechanism
obviates all bell cranks, rods, and other levers because
it conveys a direct pull to the brake while passing
FROM STORES TO RAILWAY DRAY 39
around angles which are not too acute to prevent free
sUding of the wire inside the cable.
Another popular type of brake is the roller lever
brake. This is usually made up by the cycle maker to
suit his own models and consists of a lever placed each
side of the handle-bar which rolls or turns in a bearing.
At each end of the lever there is a crank which pushes
down a rod in communication with the front or rear
brake shoes. The handle-bar brakework is usually
assembled on the bar ready to sHp into the machine
in the finishing shops.
Handle-bars are largely bent by specialists, but some
firms make their own. The process is usually to bend
the touring patterns cold by inserting a spring mandrel
in the straight tube, to prevent the metal kinking or
denting, and withdrawing the mandrel by unwinding
it. The curly types of handle-bar affected by racing
cyclists often have to be filled with sand or rezin prior
to heating and bending, the " loading " material, as
it is called, being afterwards melted and poured out.
The stem of the bar may be inserted in a " T " lug
threaded on the bar, or it may be made entirely from
steel tube. In the latter case some skill is required
to wrap or " lap " the top of the spht stem around the
bar to make a neat joint. Seat pillars are nearly always
made by the " lap " joint method; a good bicycle may
be often known by a careful examination of these joints,
because a maker with a reputation employs men who can
make these joints practically invisible, whilst the shoddy
ones have rough edges and imperfectly made joints.
As the pohshing, plating, and enamelling have to
take place before the machine is assembled, we will
visit those shops before going to the finishing shop,
the term applied to the bay or floor, where the bicycle
receives its final touches.
4— {1466H)
40 THE CYCLE INDUSTRY
Polishing is a process that consists of holding the
parts, large and small, on wheels of various diameters
and widths that have on their edges or peripheries
leather coated with emery dust which adheres to glue
with which the wheels are coated. The final polishing
(plate pohshing) is done with wheels made of discs
of cahco, which assume a certain rigidity suitable to
the work when they are revolving at high speed. The
disc or wheel of calico discs is called a " mop " and the
process is termed " mopping," to distinguish it from
the coarser polishing. The calico is impregnated with
grease and tripoli or rouge powder and also powdered
lime or whiting.
The polishing shops resound with the whir of the
polishing lathes and the air is largely impregnated with
dust of steel, emery, glue, and leather. The operators
are supposed to wear respirators, goggles, etc., to protect
their lungs and eyes, but more often discard them when
the foreman's eye is removed — one instance of where
a paternal Government legislates for the workers'
welfare without very much gratitude on the part of the
operators.
Practically all parts come to the polishing shop
because, without a highly polished surface on painted
and plated work, imperfections would be very much
magnified when the machine was turned out.
When the. parts leave the polishers they are not
chemically clean, and if they were immersed in the
plating bath or enamelling vats before being cleansed
to remove all trace of grease, the plating and enamel
would peel off. They are therefore thoroughly scrubbed
with chemicals to remove the grease, and when dry are
placed in plating or enamelling vats.
The former is, of course, an electrical process, and
consists broadly of depositing metal (nickel) from a
FROM STORES TO RAILWAY DRAY 41
slab of the nickel to the steel. Various methods are
used, and some highly ingenious machines have been
devised for rapid plating of small articles. The latter are
strung on wires like the Chinese carry money, and hung
from metal rods which are charged with an electrical
current of low voltage. The other pole of the electric
current is connected to the nickel slab (anode) and the
nickel passes from the anode to the steel to be plated.
When the parts emerge from the bath they are dull
plated and resemble unpolished aluminium ; therefore,
before being sent to the finishers or finished stores they
have to be polished again on the before mentioned
calico mops or wheels.
The polished work to be enamelled has to be chemically
treated to remove all grease, and in some instances baths
of heated patent liquid are employed. Some makers
are content to clean the parts with a grease removing
spirit, like turpentine. When clean, the frame, fork,
mudguards, etc., are either dipped in liquid black enamel
and hung up to drain or- liquid enamel is poured over
them. When the superfluous enamel has drained back
to the sump of the pan the parts are lifted on hooks
(the enamelled surface must not be touched with the
hand) and himg in gas heated stoves, where they are
baked at a high temperature for a few hours. The very
best bicycles receive at least three coats of thin enamel
and are stoved between each apphcation. The resulting
surface, when cold, should resist blows with a wood
broom handle without cracking.
Enamelled and plated parts are handled by the
assemblers in the finishing shops in different ways,
according to the organization in different factories, but
a common method is to have an iron pillar standing
up at the edge of the bench, the steering tube of the
frame, minus the fork, is dropped over the pillar and the
42 THE CYCLE INDUSTRY
frame is free to swing. The finisher scrapes superfluous
enamel out of the bottom bracket threads, and other
parts where bearings, etc., require to be fitted, runs
a dimimy, or easy fitting tap, through the threads, wipes
a little oil on the threads and screws in the bearing cups,
fits the axle, cotters on the cranks and chain wheel,
inserts the seat bolt, ball head cups, attaches the rear
mudguard and brake work, and sUps the rear wheel
into the forks. All this sounds very easy, but in the
best work there are small adjustments to be made.
Sometimes the plating has adhered where it is not
wanted, and nuts and bolts will not screw together
easily. To ease the threads the finishers use a hand
tapping machine, and a similar hand machine for
screwing the outsides of bolts, etc.
Finally, the chain is put on and adjusted, the pedals
screwed into the cranks, and the finisher turns his atten-
tion to the front forks and wheels, which have been
gradually growing to separate front units complete
with their mudguards. The -sear portion, frame, rear
wheel, etc., is lifted off the bench support and dropped
over the front fork stem, the whole machine is twisted
upside down and the balls of the steering bearings are
poured in from a little tool that scoops up and counts
the required number of balls. Over goes the machine
again and into the top bearing are poured another circle
of balls, the ball head clip is pushed on and the locking
nut screwed on, and the machine is ready for handle-
bar, saddle pillar, etc. The accessories are always
fitted last, and then the machine goes to the viewer.
This man is, or should be, a practical cycUst as well as
a practical mechanic. He seizes the machine and after
weighing it, entering its number in a book, and feeling
the steering, he proceeds to test all the bearings and the
chain for correct adjustment, bangs the machine up
44 THE CYCLE INDUSTRY
and down and about, tries the brakes, pinches the tyres,
runs an eye over all, and final'y passes it along to the
women and girls who proceed to grease it, wrap strips of
paper or butter cloth all over it and tie it up with string.
If it is going overseas and the journey is long, the
machine may have to be dissembled to enable it to be
packed with others in metal lined cases. For passenger
train in the British Isles it goes forward wrapped in
paper or cloth and for goods train in a crate, either
singly or with two or three others.
For transit by goods train in Great Britain each
machine occupies a narrow wood crate ; by removing
pedals and handle-bar it is possible to squeeze a bicycle
into a space of 77 in. x 23 in. x 48 in., or 48J cu. ft.
If two or more machines are to travel together the
separate crates are sometimes enclosed in another
wood crate that is strong enough to hold the lot and to
allow it to be slung, and there you are.
CHAPTER VI
PRODUCTION METHODS
There are several ways of producing bicycles and all
makers do not work on the same lines, in fact, possibly
there is no trade where so much diversity exists in
production methods as in the manufacture of bicycles.
Omitting the small local assembler who makes up
an odd machine or two from finished parts purchased
from the big factoring houses, we have, in order of size
and importance, the small maker, who builds a bicycle
throughout from the raw material ; the medium-sized
factory owner, who makes most of the parts himself
but purchases a number of finished or partly finished
components from outside sources ; and the very large
and complete factory owners, nearly always limited
liability companies, who go in for mass production and
do all the various preliminary processes on their own
premises.
Mass production in the cycle trade is now a very
highly organized branch of mechanical engineering.
To make a success of cycle building from raw materials
a big works has an expert drawing office staff, not only
for the designing of bicycles but for scheming the tools
which are to produce the parts at the lowest cost.
Under this staff work a specialized branch of the engineer-
ing trade, who are the tool makers ; this staff produces
the jigs, templates, dies, etc., used in the departments
which are the production shops proper.
Another works staff looks after the progress of the
work through the various shops and keeps account of the
numbers of parts produced each week, so that an equal
45
46 THE CYCLE INDUSTRY
number of front forks and handle-bars, to name only
two parts, are available when they are wanted. Without
their aid chaos would reign, and there might be 1,000
bicycles ready for delivery in a given week and no
handle-bars forthcoming at the last moment. Such
has been known to occur in factories where the
organization is weak.
In a very large factory, where everything is made on
the premises, the directors arrange for a production
of, say, 1,000 machines a week for six months. The
requisitions for material go through the buying depart-
ment, the designs go from the drawing office and in a
reasonable time, if the organization is complete, the
parts commence to collect in the various stores through-
out the factory. When the stock is sufficiently forward
to ensure a regular supply to the various shops; the stores
begin to issue the orders to build and assemble, paint
and finish, and so the process goes on.
The production of bicycles in very large quantities
has brought about a difference in some of the processes
of making such parts as frame lugs, handle-bar lugs,
fork crowns, crank brackets, fork ends, etc. What are
known as pressings are largely replacing stampings
and castings. The latter are made in one pair of dies
from red-hot steel by stamping the plastic metal into
the die or moulding red-hot iron in a mould made of
compressed sand ; the pressings are formed from sheet
steel between dies, but the metal is treated cold and
usually has to pass through more than one pair of dies
before it assumes the desired shape.
The multiplicity of dies is necessary to allow the cold
sheet metal to be gradually formed ; if it were attempted
to bend it suddenly to a sharp radius, it would break
or spring back, so the sheet is coaxed, so to speak, to
assume the form desired.
48 THE CYCLE INDUSTRY
Dies of this description are very expensive, but when
their cost is spread over thousands of parts and the
reduced amount of machining is taken into account,
then they become remunerative. While the design of
bicycles was changing from year to year, the cost of
such tools for mass production was almost prohibitive,
but the stagnation in pattern has permitted their use
to-day with the result that thousands of bicycles are
produced, if not wholly, partly from pressings.
Labour has undergone a vast change in the cycle
industry during thirty years. About 1890 female labour
in the cycle trade was rather rare. A few Midland firms,
specializing in parts, employed women and girls in some
departments, but on the whole bicycle processes were
chiefly done by men and youths. Nowadays there
are few large factories where girls and women are not
found in practically every department. There are
female polishers, enamellers, wheel builders, press
minders, platers, in fact every process, with the exception
of the skilled mechanical work, can be and is done by
women, and well done, too.
The above is a rough outline of what constitutes
mass production, as apart from the small makers' efforts,
which are on different lines.
The small maker depends very largely on components
makers for his output. He buys a frame from one
place, or the tubes and lugs ready to build the frame,
the wheels complete, minus tyres, come from another
specialist ; handlebars and seat pillars from another,
and so on. The work in the factory consists largely
of polishing, enamelling, plating, and assembling, or
as it is more often described in the trade, finishing.
Such a factory does not require a plant of machine
tools, a designing and progress staff, or much of the
organizing ability referred to above. The drawback
PRODUCTION METHODS 49
to the latter method is that the bicycle so produced
loses much of its individuality because what the parts
manufacturer sells to A is also bought by B, and,
unless extremely large orders are placed with the parts
makers, they cannot depart from a standardized product.
The bicycles produced in this manner are seldom classed
in the same category as the better known articles sent
out by firms with a high-class reputation and certain
distinctive features, although good bicycles doubtless
emanate from factories where little of the actual
manufacturing is done.
The manufacture of boys' and girls' bicycles has been
widely developed of late. At one time the firm of
Townend Bros., Ltd., held almost a monopoly in this
particular type of machine. Now several firms specialize
in the production of high-grade juvenile bicycles, among
them are Humber, Ltd., The Mascot Cycle Co., etc., etc.
CHAPTER VII
THE PNEUMATIC AND OTHER TYRES
The title of this chapter places the pneumatic tyre
first, but before we begin to read how the pneumatic
tyre revolutionized the cycle industry and made it what
it is to-day, this book would be incomplete without a
few remarks on the trials, tribulations and sufferings
of those who rode bicycles with solid and cushion rubber
tyres and still survive.
As we have seen in Chapter I, the first velocipedes
had wheels shod with steel tyres ; fortunately for their
riders, the saddle was on a long spring, otherwise words
fail to explain what they would have suffered.
The next innovation in the way of a non-slipping,
elastic tread was to fasten strips of leather to wood
felloes. Naturally, leather proved comparatively un-
jdelding and india-rubber was tried. At first it was
fastened like the leather in strips, then came the day
of wire spoked wheels and solid india-rubber tyres
fastened in V or U-shaped steel rims.
The common practice was to cement an endless band
of circular rubber to the steel rim with a composition
called " packwack," still used to attach perambulator
tjnres to their wheels. Naturally, the tyres refused to
remain in place for long, particularly when wrenched
against early-day tram lines, etc. Arrangements to
overcome this trouble of the tyres coming out of the rim
were patented, notably Hookham's patent wired tyre.
A crimped or corrugated wire was inserted in the centre
of the rubber tyre and held it in the groove of the steel
U-shaped rim by contraction. Tyres in sections were
50
THE PNEUMATIC AND OTHER TYRES 51
also bolted to the U rims by T-shaped bolts moulded
in the rubber, with the tail of the T passed through the
rim, being nutted underneath the rim. The average
size of solid india-rubber tyres was f in., but sizes from
I in., for racing machines, to IJin. for roadsters were
used. The larger sizes were, however, too heavy.
Fig. 17
A ROADSTER SAFETY BICYCLE OF ORTHODOX
PATTERN MADE BY RUDGE-WHITWORTH, LTD.
The first attempt to provide more comfortable tyres
for cyclists was by the introduction of the cushion tyre.
This was a hollow rubber tyre varying from 1 J to 1| ins.
diameter, the hole through the centre varying from about
I in. to f in. If the hole was small the tyre was heavy
and the machine ran " dead " ; if large, the sides pressed
hard against the edges of the rim and cut through.
Some cushion tyres were more like a glorified thick
garden hose, and various shaped rims were introduced
to obviate the tendency there was to cut through at the
sides. The expense of india-rubber resulted in great
52 THE CYCLE INDUSTRY
adulteration of cushion tyres, and although cycle makers
of repute paid a fair price to obtain a good article, the
makers of cheap shoddy bicycles often used cushion
tyres that had very little india-rubber in their composi-
tion. The result can be easily imagined.
A tyre on the lines of a cushion tyre, because the air
in the hollow part was not under compression, was
Bartlett's original Clincher tyre. Bartlett was associated
with the North British Rubber Co., Ltd., Edinburgh,
big makers of rubber goods. They supplied the trade
with quantities of solid and cushion tyres and he patented
a tyre that fitted in clinches made by turning over the
edges of a steel rim, so that if the tyre were moulded
in a certain manner its edges would lock into the clinches
and remain firm. The tyre was really just like a modern
cover of a pneumatic tyre, but strengthened at the
sides till it would support the weight of the rider and
machine. The original Clincher tyre had no separate
air tube, in fact no air tube at all ; the air under it was
at atmospheric pressure only.
Early Pneumatic Tyres. The introduction of the
pneumatic tyre for bicycles came about in a strange
manner known to most people, but repeated here for the
benefit of the uninitiated.
In the suburbs of Dublin lived a veterinary surgeon
named J. B. Dunlop ; he was a cyclist and he had a
rather delicate son. Naturally, he wanted the son to
derive some benefit from riding a bicycle but he hesitated
to allow him to ride a solid tyred bicycle owing to the
vibration. The roads around Dublin are not of the
best, Mr. Dunlop set to work, and like a lot of other
inventors not connected with any particular manufac-
turing process, he thought out the very master idea that
everybody had been looking for, that of insulating the
rider at the point of contact of the wheel with the ground.
THE PNEUMATIC AND OTHER TYRES 53
It will suffice to say that he made an experimental
pneumatic tyre, in which the air was compressed in an
elastic inner tube of rubber provided with a crude non-
return valve for inflation and surrounded with a non-
stretchable casing of canvas, the latter being covered
with an india-rubber tread to take the friction of the
road. The rim was very nearly flat in section, and to
build the tyre the air tube was partially inflated and
laid on the rim ; around rim and tube was built the
canvas casing by solutioning canvas strips to canvas
already solutioned to the metal. Over it all more
solut'.on was rubbed in by hand and then came the
fixing of the cover, which was also solutioned to the
canvas casing and nearly encircled the rim. The edges
were finally solutioned down with a thin piece of canvas,
afterwards painted to resist the attack of water.
I was not privileged to see Mr. Dunlop's first attempt,
but I saw one of the first of these very crude tyres made
by the Dunlop Tyre and Booth's Cycle Agency, DubUn,
on a tricycle ridden to Coventry by Mr. R. J. Mecredy,
the editor of the Irish cycling and motoring papers and,
of course, a renowned cyclist.
The tyres were quite unknown, and when the tricycle
was left outside a hotel (not in the centre of the city)
for ten minutes, a crowd of 400 or 500 people were
found "pushing each other to obtain a sight of it.
Within a few months everybody in the city knew
all about pneumatic tyres. The Du Cros brothers, an
athletic family of Dublin, commenced to riace on bicycles
fitted with them, and very soon handicappers had to
give racing cyclists on solid tyres a considerable start
if riders of pneumatic tyred machines were entered.
Within a year of the commencement of the serious
manufacture of pneumatic tyres no racing man of any
pretensions troubled to compete on anything else.
54 THE CYCLE INDUSTRY
The firm responsible for the manufacture of the
first tyres — the Dunlop Pneumatic Tyre and Booth's
Cycle Agency — was a small concern in Dublin dealing
originally in bicycles. They were joined by the late
Mr. Harvey Du Cros, father of the racing cyclists, and
his astute business management saw that the concern
would have to move to the heart of the industry.
Premises were taken in Coventry ; previously bicycle
manufacturers were compelled to send the wheels to
Dubhn.
At Coventry commenced an industry which has grown
from small undertakings until now the Dunlop Rubber
Co.'s factories, etc., occupy acres of ground in Birming-
ham, Coventry and elsewhere, and an enormous new
works is in course of erection near Birmingham.
As at Dublin, owing to the special handling that the
tyres required, the cycle makers had to send their
wheels to the tyre factory to be fitted, and the Dunlop
carts were soon careering about Coventry collecting
the tyreless wheels and delivering them, fitted, to the
various factories.
The repair of the original Dunlop tyre was a process
that the average cyclist undertook with fear and trepida-
tion. A puncture necessitated peeling back the
solutioned tread of the cover, slitting the canvas
across, withdrawing the air tube and fixing the patch,
replacing the air tube, stitching up the slit in the canvas
with needle and thread, re-fixing the rubber tread and
re-inflating. Cyclists were not all neat hands at this
job and wheels would be seen revolving with huge
blobs on the tyres, where the amateur sewing and repairs
were too weakly done to prevent the air tube bulging
out the canvas and rubber cover. Result, inexperienced
riders allowed the boil or blob to hit the forks time after
time as the wheels revolved, until the friction wore
THE PNEUMATIC AND OTHER TYRES
55
away the retaining cover and bang went the air tube.
In those days that meant the assistance of the railway
to reach one's destination and oft times a long walk.
Experimenters had, however, been at work and an
inventor named Welch brought out a tyre the principle
of which is the one still mostly used on modern bicycles.
This is now termed the " wired on " to distinguish
Fig. 18
TRIUMPH " ROADSTER BICYCLE WITH OIL BATH
GEAR CASE
it from the " beaded edge " or Clincher tyre which
was Bartlett's patent.
The " wired on " cover is now made of vulcanized
rubber and fabric moulded, under Doughty's process,
on to inextensible wires which slip over the rim by reason
of the diameter of the wires being so arranged in respect
to the rim diameter that when one side of the cover is
placed in the well of the rim the other side rises above
the opposite edge and will pass over. Then inflation
of the air tube draws the two wires, one up and the
5— (1466H)
56 THE CYCLE INDUSTRY
Other down the sides of the rim, and they repose in
ledges formed at about half way down the rim sides.
There were modifications of the Welch patents, but the
one used is one of the original ideas and upheld by the
Dimlop Co. against a host of litigation that they were
compelled to institute against infringers of their rights.
The names of tyre companies that made tyres for
bicycles that were copies of the Welch patents would
fill a page of this book and very, very few got through
the Dunlop meshes. Many were very ingenious in the
way they tried to overcome the master patents by means
of hooks and pins and nuts, but gradually they were
either bought up, forced to reUnquish business by legal
pressure brought against them by the proprietors of the
patents, or died a natural death.
The original patents have run out now and all
and sundry are free to make tyres, but there are
comparatively few well-known makers.
In addition to the Dunlop, there are in the first rank
the Palmer Tyre Co., who make a specially woven
fabric outer cover knitted on a special machine which
is a marvellously ingenious piece of mechanism in itself
and well worth a study by those mechanically inclined.
Then there is the North British Rubber Co., who make
the Clincher tyre, Bartlett's original patent. W. and A.
Bates, the Avon India-Rubber Co., the Midland
Rubber Co., etc., etc.
All the firms mentioned have large works and a very
complete sales organization.
I must not close this chapter without a reference
to wood rims and single tube tyres. The introduction
of single tube tjnres in this country was due to Mr.
Boothroyd, the inventor of the Facile bicycle referred to
in Chapter I.
The simplest method of describing it is to say that
THE PNEUMATIC AND OTHER TYRES 57
it was a glorified hose pipe but thinner in the walls.
It was repaired with rubber plugs which were inserted
from the outside, and although a very lively fast tyre,
it went out of vogue because of the difficulty of making
satisfactory repairs. The U.S.A. makers supplied
nothing but this type of pneumatic tyre for several
years.
The Constrictor racing tyre is so constructed in the
wall that the cover can be peeled back away from
the fabric, allowing withdrawal of the inner tube and
repair on the outside of the tube. Tyres of this descrip-
tion are only favoured by racing cyclists on account of
the expert knowledge required to make a proper repair.
It is, however, of interest to note that a " speedman "
finds it an advantage to carry a spare tyre of this
description in preference to using a thicker and heavier
type, which requires longer to repair, than to change one
of the lighter, thinner kind. The secret of the extra
speed lies in the fact that a thin walled tyre is more
resilient than a thick one, and when suitably inflated
the rapid expansion of the tread, previously compressed
by the rider's weight, does not retard the propulsion
of the machine so much as a thicker one. A technical
explanation of the why and wherefore of this must be
sought in theoretical treatises on pneumatic tyres.
CHAPTER VIII
CHANGE SPEED GEARS
One of the devices on a bicycle which has done more
to popularize cycle touring than any other, with the
exception of the pneumatic tyre, is the change speed
gear.
It was shown in Chapter I that the diameter of the
velocipede or high bicycle driving wheel defined the
method of calculating gear ratio, i.e. the ratio or number
of turns of the pedal crank shaft and the rear wheel
of a safety bicycle. If the road wheel is 28 ins. diameter,
and the gearing multiplies the revolutions of the wheel
by two, that is called a 56-in. gear because the wheel
circumference travels a distance equal to one turn of a
56-in. diameter wheel ; if the ratio was one to three,
the gear would be called 84 ins., and so on.
A change speed gear is a device that allows the gear
ratio to be altered to suit the conditions of the road
or the riding conditions prevailing at the time. A
low gear ratio, one to two, for example, means that the
rider is enabled to chmb hills better but not faster ;
the power of the rider does not vary but the power
strokes in pedalling are divided into a greater number
of efforts in a given time. The higher gears are useful
for normal conditions or for riding with the wind blowing
on the rider's back or down slopes when the gradient
is not steep enough to let the machine run down quickly
by its own weight. Under the latter conditions, viz.,
with the higher gears in use, the rider's feet revolve
the crank axle slower, but the ratio of gearing being
about one to two and a half turns of the road wheel
58
CHANGE SPEED GEARS
59
on normal or middle, and three to three and a half
turns of the road wheel on top gear, the machine moves
faster with approximately the same exertion ; or to
explain it another way, the rider has no need with a
high gear in use to exhaust himself with rapid pedalling
as he would do if he wished to ride fast with a normal
single gear.
Some racing cycHsts disdain the change speed gear
and prefer a single gear of medium ratio, but for tourists,
and particularly
for women and
elderly men, the
change speed
gear is a boon.
Ever since the
days of the first
safety bicycle
the advantages
of a change speed
gear have been
recognized, but it
was not until
about 1900 that
a practical device
was marketed.
Previous designs were either too heavy and complicated
or their poor construction caused so much friction
when the train of gear wheels was in use that cyclists
preferred a single gear.
I think it was at the Stanley Show of 1900 that
Linley and Biggs exhibited a change speed gear that
was made by running a specially shaped chain over
chain wheels that were wide enough to allow a lateral
movement of the chain to shift it from a small to a
big sprocket on the rear hub. This provided a change
Fig. 19
THE LINLEY AND BIGGS TWOSPEED
GEAR
60 THE CYCLE INDUSTRY
of speed but it entailed a jockey pulley to take up the
slack of the chain because there was no arrangement
to lengthen the distance between the chain wheel
centres when the chain encircled the smaller sprocket,
i.e. when the high gear was in use. To show that
Linley and Biggs were very practical cycle engineers,
very much in advance of their time, a device resembling
their original idea has been patented quite recently,
but is too crude to have much chance of competing
with the refined hub gears of to-day.
Following Linley and Biggs' patent, the next device
to claim attention was a two-speed hub made by a
Manchester firm and designed by a Mr. Ryley. There
had been the G. and J. two-speed hub, the Planet two-
speed hub, the Paradox two-speed crank axle gear,
and one or two others.
The Hub Two-Speed Gear Co.'s two-speed hub may be
said to be the father of all practical hub gears and was
sold in considerable numbers. Detailed explanations
of these gears would not be understood by non-technical
readers, so it will suffice to say that by means of a train
of pinions and a sliding member operated by a rod
passing through the centre of the hub axle, the changes
of gear ratio are made. The rider moves the rod in and
out by pulling on it through the medium of a small lever
on the top tube of the bicycle, and a wire which runs
over a roller from the lever end along the top tube to
the roller and down the side of the back stay. The
movement can also be effected by Bowden flexible
cable from the handle-bar, thus making it unnecessary
to release the handle-bar for changing gear.
While the Hub Co.'s two-speed was being sold and
gaining considerable popularity, other firms commenced
experiments with hub gears. Notable among these
were the Eadie Co., who took up Pagan's patent, the
CHANGE SPEED GEARS 61
B.S.A. Co., and the Raleigh Cycle Co., who paid attention
to a three-speed hub made under the joint patents of
Sturmey and Archer. Ryley, of Manchester, moved to
Birmingham and began the manufacture of a three-speed
hub at the New Hudson Co.'s works under the name of
the Armstrong.
The three-speed hub was now an established favourite,
and so rapidly did it gain favour that it was included
in the specification of nearly every high grade bicycle
on the market.
Armstrong's and the Raleigh Co. (Sturmey-Archer)
laid down an enormously expensive plant of machine
tools to deal with the gears on a commercial basis,
and were able to so reducp the cost of manufacture that
they had the trade to themselves. The only other
change speed gear that has been retained by a cycle
manufacturer is the original bottom bracket two-speed
gear made by John Marston, Ltd. (Sunbeam). This
is an epicyclic or sun and planet gear on the crank
axle and is operated by locking or unlocking a central
pinion surrounding the shaft. It is fitted as a standard
article by the makers of the Sunbeam bicycle and has
the great advantage that it is enclosed in a metal oil
bath case and when the gear is in use the pinions revolve
at slower speed than a hub gear, and are being constantly
lubricated with fresh oil picked up by the chain wheel.
The production of the three- speed hub gear is now
confined almost entirely to Sturmey-Archer Gears, Ltd.,
Nottingham, and the B.S.A. Co., Birmingham, the
Armstrong gear having been merged with the
Sturmey-Archer gear just before the war.
One might almost say that the production of hub
gears is a special trade, because the accuracy required
for the making of the parts is certainly more refined
than is the case in any cycle factory where ordinary
62 THE CYCLE INDUSTRY
cycle parts are machined. Only by working to the
finest limits employed in any branch of mechanical
engineering is it possible to produce an intricate piece
of mechanism contained in the space of a large sized
bicycle hub. The plant, installed originally by the
Raleigh Cycle Co., cost thousands of pounds, and cyclists
certainly owe this firm a debt of gratitude for making
it possible to buy such a beautifully made gear at a
moderate price.
Motor-cycle Gears. The history of the change speed
gear applied to a motor cycle is akin to that of the
bicycle. The early forms were very crude affairs in
comparison with the modern countershaft gears as
they are termed to differentiate them from their pro-
totypes, which were fitted in the rear hub shell. The
motor cyclist very early called for a change speed gear,
because his engine refused to give off power unless it
revolved at a high speed, and slow travelling on hills
reduced that speed.
The first motor cycles were tricycles, and they had
gears of the sliding or compound type, then came the
Roc gear patented by the inventor of the Wall Auto
Wheel. The latter was an epicyclic gear in the hub,
the change of speed was effected by locking first one
and then the other of two brake drums by means of
band brakes.
The first commercially successful gear, in so much
that it was marketed in quantities, was the Armstrong,
fitted to the New Hudson and afterwards other motor
cycles.
Stm"mey-Archer Gears of Nottingham followed with
a similar hub gear. Hub gears lost favour with motor
cyclists on account of the weight of the gear being in
the wrong place, and because so many hub gears intended
for solo riding were used with side-cars and passengers.
CHANGE SPEED GEARS 63
and proved unequal to the task of the double work.
The modern motor cycle gear is now almost wholly
of the countershaft type, and contained in a separate
box or case like the change speed of most motor-cars.
The Sturmey-Archer Co. and the B.S.A. Co. have
specialized in these gears, but many other firms make
their own. )«; <
Still another popular type of gear used by two firms
in particular, Rudge-Whit worth, Ltd. and Zenith
Motors, Ltd., is the expanding pulley type. In both
instances a belt is used but in the Rudge-Whitworth
case both front and rear pulleys expand and contract,
and in the 2^nith patent only the engine pulley expands
and the slack of the belt is taken up by sliding the rear
wheel from and to the engine as the call for a low or
high-gear ratio is desired.
For a technical treatise on motor cycle gears, I would
refer readers to handbooks published by the proprietors
of The Modern Cycle, Iliffe & Sons, Ltd., 20 Tudor
Street, London, E.C.4.
CHAPTER IX
SPRING FRAMES
Like every other road vehicle, there have been attempts
made from time to time to spring the road wheels of
bicycles. Before the advent of pneumatic tyres these
attempts were more frequent, but patents in connection
with the springing of »bicycles have been exploited as
recently as 1902-3.
Omitting the early bow spring used to support the
saddle of boneshakers, the first patents in connection
with spring frames followed the lines of some of the
spring frames now employed for motor bicycles. The
rear fork was hinged to the frame near the crank bracket
and the spring was placed at the top of the fork between
the seat tube and the apex of the triangular fork. One
of the first of these was, I believe, the Star, in which
a rather large volute spring was used. The Whippet
spring frame was an ingenious arrangement of toggle
joints and springs by means of which the rider was
partly insulated from vibration, but the road wheels
were unsprung. This frame was introduced just prior
to the pneumatic tyre and had a short life in consequence ;
had the pneumatic tyre arrived several years later the
Whippet frame probably would have met with the success
its ingenuity deserved.
Sharp's air spring frame was a device which was
exploited about 1904-6, and in this system metal springs
were replaced by cushioning devices in which the
movement of the road wheels was controlled by air
alternately compressed and released by an action that
is analagous to the movement of a pump. The invention
was clever but it never caught the public favour, partly
64
SPRING FRAMES 65
due to increased weight and the average cychst's
objection to compHcation.
Spring forks were far more common than spring
frames, and it is rather surprising that they are almost
obsolete on a modem bicycle. Among the pioneer
front spring fork inventions may be mentioned the
Dunlop. In this design the wheel was carried in jointed
links which were connected to the fork blades by
interposed spiral springs.
A Nottingham firm, at a later date, made the fork
blades or sides like a small carriage spring of two to
three leaves of fiat spring steel, the flat part of the leaf
facing the direction of travel. This form of spring
made the machine very comfortable to ride but was
said to detract from the rigidity of the drive when the
bicycle was pedalled up steep hills ; the blades or leaves
were also liable to fracture.
Following the withdrawal of this last type of spring
fork the question of springing of bicycles has lain
dormant, and shows no signs of revival.
The principal objections to springs from a mechanical
view point are that they add weight and complication
to the machine ; they interfere with the action of brakes
and render them far more difficult to fit ; the joints wear
and adjustment devices have to be designed which are
costly to produce, and however well made the joints
may be, they are almost sure to rattle.
To sum up, the objections appear to outweigh the
advantages of this method of insulating the rider from
road shock when the pneumatic tyre absorbs so much
of the vibration at the point of contact of the wheel with
the road surface.
In addition, the rider, if he be skilful, can act as a
natm-al spring by partly hfting his weight off the saddle
and supporting himself to some extent on the pedals.
66 THE CYCLE INDUSTRY
Particularly does this apply when free wheeling, because
if the cranks be allowed to assume a horizontal position,
one at 3 o'clock and the other at 9 o'clock, the rider can
stand on the pedals and allow his knees to form the joint
of a spring, the muscles of the calves and thighs being
the springs. A skilled rider invariably adopts this
position when free wheeling on rough roads and also
instinctively falls into it when pedalling forward, with
either a fixed or free wheel ; with the former he slackens
speed and bears his weight on the rising pedals, so raising
his weight out of the saddle ; with the latter he allows
the machine to over run the cranks, by free wheeling
momentarily, and at the same time raising his weight
on the stationary pedals.
Motor-cycle Springing. The motor-cycle springing
mechanism is a far bigger and more complicated pro-
position than that of a bicycle. Practically every motor
bicycle has a spring front fork, although at one time
only rigid forks were obtainable. Increase of speed
and deterioration of road surfaces made spring forks
a necessity, and no motor-cyclist would buy a machine
now without one.
Lately there has been a tendency to spring both
wheels of a motor bicycle, the generally accepted design
being some form of leaf spring, which permits the rise
and fall of the wheel against the action of the spring
without throwing the wheel spindle out of its correct
position in relation to the transmission.
The drawbacks to any form of springing are the
rapid wear of the hinges or joints by which the wheel
is connected to the springs and the springs to the rigid
portion of the frame, and the bouncing effect that is
set up by the uncontrolled movement of the springs.
Springs are also fitted to some designs of side-car
wheels as well as to the body of the side-car.
CHAPTER X
THE TRADE AND RACING
There is, perhaps, no industry in the country that is
connected with a sport or pastime that is or was in-
fluenced so much by successes made on its products
as the cycle trade.
The manufacturers recognized in the earhest days
the value of the pubhcity gained by an important win
on a bicycle of their make and bearing their name and
trade mark. The value of racing successes is not now
quite so high as in the past, but it still plays an important
part in keeping the names of various makes of bicycles
before the public eye.
The earUest races that were supported by riders of
the professional or semi-professional class were un-
important road events that were contested by men
engaged in the cycle industry in some capacity or other,
and retained chiefly for their prowess in pushing some
particular make of machine to victory. Sometimes they
were the actual producers of the machine, but it was
comparatively rare to find a really good racing man who
combined mechanical talent with a capacity for speed
and endurance.
Racing on high bicycles began to attract the attention
of the public when proper cycling tracks commenced
to appear in various parts of the kingdom. Previous
to the construction of cinder tracks some racing had
taken place on grass running tracks, three and four
laps making a mile. One of the best known of the
early cinder tracks was at Stamford Bridge, Fulham,
London ; others sprang up at Aston Lower Grounds,
Birmingham ; Crystal Palace, Sydenham, London ;
67
€8 THE CYCLE INDUSTRY
Mol5Tieux Grounds, Wolverhampton ; Belgrave, Leices-
ter ; and many other places. The National CycUsts
Union was formed and took charge of amateur racing
and some remarkable contests and record results were
witnessed by large crowds of enthusiastic spectators.
It is safe to say that the early N.C.U. events were
contested by amateurs, but one is treading on rather
dehcate ground when attempting to give a faithful
description of later events or to define the status of an
amateur. Much the same difficulty occurs in anj''
sport, so the less said about it the better, except that
the men engaged in racing did not worry half as much
about the definition of an amateur as they did about
the straight riding of those with whom they competed.
The real professional rider, of whom there was,
perhaps, no better example than the late Dick Howell,
toured the country during the summer months in parties
who were under the control of a manager. The latter
engaged the track, advertised the racing, and took a
percentage of the gate money ; it was, of course, a
regular money-making public show and did not pretend
to be anything different. In the winter the same
managers organized indoor races on boarded tracks
at such places as the defunct Aquarium, London ;
Bingley Hall, Birmingham ; and other towTis.
Indoor races were held between these professional
teams of cyclists and relays of horsemen, and I believe
the late Colonel Cody (Buffalo Bill) once took part in
one of these contests.
We received visits from American teams of profes-
sional riders who toured the tracks of England and rode
against the pick of British " pros." Some of the events
were worth going to see, others, I am sorry to say,
were not.
With the advent of the pneumatic tyre the popularity
THE TRADE AND RACING 69
of racing increased to a remarkable degree. This may-
have been partly due to the fact that the introduction
of the pneumatic tyre S5mchronized with the increasing
popularity of the safety bicycle, or it may have been
caused by the extreme competition that was in existence
at the time between rival tyre companies. Previous
to the pneumatic tyre the bicycle maker bought solid
and cushion tyres from firms who left the advertising
of their wares to occasional announcements in trade
journals and depended for trade on the reputation they
had gained among their customers the cycle manu-
facturers. Not so the pneumatic tyre manufacturer,
who commenced in an astute manner to advertise every
win made on machines fitted with his tyres. Thus,
the competition that previously only existed among
cycle makers was increased by about 100 per cent. Men
were racing to advertise tyres just as much as machines.
The tyre trade element in racing penetrated to the
important club road races, and when pace making was
permissible teams of pace makers were sent out to
assist the best men to win. The competition became
so fierce, and the speed on the road so high, that the
governing bodies were compelled to step in and prohibit
paced road races.
All such events are now unpaced, which means that
each rider ha^ to make his own pace, i.e. he must not
shelter behind another and so gain an advantage by
having the air resistance cleaved to enable him to ride
in a partial vacuum.
Track racing and road racing are very different,
and it is not by any means certain that a successful
rider on the track will be a consistent winner on the road.
Track racing requires a lot of judgment as well as speed
and dash. On the road there is no finessing for position
in sprints for the tape, when speedy men are often left
70 THE CYCLE INDUSTRY
behind or shut in by astuter competitors who may be no
faster in the final rush but who secured the better
position by good jockeying.
Road racing requires strength, speed, stamina, and
a knack in cUmbing hills. Provided the rider is speedy
enough there is nothing to prevent him winning im-
portant events ; he has not to contend with the betting
side of the question, which is sometimes rather startling
to a novice. There are such occurrences as being
purposely upset ; luckily, they are not common, and are
only instanced to show that while the average healthy
youth may indulge in a little road racing every week
without considering such eventualities, he who aspires
to track honours must be prepared for the worst whilst
hoping for the best.
Present day racing comprises track meetings, practi-
cally all over the country, every Saturday. Many of
these are unimportant. The aspirants to fame should
keep a look out for the N.C.U. Championships which
are now allotted to various centres. The clubs in
London, Manchester, Birmingham, etc., hold various
track meetings for races varying from one mile to
fifty miles, the longer distances being sometimes
paced by tandems. Scotland and Ireland also have
championship meetings.
Road racing consists of important events such as the
Bath Road C.C, North Road C.C, Anfield C.C, and
Midland C. and A.C. fifty and hundred mile races ;
the North Road C.C. 24 hours race ; and other classic
events. The speeds in such fifty and hundred mile
races as the above reach over twenty miles an hour
average, and in the last North Road 24 hours race
the winner rode 378| miles on the fairly level roads
of the Eastern counties in the neighbourhood of Wisbech
and King's Lynn.
CHAPTER XI
THE CYCLE BOOM
The great boom year in the history of cychng and
cycle manufacture has had a tremendous influence on
the trade, and history has undoubtedly repeated itself
in connection with the sale and manufacture of motor
cars and motor cycles.
The boom year in cycling occurred in 1895-96, when
the popularity of the pastime for fashionable women
became an accomplished fact, and there was a sudden
rush for bicycles by a class of people who had never
previously given the sport a single thought.
Manufacturers became so full of orders that could not
be executed that the astute financial company promoter
was attracted to Coventry, Birmingham, and other
towns, and the cycle-maker, who had up to that time
practically depended on financial assistance from local
banks and business friends and acquaintances, found
that the most tempting offers were made if they would
only allow the company promoter to step in and handle
their business by offering it for public subscription.
Some of the larger and better known factories were
purchased by the financiers and refloated for enormous
sums, far above their previous values. Large amounts
went down in the prospectuses for goodwill, patents
and other items, which were not very tangible as assets
when the inevitable slump came.
Money poured into the coffers of men who had done
nothing to build these businesses ; they had only been
astute enough to see that the market was ripe for
flotation, and as the public cried for cycle shares they
71
6— (1466h)
72 THE CYCLE INDUSTRY
got them. The result of all the flotations and the buying
and selling of the various concerns was that a hmited
few made money and a large number of people, many
of them workers in the various businesses, lost their
savings of many years.
The unprecedented demand for bicycles was after-
wards proved to be a little fictitious, because every
dealer ordered three times as many bicycles as he
expected to sell with the hope of obtaining about one
third of them. When the off-season for sales arrived
those fictitious orders were mostly cancelled, and as
manufacturers could not force delivery on dealers who,
if they had been compelled to take the machines they
had ordered long after they were due, would have been
unable to pay for them, the cancellations had to be
largely accepted.
The result of the flotation of many of the cycle firms
meant over capitalization. The prospectuses had set
forth that as such and such a profit had been earned
on the manufacture of a certain number of bicycles,
the unprecedented amount of orders on the books at
high prices signified a corresponding increase in the
profits, which would be more than sufficient to pay the
dividend on a largely increased capital.
Alas, the orders were cancelled, society got tired of
the new craze and relinquished the use of a bicycle, and
the great slump of 1896-97 rushed on the trade with
greater swiftness than the boom of the previous twelve
months. Over capitahzation meant that many of the
older publicly floated concerns and several entirely
new firms either reduced their capital by cancelling
half the value of their shares or retired voluntarily
or compulsorily from the arena.
Two or three very lean years intervened between the
slmnp and the advent of the motor cycle and motor-car.
THE CYCLE BOOM
73
The motor-car was exploited before the motor cycle
in this country, and it was not until about 1899-1900
that cycle makers in the Midlands began to take an
interest in the self-propelled machine. The earhest
machines were petrol engined tricycles, and from that
early commencement the lure of the motor cycle has
gradually but surely drawn every important cycle
maker to its charms until to-day no important firm is
Fig. 20
THE SPARKBROOK ROADSTER
A soundly-constructed machine made by an old-established
concern
without a motor cycle department, and in many cases
the motor cycle branch has become more important
and larger than the making of purely pedal cycles.
The present conditions of the trade are possibly
rosier than they have been for some time past. There
is an urgent demand for good bicycles and the only
drawbacks to a large output are the difficulties in
securing regular supplies of the right materials, and the
unsettled state of labour generally.
It is estimated that there are about 20,000 employees,
74 THE CYCLE INDUSTRY
men, women, youths and girls, engaged in the
manufacture of bicycles and their component parts,
exclusive of those who make the accessories such as
lamps, saddles, pumps, oil tins, and similar articles
which do not come under the classification of a
complete bicycle.
The American Bicycle and its Influence on British
Trade. There have been American invasions of this
country by makers of agricultural machinery, boots,
domestic machinery, typewriters, motor cars, and, of
course, bicycles.
Of those articles enumerated all have come to stay
except bicycles. Various opinions have been expressed
as to the reason why American bicycles did not attract
popular favour in this country. They were largely
advertised, important firms rented expensive shops
for retail purposes, and at one time it looked as though
the American bicycle would catch on. The attempted
invasion failed; a small army reached our shores but
it got swallowed up and the officers retired with
discomfiture.
The reason may be explained as follows. American
makers produce one pattern of any article in large
quantities and expect all purchasers at home and abroad
to buy what they make. The American bicycles that
reached this country were no exception to the general
rule. They were made for American boulevards and
asphalte roads of cities and were totally unsuited for
touring and general riding conditions in this country.
The mudguards and rims were of wood, the tyres were
single tubes that could only be repaired with rubber
plugs (a method not understood in England), the brakes
were inadequate for our hilly roads, and the only
redeeming feature of these machines was lightness.
They arrived at a time when home manufacturers were
THE CYCLE BOOM 75
at their wits end to supply the demand or practically
none would have been sold, and those that were disposed
of mostly caused trouble and loss of custom to the
retailers.
To-day, American manufacturers have changed their
tactics, and although no very serious effort has been
made to further the export of bicycles from the United
States to Europe, the trade " over there " have not
lost sight of the possibility of capturing some of the
European markets, if not our own British one. En-
quiries have been instituted by the American Chamber
of Commerce as to the pattern of machine most likely
to be demanded, the names of large buyers, their
methods of payment, etc., etc. It would be, therefore,
unwise to say there is no possibility of a recurrence of
American bicycle exports to England ; the machines
will, however, require to be vastly different from those
that were first sent over.
At the time of writing there is an import duty on
foreign bicycles of 33^ per cent, ad valorem, which
constitutes a bar to American exports and it is question-
able if, when this tariff is removed, American bicycles
could be sold in this country at a profit. By the time
our Government has decided to remove the tariff,
English cycle makers may be able to reduce prices which,
of course, like the cost of other manufactured articles,
have gone up considerably.
In 1914 excellent English bicycles could be bought
for about £8 8s., and if such- prices ever return when
tariffs are removed, then I do not imagine there will be
very much chance for American machines in this country.
CHAPTER XII
ROADS IN GREAT BRITAIN
As an inhabitant of the county of Warwickshire, I have
always had an idea that the comparatively level roads
of the districts surrounding Coventry and Birmingham
had something to do with the early popularity of the
bicycle.
It is inconceivable that had the heavy, hard running
machines of the early days of the industry been exploited
in Devon, for example, they would have attracted the
attention of the mechanical minds that evolved the
perfect bicycle we ride to-day.
The modem bicycle, had it been possible to put it
on the road in its present form at one jump, would have
been popular anywhere and at any time, but with the
bone-shaker it was different.
Many years ago the surfaces of the Midland roads
around Coventry and south of Birmingham were much
better than they are now ; the hills, except in the Edge
Hill district, are not abnormally steep, and close to
Coventry is the famous London road with a level
stretch for six miles or more. It was on such highways
that the high ordinaries were perfected and the safety
bicycle tested and exploited. They were both tested
and tried out in other places, but Coventry was the home
of the bicycle, and without fairly level and good roads
I am sure the early attempts would not have developed
the enthusiasm of their makers to the same extent.
The use of the bicycle expanded from Coventry and
the Midlands like a ripple on a pond spreads from the
spot where a stone is thrown into the water. The
76
ROADS IN GREAT BRITAIN 77
Warwickshire roads had therefore a good deal to do
with the popularity of the pastime in early days.
The classic roads of England and Wales are the Great
North Road, the Bath Road, the Holyhead Road, and
the Brighton Road. Mr. C. G. Harper has given us
interesting descriptions of these great highways in his
books, named after the roads themselves, also narrative
and data referring to each. I only propose to refer
to them from the cycling view point, and would advise
those who wish to acquaint themselves with their
history in detail to read the Harper series.
Two other interesting roads of value to cyclists are
Watling Street and the Fosse.
On the Great North Road are started the famous
12 hr. and 24 hr. road races of the North Road C.C,
but as the club only utiUze the classic highway as far
north as Norman Cross, near Peterborough, the route
for their race extends mostly eastward into the adjacent
fen country. The London-Edinburgh record breakers
ride on this road from the G.P.O., London, to a point
near York, where the highway ceases to be known as
the " Great North Road " but it is, of course, the route
by which the old coaches travelled between Edinburgh
and the metropolis.
The Bath Road C.C. claim the western highway as
their special hunting ground, and there is a recognized
Bath and Back Record, the time of which is occasionally
reduced by some expert rider who tackles the journey
under favourable conditions. There is no recognized
road record for the Holyhead Road, but as it is the main
artery from London and the Midlands into North Wales
it becomes almost a necessity for cyclists to make its
acquaintance when travelling to the watering places
of the North and West. Leaving London it occupies
the site of Watling Street (is Watling Street in fact)
78 THE CYCLE INDUSTRY
until at Weedon it branches to the left and passing
through Coventry, Birmingham, and Shrewsbury, enters
Wales near Chirk. It then traverses some of the most
famous beauty spots of North Wales, crosses the Menai
Straits on Telford's suspension bridge, near Bangor,
and terminates with a twenty-two mile nearly level
stretch across the island of Anglesey.
As regards the Brighton Road there are many ways
to Brighton, the classical record route being by Purley,
Horley, Crawley, and Handcross. The Brighton Road
was associated with the earliest bicycle performances,
when plucky pioneers trundled bone-shakers there
in the day. Relay rides were also a feature of the days
when cyclists showed they could beat the time of the
Brighton four-horse coach. Innumerable cycling records
have been made on the Brighton Road, but the extension
of London southwards and Brighton northwards entails
so much traffic riding that very few attempt the
performance now.
Watling Street is probably the most ancient road
in the Kingdom. It is supposed to have existed prior
to the first Roman invasion, but it was the Roman
conquest that caused it to be improved and extended.
Originally, it stretched from near Dover to Wroxeter
and probably north to Chester or Carlisle. Cyclists
riding from Dover to London follow the line of the old
highway by what is known to-day as the Dover Road ;
the Street went right through the heart of London,
issuing at Edgware. Near St. Albans, the Holyhead
or Birmingham road makes one division from the old
Roman track, but returns to it and makes use of Watling
Street all the way to Weedon. Here it turns to the right,
away from the modem road, and, with two breaks
(where the Street crosses fields), continues in an
uninterrupted line through Atherstone to a point near
ROADS IN GREAT BRITAIN 79
Lichfield. It is picked up again near Brownhills and
continues from there to Wroxeter, between Wellington
(Salop) and Shrewsbury.
It is largely used by London and Birmingham cychsts
as a through route to the gate of North Wales (Shrews-
bury), partly because it avoids practically all large
towns and on account of its occupying high ground
from which extensive views are obtained.
The Fosse, the second ancient road in importance,
once known as a Royal Road or King's Highway,
stretched from the Lincolnshire coast to a point in
Devon near the mouth of the river Axe. Cychsts use
the modern Fosse from Lincoln to Newark-on -Trent,
Bingham, Syston, Leicester, and Narborough, almost
to the Warwickshire boundary. They will find it ride-
able, although mostly a gated road through Warwick-
shire, and it emerges as a highway again near Halford
Bridge. From Halford it is the main road to Moreton-
in-the-Marsh and Cirencester. Below Cirencester it
can also be followed to Bath and beyond, but is not a
rideable road beyond South Petherton, in Somerset.
Both Watling Street and the Fosse are best known
for their directness in making from one point to another,
but they are not straight, as is popularly supposed,
except in the sense that they were laid out in straight
stretches of about nine miles or so in length between
pre-determined spots.
The popularity of cychng in this country is due largely
to the excellent network of roads we possess. The
surfaces, it is true, are fast deteriorating owing to
abnormally heavy traffic which they were not constructed
to bear ; nevertheless, Great Britain has probably better
roads, from a cyclist's view point, than any other
country in the world. When I say better I do not allude
to surface alone, but to their suitability for the tourist
80 THE CYCLE INDUSTRY
and the follower of the pastime generally. Our British
roads and lanes are not made in straight lines like many
Continental roads and by-roads ; consequently they are
more interesting to traverse and seldom monotonous.
In fact they are the reverse, because every turning
brings some interesting view before the rider's eyes.
There is nothing so monotonous when cychng as to
follow a perfectly straight road. Even long distance
airmen will tell you that flying in a straight hne for
hour after hour becomes terribly irksome, and they
often yearn for the motor or cycle and the turnings
and twistings of the road.
The increasing amount of motor traffic and the
possible conversion of some main through routes for
the use of motor-cars alone has caused the Transport
Mnistry to con^-ider the question of making special
cycHsts' paths. Whether these ultimately will be
constructed is conjecture at the time of writing, however,
such paths for the sole use of cycUsts are quite common
in some parts of the Continent, notably in Belgium,
Holland, and France.
In the rural districts the paths are used by cyclists
and pedestrians together, and it is only near populous
parts that the special cycHsts, paths, are reserved for
their exclusive use.
CHAPTER XIII
THE WEIGHT QUESTION
There is no subject in connection with cycle making
that has been more discussed among riders and makers
than the all important weight question. It is obvious,
without much explanation, that where human power
alone is employed for propulsion the weight of a bicycle
is vital. It must not, however, be imagined that the
lightest bicycle is the easiest to propel in all cases
without other consideration. A bicycle frame may be
so light that kistead of resisting the torsional and other
strains imposed on it by the rider it will " whip "
and so cause power to be lost between the bottom
bracket and the rear hub by setting up friction in the
transmission.
Hubs and bearings that are too small cause undue
friction by binding and so fail to roll easily. There
is also the danger of making parts so light that they
are prone to breakage.
There has been a great tendency during the past few
years to make bicycles unnecessarily heavy. This
is accounted for in various ways, the explanation being
somewhat difficult to arrive at.
The chief reason is that makers with a reputation at
stake like to be on the safe side, and they argue that
it is unwise to send out hght machines for indiscriminate
use. All riders do not treat a bicycle in the same
manner, and where A would use a feather-weight for
years without meeting with breakage or other serious
trouble, B would smash or otherwise damage an ultra
hght machine in the first few hundred miles.
81
82 THE CYCLE INDUSTRY
There is an art in riding a light bicycle, it has to be
ridden gently over bad sections of road. The rider
must not sit like a dead weight in the saddle and free
wheel down hill at full speed and rely on the brakes
to stop him suddenly.
Light, thin tyres are, of course, much more easily
damaged by sharp stones, although they do not, as
is supposed, puncture more readily; that is a question
of luck.
A hght weight touring machine for an average weight
rider should be procurable at 30 to 32 lbs. with three-
speed hub gear, brakes, mudguards, semi-racing saddle,
and rat-trap pedals, but minus bell, bag, and lamps.
Unfortunately, the great majority weigh between 38 and
40 lbs., and some are much more.
If a tourist wants greater comfort and reliability
than can be obtained with such a specification as above
he must be prepared to push along about 45 to 50 lbs.
Many full tourist machines with heavy spring saddle, gear
case, If in. tyres, wide rubber pedals, and three-speed
hub, weigh quite as much as 50 lbs. and sometimes more.
Comfort must be sacrificed to some extent to secure
lightness, and it is for the individual to decide what he
thinks will best suit his or her requirements.
Generally speaking, the clubman will have a fairly
light machine ; he is usually a practised rider and knows
how to humour his mount. Club life tends to increase
the demand for hghter machines, because the newly-
fledged member with a heavy bicycle soon finds that
he is outpaced, particularly up hill, by men of less
strength but equipped with a machine perhaps 15 to
20 lbs. lighter than his own.
Omitting track racing machines, there can be said
to be four classes of bicycles used on the road.
1. TJie road racer. An absolutely stripped machine.
THE WEIGHT QUESTION 83
without brakes, free wheel, or mud guards. Fitted with
very hght tubular tyres on wood rims and the hghtest
possible saddle. Weight varies from 20 to 25 lbs.
2. Ths light roadster. This type has If in. tjn-es, steel
or wood rims, one brake, free wheel, celluloid or very
light steel mudguards. A single gear is used and
rat-trap pedals. Weight 25 to 30 lbs.
3. The light touring roadster. The specification of a
typical model will be If to 1 1 in. tyres, steel rims, heavier
mudguards than No. 2, a three speed hub gear, a shghtly
heavier saddle, two brakes. Weight 30 to 35 lbs.
4. The touring roadster. This type is sometimes
facetiously termed a Dreadnought. Its equipment will
be : 28 in. wheels. If in. tyres, two brakes, metal or leather
gear case, three-speed hub gear, three-coil heavy saddle,
wide rubber pedals, splashguard, and luggage carrier.
Weight up to 50 lbs.
None of the above includes accessories such as bell,
lamps, toolbag, touring valise, or other impedimenta
which may be necessary when touring, and which may
add from 5 lbs. to 7 lbs. to the weight.
Some riders will start out for a week's tour and ride
one of the lightest of bicycles, say, the No. 2, and by
sending on luggage by post or rail manage quite well
and be happy and comfortable. Another would not
think of going out for a week-end ride without carrying
his own luggage on a No. 4, with lamps, bell, toolbag,
etc.
The speed of the rider of No. 2 would possibly average
12 miles an hour, whilst he on No. 4 would be quite
satisfied with 8 miles per hour, or even less.
CHAPTER XIV
THE BICYCLE ON THE CONTINENT
A BOOK on the cycle industry would hardly be complete
without a chapter on the Continental type of machine
and some reference to British cycles used on the
Continent.
The French are, perhaps, the next largest users of
the bicycle to the British. The pastime has made
great strides there in the last ten or twelve years.
Races are extremely popular with Parisian crowds and
they throng weekly to both winter and summer tracks,
the former being covered in to protect them and the
spectators from the elements.
The average French cyclist is rather different from
a British rider ; he is seldom a tourist and appears to
follow the pastime more for the sport of racing than
riding from town to town on touring bent. The French
bicycle is therefore, as may be expected, largely of the
road racing type. It is more often minus brakes,
mudguards and similar fittings, has light wood rims,
small light tyres, and no free wheel. Some of the road
machines used in the neighbourhood of Paris and other
large cities are marvels of lightness. Their riders adopt
a racing attitude, and so noticeable is the difference
between French and British riders that the latter's
nationality would be known at a glance by their more
upright position in the saddle.
The free wheel and the three-speed hub had been in
use for years in this country before French makers
took any notice of either. The French mechanic is
most ingenious and had designed and made many
84
THE BICYCLE ON THE CONTINENT 85
different types of change speed gears for bicycles, but
none caught on, and now if a change speed gear is
specified by a French rider it is usually a British Sturmey-
Archer that is suppUed, if and when obtainable. On
the other hand, many British racing cyclists favour a
certain type of French racing bicycle which, in small
nmnbers, is being imported into this country. British
touring bicycles are very much admired by certain
classes of French riders and they often pay very high
prices for a British made machine, but generally speak-
ing the trade is small on account of an almost prohibitive
import tariff on bicycles of about Is. per pound weight.
At one time the leading British cycle makers all had
big sales depots in Paris, but the Government, goaded
by the French makers, gradually squeezed them out
one by one by raising the tariff higher and higher as the
French cycle makers' production facilities increased.
History is repeating itself in regard to motor cycles,
and several British firms opened agencies in Paris
before the war. It is expected that their fate, in due
course, will be that of the pedal cycle makers.
With regard to other Continental countries the British
bicycle is favoured everywhere by those who know what
a bicycle should be. Since the war it is, however,
very difiicult to speak confidently of the future. Russia,
Spain, Sweden, Norway, Denmark, etc., were all large
buyers of British bicycles up to August, 1914, and
doubtless will be purchasers again when conditions are
more settled and our home and colonial trade is supplied.
In pre-war days Germany conducted a big business
in bicycles in all the Continental countries, and will
no doubt make every effort to restore those connections
to their former proportions. At the time of writing,
Germany is very short of rubber for tyres, but that will
not prevent the exportation of bicycles without tyres,
86 THE CYCLE INDUSTRY
provided the German makers can obtain sufficient
supplies of other material such as steel tubing, saddle
leather, etc. The rate of exchange is against Germany
at present and likely to be for some years, so that it is
almost useless to make any comparisons that are likely
to be of value.
Touring on the Continent. It is the ambition of almost
all cyclists to make one cychng journey to the Continent.
The change of scene, customs, dress, and language alone
repay the rider for any inconvenience that may be
experienced, without counting the old world towns and
cities that may be visited in France, Belgium, and
Holland, to name the three countries most easy of access
from our shores. The CycHsts' Touring Club, Euston
Road, London, N.W., work in conjunction with similar
associations in the countries named and advise members
as to routes, hotels, customs duties, and other particulars
necessary to know before undertaking a Continental
tour.
CHAPTER XV
MILITARY AND OTHER SERVICE BICYCLES
The advantages of a bicycle for military purposes have
been advocated ever since the introduction of the
safety, and a branch of the old volunteer service, followed
later by the Territorial Army, has always had a cycling
section or sections attached to it. The War Office had
not been too enthusiastic on the subject until the Great
War of 1914-19, when the CycHsts' Section became a
recognized and valuable unit of Kitchener's Army, and
the War Office placed very big orders for bicycles with
many of the largest firms in the industry.
In the old days the cyclist sections were attached
to volunteer regiments all over the country, but the
Government gave very little, if any, assistance in the
purchase of the bicycle and made no attempt to
standardize the machines — a very essential thing where
any article is used for military purposes.
The cyclist sections paraded at the usual annual
camp meetings and engaged in manoeuvres, some of
a highly instructive description to the men engaged
and authorities alike ; all honour and praise to those
who worked hard, against strong opposition at times,
to prove the handiness and extreme mobility of a soldier
when mounted on a bicycle.
Various forms of military machine saw the light some
years ago. One was a four-wheeler, or quadricycle,
propelled by two or more men and carrying a machine
gun ; another hauled a small gun or machine gun behind,
and was propelled by riders seated tandem or in fours.
This was mostly during the days of solid or cushion
87
7— (1466H)
88 THE CYCLE INDUSTRY
tyres ; with the advent of the pneumatic tyre mihtary
cycUng was mostly confined to the use of bicycles of the
solo pattern.
Carbines or rifles were carried on the machines in
much the same manner as they are to be seen in the
Army Cyclists Corps to-day.
In war the advantages of a cyclist corps are that a
small body of men can push forward to reconnoitre and
act as a scouting party; where roads exist, they can,
with the aid of a bicycle, cover about three times the
distance of foot soldiers and yet be fresh and ready to
engage in a skirmish. The bicycle enables men to push
forward and make camping arrangements in advance
of the main body, and to carry out multifarious duties
that in other cases would entail the use of horses which
might, by reason of the noise they create, cause their
presence to be known to an enemy.
Modem cyclists who carry out miUtary duties recognize
that the bicycle is only suitable for certain purposes,
and that in some instances it would be only an impedi-
ment. Having recognized the faihngs and advantages
of a bicycle in war, it will probably be more largely
used than ever in the future by mihtary authorities
of this and other countries.
As mentioned earlier in this chapter, the War Ofl&ce
placed huge orders for bicycles with the cycle manu-
facturers of the Midlands soon after the war commenced
in 1914, and bought up all the available suitable stocks
they could obtain. Thousands of these machines went
to Flanders and France and other overseas countries.
Thousands came back to this country and were sold
by auction along with those from home camps which
were no longer required. These sales undoubtedly
affected the retail trade in bicycles throughout the
country.
MILITARY AND OTHER SERVICE BICYCLES 89
The Continental army authorities, particularly in
France, have long recognized the extreme practicability
of cycles in war, and the French army have largely
adopted a bicycle with a folding frame made by one of
its largest and best known manufacturers. This
machine, when folded, can be slung across a soldier's
back when the ground is too broken to allow a bicycle
to be ridden. Thus, the French soldier-cychst is supplied
with a rapid means of transit, and whole companies
are equipped with these folding machines and move
very rapidly from place to place.
If the Postal Service of the country does not, at the
moment, rank equally in importance with the Military
Service, it is nevertheless most essentially a branch
of the Government of the country, and it makes very
large use of the bicycle and the tricycle in the collection
and dehvery of letters, parcels, and telegrams.
Rural postmen, post worn en, and telegraph girls and
boys would be lost without bicycles to carry them
swiftly from village to village, and if they were to wake
up some morning to find themselves deprived of their
use they would, perhaps, appreciate them more than
they do now.
The G.P.O. employs a special staff to control its
bicycle contracts, to supervise and inspect their manu-
facture and repair, and generally look after its interests
at the factories it favours with its contracts. The
cycles used by the G.P.O. are bicycles for telegraph
messengers, and postmen, and in some towns carrier
tricycles, with baskets in front, for collection of letters
from suburban pillar boxes and branch offices. These
machines are painted or enamelled the famihar G.P.O.
red, and when in dock for any serious repair they are
sent to a central depot for attention. Minor repairs
are dealt with by local cycle mechanics acting under
90 THE CYCLE INDUSTRY
instructions from the postmaster of the town or
district.
Most of the machines have to be capable of resisting
somewhat rough treatment, and it is surprising how well
they survive it.
The Postmaster-General, hke many other Government
officials, does not enter too deeply into details in con-
nection with his department, or he would know that a
proper dry housing for bicycles is essential if they are to
be kept in good condition, and an occasional cleaning
and oiling, other than the desultory attention they
receive at the hands of the staff who ride them, is as
essential to their well-being as to any other piece of
machinery. In the meantime, any odd corner out of
the way is good enough for the G.P.O. bicycle.
CHAPTER XVI
IN THE FACTORY
There are practically two different types of factory
in the cycle trade, one where the machine is made
throughout from rough stampings, castings, unpolished
tubes, etc., the other where the machine is assembled
from parts produced in component factories. The
difference between the two is that the first possesses a
much larger plant than the- second, because all the
machining operations have to be done in the former
case, whereas in the latter the plant consists mostly
of enamelling, polishing, and plating conveniences and
sundry bench tools and jigs.
Broadly speaking, the first class of manufactory has
a much larger staff and is confined to the production
of high-class machines, which are designed and made
throughout on the premises. Such machines are
distinctive in appearance and their makers do not sell
the parts they produce to assemblers, so that their
special features cannot be copied. Naturally, a machine
of this class is more expensive and, generally speaking,
will command a higher price on the second-hand market.
The reason for increased cost is not far to seek. The
operatives who produce the machines are better paid,
there is a staff to pay, managers, clerks, foremen,
draughtsmen, storekeepers, etc. Broadly speaking, the
larger the works the cheaper it should be able to produce,
because 1,000 machines per week can be made with the
same staff, or approximately the same staff, as is required
for 500 machines per week.
91
92 THE CYCLE INDUSTRY
Arguing on these lines, the bicycle produced in a
factory where all the parts are made from rough material
should be obtainable by the pubhc at a less figure than
one put together by an assembler. However, this is
not always the case, because the assembler often works
himself, is perhaps assisted by relatives, and their time
is not calculated at the same rate of remimeration as
prevails in a modern factory. Again, the assembler's
output is very small ; he can, and does sell all he can put
together practically without advertising costs, depending
on personal recommendation.
Several large factories are now devoted almost ex-
clusively to the production of bicycles for the trade,
i.e. their owners cut off all advertising and pubUcity
charges, reduce the expenses of their staff and other
items to a low ebb, and undertake contracts to supply
the large stores, co-operative societies, and others with
bicycles that are sold under the trader's own name
although he or they may have no factory. On the whole
such machines are of a rather inferior grade, they are
made to sell at a price and cannot be produced with
the same care or with the conscientious spirit of a
manufacturer who has a reputation to uphold.
The fact that the purchaser who makes the contract
for a quantity of bicycles is in a position to go elsewhere
for a cheaper hne at any time detracts from the esprit de
corps that should exist among the staff of a large factory,
and as they know that at any period the contract may
be taken to another firm, they naturally lose interest
in their work. Altogether, the maker who supplies
the trade is in an unenviable position — he is not building
up a business for himself, but adding, if his machines
are good, to the lustre of others who only consider him
so long as they are able to grind down his price to their
required level of cheapness.
IN THE FACTORY
93
There is a great temptation in factories where machines
of this description are made to cut the wages of the
workers to secure contracts, and altogether it is rather
a sordid sort of business without much to hve for except,
perhaps, cutting out a competitor by fair means or
otherwise.
On the other side of the picture there is much that
appeals to one in a factory of the best class, where the
.^- ->r?Ei^&*v
Fig. 21
The ' Triumph " resiUent
front fork, in which the
fork blades are arranged
to provide a certain degree
of elasticity'
Fig. 22
In this type of "Triumph "
bottom bracket the cen-
tres of the two shafts,
pedal axle and rear hub,
are increased or decreased
to adjust the tension of
the driving chain
directors or owners have a pride in putting their trade
mark on every machine that leaves the works. The
staff and workers have, I feel sure, from personal experi-
ence an increased interest in their daily task, quick
to resent any slur cast on the productions with which
they are so closely allied. In most of the best factories
I have had practical experience that this state of affairs
exists, despite what may be written and said about the
extremist views, commonly called Bolshevism.
In a large factory the organization of a cycle producing
staff is as complicated and efficient as in any other branch
94 THE CYCLE INDUSTRY
of modern mechanical engineering. The innumerable
parts of a bicycle render the organizing of production
in large quantities a question of brains and system.
Time was when engineers in some other branches rather
looked down on cycle factories as the home of the
inefficient, but the trade journals of the mechanical
world have recognized, more particularly during recent
times, that a high-class cycle factory possesses some of
the best brains in light mechanical engineering, and
some of the best plants of tools and machinery it is
possible to obtain.
The parts of a bicycle are produced with such accuracy
to-day that every detail is absolutely interchangeable
with another if the machine emanate from a firm bearing
one of the well-known names in the trade.
High- class firms have a drawing office where all the
details are worked out on paper to fractions of an inch,
and here are designed all the tools for the rapid produc-
tion of the parts with a mathematical accuracy that
ensures easy fitting in the shops. Nothing escapes
the vigilant eyes of the head of this department who,
in conjunction with the tool room manager, is responsible
for every part of a fresh design going together with
smoothness and precision.
Then, when production is proceeding, each part is
inspected by viewers. This department is a most
important one, and in a high-class factory is always
so regarded. The viewer may in some cases be quite a
subordinate, but he or she is provided with most accurate
gauges which are tried on every part ; with hghtning
like quickness the gauge detects inaccurate workmanship,
an error or wear of tools, and back go the faulty parts
to the producer to be rectified or they may, on detection,
have to be scrapped altogether.
It is only by such means that a perfect bic3Tle can be
IN THE FACTORY 95
produced, so far as interchangeability is concerned in
one factory. There are, however, standards of produc-
tion that enable all the manufacturers in the trade to
work to fine limits on certain parts that have been
accepted by the Engineering Standards Committee as
standards.
Thus, tyre rims have been standardized so that any
make of tyre cover will fit a standard rim. Certain
threads on screws, nuts, spokes, pedal pins, etc., are
standardized, yet much remains to be done in this
direction.
Manufacturers are accused of apathy in the direction
of standardization of parts because there is no great
desire among them for A's parts to fit B's machine.
Various reasons are assigned for this reluctance, among
them that makers could not charge what they liked
for certain screws, nuts, etc., if one could buy A's and
B's nuts in open competition to fit either make of machine
indiscriminately.
Personally, I do not attach much importance to this
view because the supply of repair parts and replacements
is not a lucrative part of a big cycle factory's equipment
and may be most unremunerative.
I consider the greater problem is that A may have
a very fine tool plant and he is not disposed to scrap
it or give it away to enable him to adopt B's standard
and vice versa. Also, it is imwise in the case of a really
high grade bicycle to allow any tinkerer in a country
town to fit standard screws, nuts, cups, cones, and other
parts to a carefully made machine, for the cups, cones,
etc., may be standard but yet inferior to those that
were originally fitted.
CHAPTER XVII
ACCESSORIES
Under the above heading are all the parts used on a
bicycle that are not catalogued with the machine under
its specification and price. Also, one might say, saddles,
pedals, and tool-bags are accessories ; these are always
included in the price of a bicycle, yet bells and lamps
are seldom, if ever, thrown in. Doubtless there are
good and sufficient reasons for this method of trading,
although one or two manufacturers did make an attempt
some years ago to initiate the method of selUng a bicycle
complete and ready for the road. The chief reason for
selling sundries apart are that individual taste differs :
some will equip the cheapest form of bicycle with
expensive lamps, bell, luggage-carrier, etc. ; whereas
others will have the very best bicycle obtainable and
do not mind cutting down cost in the equipment.
The manufacture of accessories is a separate branch
of the industry, and has, like the actual cycle produc-
tion, grown from small businesses to the very large
factories that are now solely devoted to such articles
as saddles, bells, tool-bags, lamps for oil and acetylene
gas, tyre pumps, and a host of other articles that may
be seen displayed in the windows of cycle and accessory
depots and shops
The two most important accessories — Clamps and
saddles — were quite early a separate branch of the
trade. To Mr. John Harrington is probably due the
earliest introduction of a spring bicycle saddle : it was
known as Harrington's Cradle Spring Saddle and, as
will be seen by the accompanying illustration, was
96
ACCESSORIES
97
composed of a steel wire frame, with the now familiar
leather-blocked top extending from peak to cantle.
The Harrington saddles were manufactured for many
years by Messrs. William Middlemore at Coventry and
Birmingham, Middlemore saddles being still manu-
factured in the heart of the cycle industry at Coventry ;
but the " cradle " design is no longer employed. Most
Fig. 23
THE HARRINGTON CRADLE SPRING SADDLE, FITTED
TO THE BACKBONE OF A HIGH BICYCLE
cycle saddles are, however, stretched on a wire frame,
either coil springs of the horizontal or vertically-wound
type being used to support the leather.
Lamps used on high bicycles were constructed to
bum oil : they could not be carried on any fixed portion
of the machine whence they could throw a light on the
road, so one of the pioneer lamp makers — Salisbury or
Lucas — introduced a hub lamp which swung suspended
98 THE CYCLE INDUSTRY
from the centre or hub of the large front wheel between
the spokes. As may be imagined, the bearing at the
top of the lamp, which opened to embrace the hub
spindle, very often fitted a little tight, or the method
of adjusting it went wrong ; then the lamp stuck and
rotated with the spindle.
With the introduction of the safety bicycle, head
lamps became the order of the day. At first, these
were attached to their bracket without a spring con-
nect ".on, or spring back as it is termed. Subsequently,
various spring devices were brought out to insulate the
lamp from vibration ; but the present arrangement
survived them all, and is sufficiently well known to
need no description.
Somewhere about 1888 to 1890, so far as I remember,
I bought my first acetylene gas lamp. It came from
United States of America, and was called " The 20th
Century." I have secured an illustration of this lamp,
which had no spring back, although it was adjustable
for focusing the light on the road. It was rather a
heavy specimen, but gave a splendid illumination and
caused some envy among my club mates for several
weeks. The principle of gas generation, by water
dropping on the carbide from the top compartment
behind the lens and burner carrier ; the carriage of the
carbide in a vessel below the water reservoir ; and the
adjustment of the feed of water by a screw-down needle
has not changed from that day to the present time.
The only addition has been the spring back for cycle
lamps and a separate generator for motor cycle lamps.
In the separate generator type, the gas is conveyed
by rubber tubing to the burner of a separate lamp from
a separate vessel holding water and carbide. Greater
carbide and water-carrying capacity, heavier lamps,
and consequent increased weight caused the lamp and
ACCESSORIES
99
generator portions to be divided, because it was found
that heavy lamps of the self-contained pattern broke
the lamp brackets.
In addition to oil and gas lamps, candle-burning
lamps have been tried, but were not popular on account
of the poor illuminating power of a candle and the
propensity they had to throw melted wax on to the
lamp glass, thus obscuring the light.
Fig. 24
AN AMERICAN GAS LAMP
The first of its kind to be used on cycles in England
Electric lamps for cycles and motor cycles are of
three descriptions : (1) Those where the current is
taken direct from a dry battery or accumulator ; (2)
where the current is derived from a generator which
illuminates the lamp direct without the intervention
of an accumulator ; (3) the motor cycle type with
generator or dynamo (a separate unit or combined
with the magneto, and termed a magdynamo), which
charges an accumulator and whence the current, so
100 THE CYCLE INDUSTRY
held in reserve, goes to the lamp or lamps. (This last
is a miniature generating set as used on motor-cars.)
Electric Hghting for cycles usually entails greater
weight than oil or gas Hghting, and is a less powerful
illuminant ; but it is cleaner and handier. Acetylene
gas is, at present, the most powerful illuminant for its
weight.
No. 1 . The battery type has a dry ceU or wet battery
carried in a case on the frame, from which the wires
go to the lamps.
No. 2. The direct-type generator comprises a tiny
dynamo driven by friction from the rim or tyre of one
of the wheels (usually the front wheel), the wire passing
direct to the lamp or bulb holder. The tiniest bulbs
are used, seldom exceeding 4 volts and more often less.
No. 3. This consists of a fairly heavy dynamo or
generator ; an accumulator battery weighing up to
15-20 lbs. ; and the connections, switch, etc., which
may total 30-35 lbs. They are becoming increasingly
popular on motor cycles, and provide an illuminating
power that exceeds the average size of gas lamp used
on a motor cycle. Their advantages are cleanhness,
and the fact that if the battery is attended to and the
machine is in fairly constant use, the generator main-
tains a supply of current in the battery which is always
available, without the mess connected with the cleaning
and recharging of acetylene generators.
Such items as tool-bags, luggage panniers, and cases,
and similar accessories, made of leather, fibre, etc., are
generally made by the saddle firms.
Speciahsts in celluloid and leather look after the
manufacture of tyre inflators, handles, gear cases of
leather, and celluloid and similar goods.
There are specicdists in many other small accessories,
too numerous to mention ; in fact, the accessory trade
ACCESSORIES 101
is even more subdivided than the making of the actual
machines. If the various processes were dealt with in
detail, it would require very much more space than
there is at my disposal to touch on only the fringe of
each one.
CHAPTER XVIII
PIONEER RIDES
Nothing has, perhaps, done more to advertise the
bicycle and the assistance it provides than the long
distance pioneer rides of years ago, when intrepid
cyclists set out to cross the Continent of Europe or to
make a tour of the world, using a bicycle wherever
possible.
Among such notable performances are the late
R. L. Jefferson's ride from London to Constantinople ;
Charles Terront's journey from Petrograd (then St.
Petersburg) to Paris ; a journalist's tour with two other
cyclists round the world, etc., etc.
The writer was personally acquainted with the late
R. L. Jefferson, and accompanied him on a 30 mile
ride on the Saturday before he left England for Con-
stantinople. Jefferson rode a Rover bicycle and did
not encumber himself with a vast amount of luggage,
relying on being able to obtain what he wanted as he
went along. An account of the performance that was
published at the time showed that in many parts of
Eastern Europe there were no roads, such as we know
them, only cart or mule tracks deep in mud or loose with
dust. Jefferson had many adventures on the way,
but eventually reached his goal and repeated the
performance at a subsequent date, using a small single
cylinder Rover motor-car.
Terront's ride from Petrograd to Paris was done in
1893, and accomplished in a few hours more than four-
teen days. He travelled through Russia, Poland,
Germany, Belgium, and France, and was accompanied
102
PIONEER RIDES
103
during part of the time by pacemakers on bicycles.
Moreover, his manager and friends went from one
stopping place to another by train, in advance of the
cyclist, to make arrangements for his reception. Prac-
tically everywhere along the route this French rider
was met by groups of cyclists who escorted him from
point to point and showed him the best route to take
Fig. 25
A MODERN ladies' DROPPED FRAME SAFETY BICYCLE,
BUILT BY RUDGE-WHITWORTH, LTD.
to avoid steep hills and thick traffic. In Russia he
had rather a sorry time on some of the vilest roads,
or apologies for them, that are the only means of transit
from town to town when once the rider is away from
the precincts of Petrograd.
This cross Continental journey was more in the nature
of a record performance than Jefferson's ride to Con-
stantinople, because Terront, on his Rudge, was out to
do the distance against time. He set himself the task
8— (1466H)
104 THE CYCLE INDUSTRY
of accomplishing the total mileage (2,000 miles) in
fourteen days, and would have done so but for the bad
roads in Russia.
In comparing these rides with any other performance
of a similar nature undertaken with the aid of later
inventions, such as motor cycles, motor-cars, and
aeroplanes, it must be remembered that the cyclists
were often alone, that they had in some cases literally
to carry their machines over precipitous hills, stony
paths, and other almost impassable places. It not
only speaks well for their grit and determination that
they completed their tasks, but speaks volumes for the
bicycles they bestrode that they ever finished the journey
as complete units. In fact, the bicycles of the Fraser
party, and I think Jefferson's Rover, shed many parts
en route which had to be replaced when spares were
obtainable, or were otherwise patched up to enable the
journey to be completed.
CHAPTER XIX
THE MOTOR CYCLE
A BOOK dealing with the cycle industry must necessarily
include some reference to the petrol propelled type of
cycle which is now so common a feature of our roads.
The two industries are also so closely allied that one
hardly knows where one begins and the other leaves off.
Practically from the earliest time, when inventors
turned their attention to mechanical propulsion on the
road, it was the bicycle rather than the carriage on four
i iv^. 26
THE SPARKBROOK TWO-STROKE MOTOR CYCLE,
FITTED WITH A VILLIERS ENGINE
The magneto is in the flywheel
wheels that they sought to provide with an engine.
Thus it was that the earhest experiment with petrol
propelled vehicles was an internal combustion engine
fitted to a bicycle by Messrs. Daimler and Otto, in
Germany, in 1886. Little was heard of this early trial
because the Otto-Daimler engine was afterwards utiHzed
and exploited for use on motor cars. In 1895 a weird
motor bicycle appeared in Paris, made by two engineers
named Wolfmuller and Geisenhof. This was the first
105
106
THE CYCLE INDUSTRY
machine offered for public use, and it was brought to
Humber's, Coventry, in 1896. It was too crude to
gain the attention of the Coventry makers and httle
more was heard of motor cycles until 1897, when a
Paris firm dealing in gramophones introduced the
Werner front driven bicycle which, owing to ingenuity
and fair rehabihty for those days, rapidly made a market.
The Werner was exploited in this country by a Coventry
firm called the Motor Manufacturing Co., who occupied
part of the building now used by the Daimler Co.
Fig. 27
DETAILS OF THE FLYWHEEL MAGNETO WHICH IS A
FEATURE OF THE VILLIERS TWO-STROKE ENGINE
The Werner inspired Coventry cycle mechanics to
try their hands at a motor bicycle, but several early
models knowTi to the writer never saw more than the
four walls of the shop in which they were built, because
their tests never got to the road stage.
Two Coventry engineers, named Perks and Birch,
were among the first to produce a practical British
motor cycle. They were employed by Singer & Co.,
and their engine was carried inside the wheel of the
machine, first in the rear wheel and afterwards, for
tricycles, in the front wheel. It was probably the fii^st
THE MOTOR CYCLE 107
motor bicycle provided with magneto ignition, but it
was of what is termed the low tension t5rpe. The
modern magneto machine produces a spark in a different
manner and it is of a different nature electrically. As
this book is not a technical treatise on motor cycle
construction, the reader who wishes to know the details
of various forms of magneto ignition should obtain
Mr. A. P. Young's book. The Elements of Electro-
Technics (Sir Isaac Pitman & Sons, Ltd.). The Singer
bicycle was beautifully made and most ingeniously con-
structed, but owing to the lack of elasticity in the trans-
mission (it was geared direct to the wheel by toothed
gearing) the vibration of the engine was very apparent
to the rider.
Between the advent of the Singer and the introduction
of the Werner a good deal had been heard over here
of another Parisian production, the De Dion Bouton
tricycle. These machines had been privately imported
by a few enthusiasts in 1898-99, but at the Stanley
Show in November, of 1899, the Ariel Cycle Co., of
Birmingham, exhibited a motor tricycle and a quadri-
cycle (a tandem passenger machine with four equal
sized wheels). Their machine was made under licence
from the owners of the De Dion Bouton patents, as
were the Eadie and Enfield tricycles and quadricycles
which had French made engines and accessories. At
the same exhibition a small belt-driven motor bicycle,
called the Minerva, and hailing from Antwerp, made
its appearance in this country.
The British motor cycle industry can be said to have
started with the Stanley Show of 1899, because very
httle was known about motor cycles in this country
until that time. In the following two years or so there
was hardly a cycle maker who did not list a motor
bicycle with a Minerva engine. Belgian and French
108 THE CYCLE INDUSTRY
makers, however, were not to have everything their
own way, for in 1903, a London maker, named J. A.
Prestwich, put on the British market a hght engine of
28 lbs. which very soon leapt to the front, and was the
precursor of the popular J. A. P. engines of to-day.
Heavier types of engine were fitted to Excelsiors, and
gradually the trade increased. Between 1905 and 1907
the demand for motor cycles showed signs of a slump;
Fig. 28
THE SINGLE CYLINDER OMEGA LIGHTWEIGHT
SIDE-CAR MODEL
cycle makers, one after the other, gave up making motor
bicycles, but the Bat, Triumph, Quadrant, Rex, J.A.P.,
and many others, stuck to their guns and despite the
vagaries of battery ignition, unsuitable tyres, and other
troubles, they were eventually rewarded for their faith
in the machine. The arrival of the high tension magneto
solved the trouble of accumulator batteries, and firms
who were fortunate or sufficiently long sighted to obtain
delivery of these machines from Germany, hardly ever
looked back. Engines increased in size and power,
two and four-cyclinder engines were introduced, the
latter from Belguim, and very soon practically every
THE MOTOR CYCLE 109
youthful and ambitious pedal cyclist was yearning for
a motor.
London clubs instituted trials and hiU climbing
competitions on a big scale, and the advertisement
obtained from these largely aided the sale of motor
cycles. For a very long time the daily press was
extremely cynical respecting motor cycles and, in some
cases, they had cause to be. However, Rome was not
Fig. 29
THE 6-H.P. TWIN CYLINDER ROYAL ENFIELD SIDE-CAR
MODEL
The engine has V type cyhnders
built in a day, and if some of the incompetent critics
on the daily papers had tempered the wind to the shorn
lamb a little, the industry would not have been so long
climbing the rungs of the ladder of success.
Up to about 1909-10 nearly every motor cycle was
fitted with a four-stroke engine, as they are called to
differentiate them from the two-stroke type. Briefly,
the four-stroke engine has a power impulse, or explosion,
every other revolution or every fourth stroke of the
piston (down and up being counted as two strokes),
whereas the two-stroke has an impulse every revolution
or every two strokes of the piston.
110 THE CYCLE INDUSTRY
In 1909-10, Alfred A. Scott, a Bradford engineer,
brought out a two-cylinder, two-stroke bicycle, and it
immediately gained prominence. The design of engine
and bic3'cle was clever, and as the modern patterns
have won the Tourist Trophy race in the Isle of Man on
more than one occasion, it will be recognized that Mr.
Scott is more than usually learned in motor cycle
construction.
Two-stroke engines had existed before, notably on
the Lepape or Bechrone motor cycle, and were largely
used in the United States and Canada for boat propulsion
in smooth inland waters, but the Scott was different
from these. As it possessed two cylinders and the
impulse strokes in each occurred alternately at each
revolution, the power strokes took place twice during
one revolution of the crank shaft, the turning effort
being, therefore, equal to that of a four-cylinder,
four-stroke engine.
At this period in the history of the motor cycle
practically every cycle maker had one or more motor
bicycle models to offer, and many who had discontinued
their manufacture re-started. In addition, many purely
motor cycle concerns were launched to make nothing
but petrol engine propelled machines. The success of
the Scott caused a number of makers to turn their
attention to the two-stroke engine, which was found
to be particularly suitable for smaU light machines,
and the little two-strokes were produced in large quan-
tities at lower prices than had obtained previously.
The motor cycle now began to settle down to three
classes of machine. 1. A small two-stroke lightweight
for solo riding, with an engine of 2 H.P., to sell at about
^30 to ;^40. 2. A medium weight four-stroke, single
or twin cyHnder machine for serious touring, with an
engine up to 3 J H.P., selUng at £50 to £60. 3. A heavier
THE MOTOR CYCLE
111
single or twin cylinder model from 5 to 8 H.P., for side-
car touring, and costing from £75 to £100 complete.
(These prices have since been approximately doubled.)
Up to now the motor bicycle only has been dealt with^
but quite early in the history of the industry the question
of carrying a passenger in a fore-carriage or side-car
was seriously attracting the attention of makers and
riders alike. The trailer and the quadricycle were the
Fig. 30
THE 4-H.P. TWIX-CYLIXDER HUMBER
The engine is of the horizontally opposed cylinder type
first forms of passenger attachment. They were both
superseded, first by the fore-carriage attachment and
later by the side-car. Various claims have been made
as to the origin of the side-car, but I beheve the first
practical design was protected by a smaU London firm
of cycle makers and sold to the Cycle Components,
Ltd., Birmingham. The idea was ridiculed as un-
mechanical, but it remains to-day the most economical
form of passenger motoring and without it not more than
one-quarter to one-third of the motor bicycles manu-
factured would be sold. The manufacture of side-cars
112 THE CYCLE INDUSTRY
in quantities was first undertaken by Mills & Fulford,
Coventry, followed by W. Montgomery, of Bury St.
Edmunds. These two firms were for several years the
largest makers of this attachment, which was usually
bought separately, and was seldom fitted to the motor
bicycle until the latter was dehvered to the customer.
The chief advantage claimed for it, at first, was that it
could be attached to and removed from the bicycle,
so converting the latter from a solo machine to a pas-
senger vehicle and vice versa at will. Its chief advantages
were, however, that it allowed rider and passenger to
converse more easily than the fore-car attachment, and
above all there were two wheel tracks instead of three,
as with a fore-car. Unmechanical it may be, but it
fills the bill and is preferred to-day by many experienced
motorists to any small car that is obtainable at prices
within about 50 per cent, over its cost. In other words,
owing to its speed, simplicity, economy, and reUabihty,
a side-car combination at £200 is often a better purchase
than a little motor car at ;£300.
The drawback is that, however well protected the
passenger may be, the cycHst has to face bad weather
and get wet as in the case of solo riding. The early
forms of side-car had wicker and cane chairs, very open
and draughty, the passenger sat bolt upright, and there
was little comfort in the best of them. To-day a side-car
body is made of metal or wood, has a side door, springs
in the upholstery, windscreen, hood, etc., just like a
miniature car, and the wheel is sometimes sprung on
car lines. The passenger is therefore quite as comfort-
able as if in a motor car and quite as well protected
from the wind and rain.
Many firms specialize in the manufacture of side-cars,
which are seldom made by cycle or motor cycle com-
panies, and although the frames and wheels are a branch
THE MOTOR CYCLE 113
of the cycle industry, it is a trade quite separate from
cycle making.
For many years the motor cycle laboured under a
disadvantage, in so much that it possessed no change
speed gear or clutch. To start the engine the whole
machine had to be pushed along at a smart trot until
the engine began to work, when the rider had to make a
*' running mount " and put one foot on the left pedal
Fig. 31
THE MILLFORD SIDE-CAR
of the crank axle and swing the other leg over the back
wheel. This required some agility to perform with
success.
Gradually, the trade brought out change speed gears
and clutches. The latter enabled the engine to be
started with the bicycle at rest, the change speed gear
enabled steep hills to be cHmbed without hard pedaUing
or dismounting and running alongside. The change
speed gears are dealt with separately in Chapter VIII.
114 THE CYCLE INDUSTRY
The latest models of motor cycle have all the attributes
of a well-designed motor car chassis, and some are
best described as a car chassis on two wheels. The
outstanding difference between a motor car and a
motor cycle is that the latter is practically always
fitted with an air cooled engine, i.e. an engine which
radiates the heat generated by the explosions of gas in
the cylinder directly from the cyHnder to the atmosphere,
instead of through the medium of water. Between the
cyUnders of most car engines and the atmosphere there
is a jacket of water conducting the heat to a radiator,
through which the water passes from top to bottom
by natural circulation. There are instances of water-
cooled bicycle engines and air-cooled car engines, but
the cycle engine is normally air-cooled.
The motor bicycle represents the latest and most
improved form of cycle extant, and the evolution of the
cycle industry from its first introduction to this country,
in 1868, to the present day has meant employment for
thousands of workers and fortunes for many employers.
Whether the cyclist elects to provide the motive force
by his own efforts or prefers to call in the aid of the
internal combustion engine is a question of personal
choice. The pedal bicycle, as it is termed, provides
exercise with recreation, and the motor is therefore
scorned by some athletic enthusiasts. The dependability
and speed of the motor cjxle are, however, now an
established fact, and the advantages of the mechanical
propulsion cannot be overlooked where time is a factor.
On the other hand, the pedal bicycle is a restful and
noiseless form of locomotion for those who do not cara
for the hurry and bustle of a motor cycle ride, and
cycling, when undertaken in accordance with ones
powers, is probably the most health giving form of
recreation for the mind and body.
CHAPTER XX
THE FUTURE OF THE INDUSTRY
To write of the future one becomes a kind of prophet,
and the forecasting of events is a dangerous thing to
undertake. However, this being the final chapter of
my book on the cycle industry, I will risk it on the
assumption that if I prophesy what does not materialize,
I shall not be alone in having stated what did not
subsequently prove true.
The cycle industry of the future is assured, because
no matter what happens there always must be a big
demand for the cheapest form of locomotion known.
Aye, even cheaper than walking. Is not leather more
costly than rubber and does not a bicycle tyre cover
outlast several boot soles, besides being a quicker means
of getting about, either for work or pleasure ?
We can therefore safely assume that bicycles will
always be with us, because if a very cheap form of power
were ultimately devised for propslhng a bicycle on
present motor cycle lines, no machine so fitted could
be produced and sold at the cost of a bicycle that is
propelled b\' human power.
The industry, however, may not remain on its present
lines. Like the gun trade and some other industries
it ma}?- ultimately become so sub-divided that no manu-
facturer will be able to afford to make a complete
bicycle on his own premises. Taking the gun trade as
an example, Birmingham is or was, before the war, the
centre of the gun making industry. Gun makers date
back centuries, whereas cycle makers have hardly
attained their fiftieth year. Now the gun trade is so
sub-divided that, apart from a few notable examples,
a gun assembler can buy every part of a gun from
specialists, and the price of the finished article depends
115
116 THE CYCLE INDUSTRY
on the amount and quality of workmanship that is
put into it.
The bicycle trade, with some exceptions, was leaning
in the same direction in 1914, and at the time of going
to press has hardly recovered from the after effects
of the war. It must, however, tend to develop more
and more into a specialized form of trade where manu-
facturers will concentrate on one part, and so reduce
prices and competition to such a level that no maker
who attempts to make all the machine under one roof
can hope to withstand.
At the time these pages went to press there existed
a protective tariff on bicycles imported from abroad
of 33 J per cent., which held back imports from Germany,
U.S.A., and Japan.
Japan has long threatened to export bicycles to this
country, Germany could do so with advantage to herself
owing to the rate of exchange, and U.S.A. could possibly
do a certain amount of trade here. All are at present
prevented by a wise tariff from competing with British
makers while the latter labour under present difficulties.
No one can tell exactly what will occur, but I think
the British cycle maker eventually will be able to survive
all forms of competition from abroad, but that will
hardly suffice to keep him going on full time if he be
barred out of other countries and only has home demands
to fUl.
The cycle trade has a well organized Union to conduct
its annual exhibition, frame regulations for the conduct
of its membership in trading with the agents, to watch
its interests in Parliament and generally safeguard the
industry, the members of which are practically all in
the Union.
The full title of this organization is The Cycle and
Motor Cycle Manufacturers' and Traders' Union, and
THE FUTURE OF THE INDUSTRY 117
its headquarters are The Towers, Coventry ; the
manager being Major WatHng and the secretary Mr.
Timerick.
In conclusion, those who irnagine the cycle industry
has anything left of its old time sporting glamour, when
to be connected with it was regarded by some as a
pleasant means of existence hovering between work
and play, with a big proportion of the latter, should at
once disabuse their minds of any such ideas. The
cycle industry is now one of Britain's staple trades, and
has settled down on industrial lines of great magnitude.
Enormous sums of money are locked up in plant and
machinery at its various factories and works which
produce the subsidiary articles that go to make up that
portion of the trade known as accessories. It is quite
impossible to give an accurate figure as to the amount
of this capital or the number of employees, partly
because a good portion of the capital is in private
concerns and also on account of the cycle and motor
industries being interconnected to so great an extent
that it is difficult to say where one begins and the
other ends.
INDEX
Abingdon tricycle axle, the, 22
Accessories, 96-101
Accumulators for electric lighting,
99-100
Accuracy in production methods,
94
Advantages of change speed gears,
58-59
Albone, Dan, cross frame, safety,
15
American bicycle, the, 74-75
, influence on the
industry, 74-75
Ariel bicycle of Haynes &
Jeffries, 5
Armstrong hub gears, the, 61
Array authorities and the bicycle,
continental, 89
, cyclist sections of the, 88-89
Cyclists' Corps, the, 88
Assemblers, local, 45
Axle, the Abingdon tricycle, 22
Backbones of early bicycles, 4
Balance gear, the, 20, 22
Ball bearings, introduction of, 8
, the patentee of, 8
Bantam safety, the, 1 1
Bath Road C.C, the, 70
Bayliss, Thomas, 2
Beaded edge covers, 52
Bearings, introduction of ball, 8
, plain and roller, 8
Beeston Humber, tandem tricycle,
the, 22-23
Bidlakc, F. T., as a tricyclist, 22
Birmingham and the early supply
of materials, 27-28, 30
Boom period, the, 71-75
Boothroyd's patents, 11, 56
Bowden brake, the, 38
Brakework, assembling of, 38-39
, roller lever type of, 39
Brazing of frames and forks, 36
, liquid, 36
B.S.A. company, early history of
the, 29-30
, change speed gear, the, 61
, safety bicycle, the first, 29
Capitalization, over, 72
Castings, where produced, 31
, iron, 31
, malleable, 31
Chain gearing, 9
Challenge tricycle, the, 18
Change speed gears for motor
cycles, 62-63
, 58-63
gear, the advantages
of, 58-59
, explanation of
working of, 58
the Eadie Co.'s,
60
61
Biggs, 59
speed, 60
60
Archer, 61
the B.S.A., 61
the Armstrong,
the Linley &
the G. & J., 60
the Hub two-
Fagan's patent,
the Sturmey
-, the Sunbeam, 61
Clincher tyre, the, 52, 56
Clubs, famous, 70
Company promoting, 71
Components, makers, 48-49
Constrictor racing tyre, the, 57
Constantinople, R. L. Jefferson's
ride to, 102
Continental Army authorities and
the bicycle, 89
Continent, the bicycle on the,
84-86
, touring on the, 86
Coventry Lever Tricycle, the, 17
Machinists Co., 1
makers, early struggles for
materials, 27-28
, the home of the industry,
27
Covers, wired on, 55
, beaded edge, 52
Cripper tricycle, the, 21
119
9— (1466H)
120
INDEX
Cross frame safety bicycle, Dan
Albone's, 15
Cushion tyres, 51
Cycle boom, the, 71-75
and gun industries com-
pared, 115
and Motor Cycle Manufac-
turers' Union, 116
Cycles in the G.P.O., use of, 89-90
in the Great War, use of, 88
Cyclists' Corps, the Army, 88
paths, 80
Touring Club, the, 86
Daywork and piecework pay-
ments, 34, 35
De Dion Bouton motor tricycle,
the, 107
Doughty's patent tyre process, 55
Drawing office, the, 45, 47
Dry batteries for electric lighting,
99-100
Dynamos for electric lighting,
99-100
Du Cros, Harvey, 54
Dunlop tyre, the, 52
, J. B., 52
tyre, history of the, 52-56
Duties, import, on bicycles, 75, 85
Eadie Co.'s hub gear, 60
motor tricycle, 107
Electric lighting, 99-100
by dry battery, 99-100
, by accumulator, 99-
100
, by dynamo, 99-100
Enamelling shop, the, 41
Enfield Co.'s motor tricycle, 107
bicycle, 109
Engineering Standards Commit-
tee, the, 95
Engines, motor cycle, the Scott
two-stroke, 1 10
, , the J.A.P., 108
, , the four-stroke,
109
Excelsior motor bicycle, the, 108
Facile, the, 10
, the geared, 10
, description of the, 10
Factory, different types of, 45, 91
, in the, 91-95
Pagan's hub gear, 60
Female labour, 48
Figures of production, 46
Filing-up frames and forks, 36-37
Finisher, the, 42
Finishing shops, the, 41-43
Forks, spring, 65
Fosse road, the, 79
Frame building, 33, 35-36
filing, 36-37
pickling, 36
Frames of early bicycles, 1, 4
, spring, 64-66
Future of the industry, 75, 115-
117
trade conditions, 75
French cyclists, 84-85
Gas lamps, 98-99
Gearing up by chain or cogs, 9
Geared ordinary, the, 9
Gears, change speed, 58-66
, , for motor cycles,
62-63
G. & J. hub gear, 60
Germany and the cycle trade,
85-86
G.P.O., cycles in the, 89-90
Handlebar, making and bending,
39
Harrington, John, 3
Haynes & JelTries, 3
Hazlewood, 3
Hillman, William, 2, 28
History and origin of the bicycle,
1-16
Hub lamps, 97-98
two-speed gear, the, 60
Humber, Thomas, 14, 28
, the straight tube diamond
frame, 15
tricyde, the, 21
tandem bicycle, 24
tricycle, the, 22-23
motor cycle, the, 111
Import duties on bicycles, 75, 85
Industries, cycle and gun com-
pared, 115
Industry, future of the, 75
J. A. P. motorcycleengine.the, 108
Jefferson's (R. L.) ride to Con-
stantinople, 102
Juvenile cycles, 49
INDEX
121
Kangaroo bicycle, description of
the, 10
Labour, female, 48
Lamps, 97-99
, gas 98
, hub, 97-98
, oil, 97-98
Lawson's safety bicycle, 13
Lever driven, safety, an early,
13
Linley & Biggs, change speed
gear, 59
Liquid brazing, 36
Local assemblers, 45
Machining processes, 37
Machining shops, the, 37
Makers, large and small, 45
Manufacturing processes, from
stores to railway dray, 32-44
Mass production, 45
Materials used in cycle industry,
27-31
, main sources of production
of, 27-31
Military bicycles, 87-89
Millford side-car, the, 112,
113
Montgomery side-car, the, 112
Morris, G. L., referee, 16
Motor cycle, the, 105-114
, the Perks and Birch,
106-107
, the Triumph, 108
, the Minerva, 107
, the J.A.P., 108
the Wolfmuller, 105-
the Humber, 1 1 1
, the Werner, 106-107
, the Singer, 106-107
, the Excelsior, 108
change speed gears,
62-63
industry, early strug-
gles of the, 105-108, 113
, prices, 1 10-1 1 1
■ — , the Scott two-stroke,
110
— cycles, introduction to this
country, 73
— Manufacturing Co., the, 106
— tricycles, 73
— tricycle, the Ariel, 107
106
Motor tricycle, the De Dion
Bouton, 107
Mudgards, assembling of, 38
National Cyclists' Union, 68, 70
Nickel-plating process, the, 40-41
North Road C.C, the, 70
Nottingham and the cycle
industry, 30
Oil lamps, 97-98
Olympia tandem tricycle, the,
22-23
Ordinary or high bicycle, the, 7
Origin of the bicycle, and early
history, 1-16
Otto Bicycle, the, 18
Packing bicycles for transit by
rail, 44
for shipment abroad,
44
Palmer tyre, the, 56
Patents, tyre, 56
Paths, cyclists', 80
Payments for piecework and
daywork, 34-35
Penn's of Greenwich, 2
Perks & Birch motor cycle, the,
106-107
Petrograd to Paris ride, Chas.
Terront's, 102-103
Pickling of frames, etc., 36
Piecework and daywork pay-
ments, 34-35
Pioneer rides, 102-104
Plain bearings, 8
Plating and polishing shops, the,
39-41
Pneumatic and other tyres, 50-57
Premier, the Catford, 16
Pressings, 46
Processes of manufacture, from
stores to railway dray, 32-44
Production figures, 91
Production of materials, main
sources of, 27-31
, methods, 32-44, 45-49
QuADRiCYCLE, a military, 87
Races, important road, 70
Racing, the trade and, 67-70
tracks, London and provin-
cial, 67-68
122
INDEX
Racing tyres, the Constrictor, 57
men, famous, 68
, track and road, 69
Railway dray, from stores to
manufacturing processes, 32-44
Raleigh, the diamond frame, 15
Records and record breaking,
67-70
Redditch and the cycle industry,
27
Referee, G. L. Morris, 16
Ride, Chas. Terront's (Petrograd
to Paris), 102-103
to Constantinople, R. L.
Jefferson's, 102
Rides, pioneer, 102-104
Rim standards, 95
Road and track racing, 67
races, important, 70
, the Great North, 77
, the Bath, 77
, the Holyhead, 77-78
, the Brighton, 78
, the Fosse, 79
racer, specification of the,
82-83
Roads and their influence on the
industry, 76
of the Midlands, 76
, classic of England and
Wales, 77
Roadster, specification of the
light, 83
, of the light touring, 83
, of the touring, 83
Roller bearings, 8
Rotciry, Rudge tricycle, the, 19, 20
Rover bicycle, J. K. Starley's, 14
Rudge, D., 20
Rotary tricycle, the, 19, 20
Saddles and saddle making,
96-97
, where produced, 27, 30
Safety bicycles, early, 7
bicycle, H. J. LaWson's, 13
Salvo tricycle, the, 18
Sand blasting, 37
Scott two-stroke engine, the, 110
Screwing spokes, 38
Service bicycles, 87-90
Sharp's spring frame, 64
Sheffield and the cycle industry,
27,30
Shergold's safety bicycle, 7
Side-car, the Millford, 112,
113
, the Montgomery, 1 12
Side-cars for motor cycles, 111-113
Singer, George, 2, 28
motor cycle, the, 106-107
Singer's Xtraordinary challenge
bicycle, 14
Single tube tyres, 56
Slump period, the, 72
Society and the boom period, 72
Solid tyres, 50
Springs, where produced, 27,
30
Spring fork, the Dunlop, 65
forks, 65
frame, the Whippet, 64
, the Sharp, 64
frames, 64-66
Staffs, works and office, 45
Stampings, 46
, where produced, 31
Standardization of parts, 95
Starley, James, 2, 14, 28
Starley's, James, original tricycle,
17
, J. K., Rover bicycle, 14
Stores, the rough, 32-34
, the finished, 34-35
to railway dray, manufac-
turing processes, 32-44
Sturmey Archer hub gears, the,
61, 62
Sunbeam change speed gear, the,
61
Tandem bicycle, the Chater Lea,
24
, the Humber, 24
, the Raleigh, 24
, the Rudge, 24
, the Singer, 24
, the Whitworth, 24
bicycles, 24-26
tricycle, the, 22
, the Beeston Humber,
22—23
, the Olympia, 22-23
Terront's (Chas.) Petrograd to
Paris ride, 102-103
Thomas, J., 2
Threading spokes, 38
Timerick, Mr., Secretary, Cycle
and Motor Cycle Manufac-
turers' Union, 117
INDEX
123
Tool bags, 100
Touring Club, the Cyclists' 86
on the Continent, 86
Tracks, London and provincial
racing, 67-68
Track and road racing, 69
Trade conditions, the future, 73
, racing and the, 67-70
Tricycle axle, the Abingdon, 22
, the, balance gear, 20, 22
, era, the, 17-23
, James Starley's original, 17
• , the Challenge, 18
, the Coventry Lever, 17
, the Humber, 21
, the Cripper, 21
, the Rudge Rotary, 19, 20
tandem, the, 22
sociable, the, 22
Triumph motor cycle, the, 108
Truing wheels, 38
Tubing steel, where produced,
27-28, 30
Tyre, Bartlett's patent, 52
, the Clincher, 52
, the Constrictor racing, 57
, history of the Dimlop, 52-56
, the Dunlop, 52
, the Palmer, 56
, patents, 56
, the single tube, 56
, the Welch, 55
Tyres, leather, 50
, solid rubber, 50
, cushion, 51
Tyres, wherefproduced, 30-3 1
, pneumatic and other, 50-57
, steel, 2, 50
Velocipede, the, 1, 3
Viewing of cycle parts, 42-44
Wages in cycle factories, 34-35
Walsall and the cycle industry,
27
Warman, 3
War Office, the, and the bicycle,
87-88
Watling, Mr., Manager, Cycle and
Motor Cycle Manufacturers'
Union, 117
Street, 78-79
Weights of cycles, 81-83
Werner motor cycle, the, 106
Wheel building, 37-38
truing, 38
rim standards, 95
Wheels, early construction of, 4
, lever construction of, 5
, laced and tangent spoked, 6
, disparity of diameters, 6
Whippet spring frame, the, 64
Wircd-on covers for tyres, 55
Wolfmuller motor cycle, the,
105-106
Wolverhampton and the cycle
industry, 30
Xtraordinary Challenge,
Singer's, 14
Printed by Sir Isaac Pitman & Sons, Ltd., Bath, England
w — (1466H)
The Villiers Two-Stroke Engine
MARK IV
IS far and
away ahead
of all other
Engines.
Its Flywheel
Magneto has
given it new
life.
D
A Fat Spark
at any speed.
Illustrated
Booklet
tree
Makers
The Villiers
Engineering Co., Ltd.
Wolverhampton
Motor Cycle Engitif Dept.
The Most Economical
Form of Motoring
IS THAT OBTAINED BY USING A
MOTOR CYCLE & SIDECAR
The Sidecar which gives the greatest comfort
to its occupant and entails the least strain
upon the Motor Cycle and its Driver is the
"MILLFORD-ROCK" : :
The " Millf ord-Rock " Chassisless Sidecar Model One.
{Patents pencluii/)
Our current lists shew designs intended
to meet all tastes and requirements.
. They include Touring Models, a Family
Model and Ihoo-Seater {tandem,) Model
The making of Sidecars with us dates from May, 1903
"EXPERTO CREDE"
so'-^-'^^rs: MILLS-FULFORD, Ltd.
Crown Works, COVENTRY
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9
COMMON COMMODITIES OF COMMERCE
AND INDUSTRIES
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TEA
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