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STC100LectWk7-AHistoryoftheAutomobile.html

STC 100 Dr Adam Lucas

  1. Origins & sources of automobile technology
  2. Early development of:

 electric vehicles  steam-powered vehicles  petrol-fuelled internal combustion engines

  1. Factors in success of automobile
  2. Factors in decline of electric & steam-powered

vehicles

5) Factors in success of internal combustion engine

Ferdinand Verbiest (1623-1688)

 Flemish Jesuit missionary,

mathematician, astronomer.

 In 1670s designed a steam-propelled trolley as toy for Chinese Emperor (65 cm long).

 Some claim as earliest automobile, but scale model was so small, inaccurate to describe as ‘car’.

 No evidence vehicle ever actually built.

Le Pere Ferdinand Verbiest

Nicolas-Joseph Cugnot (1725-1804)

 French military engineer & inventor  generally credited with having constructed

earliest self-propelled mechanical vehicle  first to successfully create device for

converting reciprocating motion of steam piston into rotary motion by means of ratchet

mechanism

 built two steam-powered vehicles for hauling

cannons

 1769 model reached top speed of 5 kph but

ran out of steam after 15 minutes

 1771 model ran into wall on test run & French

Govt withdraw funding support

1769 model

1771 fardier à

vapeur

Many material & production technologies used later in automobiles originated in bicycles (Volti 2004: 2)

 chain-and-sprocket drive  pneumatic tyres  ball bearings  tension-spoke wheels  advanced metal-stamping techniques  Brazed tube construction

 Bicycle helped promote culture of personal

mobility (Volti 2004: 2)

 rail & ship transportation comfortable, but followed set

timetables

 bicycles could be ridden on roadways anywhere,

anytime.

 Hiram Maxwell, auto manufacturer, on why

automobile didn’t emerge until after 1880:

 “the bicycle had not yet come in numbers & had not

directed men’s minds to the possibilities of independent, long-distance travel over the ordinary highways.” (1937)

  1. Steam-powered engines
  2. Electric engines
  3. Gas-powered engines
  4. Petrol-fuelled internal combustion engines

Each drive mechanism had advantages & disadvantages, but the internal combustion engine won out in sales & popularity by 1910.

40%  Steam-powered vehicles

 Steam-powered vehicles first developed early 1800s.  Had several advantages over internal combustion engines during

early years (see below).

 1906: Stanley ‘Rocket’ attained 204.4 kph at Ormond Beach, FL.  1907: Stanley ‘Rocket’ attained 317 kph at Ormond Beach, FL, hit a bump, became airborne, crashed & smashed (speed record nixed).

Stanley ‘Rocket’ 1906

Advantages

 Delivered peak torque at low

rotational speeds.

 No need for geared

transmission & fewer moving parts.

 Reasonably quiet & vibrated

less than internal combustion engines.

 Very fast & rapid

acceleration.

Disadvantages

 Took 30 secs-45 mins to turn

water into steam.

 Large & heavy heat

exchanger & radiator.

 Required considerable advance planning & continuous oversight.

 Prodigious appetite for water.  High fuel consumption

(kerosene) to boil water.

By 1920, petrol-powered cars had surpassed steam cars in terms of power, technology & price.

 Founded in 1899 by John B. Walker in Tarrytown,

New York.

 1899-1902: produced 5,000 steam-powered

automobiles.

 Locomobiles unreliable, difficult to operate,

subject to paraffin fires, small water tanks (32 km range per tank)

 Took around 30 seconds to raise steam using

flash boiler burning naphtha.

 Used two-cylinder steam engine with wooden

chassis.

 Typical 2-seater model in 1904 retailed for $850.  Firm abandoned steam vehicles in same year for

gasoline-powered internal combustion engines.

Jan 1901 steam-powered

1907 Type E Touring

1828-1838: several inventors create small-scale

electric-powered vehicles in Hungary, US, Scotland, Netherlands.

1840s 4:

1867:

1881:

patents for electric rail & electric trains in use in coal mining.

Austrian inventor Franz Kravogl displays electric-powered two-wheel cycle at World Exposition in Paris.

French inventor Gustave Trouvé demonstrates three-wheeled electric automobile at International Exhibition of Electricity in Paris.

1890-1: 1st electric car developed by William Morrison of Des Moines, Iowa.

  1. 1st commercial application in US as New York taxis built by Electric Carriage & Wagon Co.
  2. Camille Jenatzy’s ‘rocket- shaped’ vehicle, Jamais Contente, reached top speed
    • f 106 kph.
  3. 1920s Electric vehicles continued to
    • hold most speed & distance records.

NYC taxi cabs, ca. 1900

Jamais Contente, 1899

Riker electric automobile, ca. 1900

  • built in Elizabethport, New Jersey, 1898-1901
  • batteries recharged overnight
  • designed to be chauffeur driven
  • two electric motors mounted in front of each end of rear axle
  • batteries mounted front & rear of cabin

Baker electric automobile, 1909

  • built in Cleveland, Ohio, from 1899-1914
  • 1906: produced 800 cars, largest electric vehicle maker at the time
  • 1907: 17 models, ranging in price from $850- $4,000

Waverley Electric Company, 1898-1915

Waverley electric buggy, ca. 1909

  • built in Indianapolis, Indiana
  • carriages with electric motors
  • tiller steering with no wheel until 1911

Advantages

 No vibration, smell or

noise

 More economical to run

than gasoline cars

 No gear changes  No manual effort

required to start

Disadvantages

 Relatively slow (24-32

kph)

 Limited range (50-65 km)  Lack of electric power

infrastructure

 Perceived as “ladies’ cars”

by men

A group of mostly female motorists gathered before the fountain at the Albright Art Gallery c. 1909, in Buffalo, NY.

1900: basic electric car retails under $1,000 (roughly $26k equivalent); average costs $3,000 (roughly $78k equivalent).

1905-12: electrification of US & European cities & residences

leads to surge of popularity.

Mostly popular with upper classes: massive carriage-like

structures with high rooves to accommodate gentlemen in top hats & ladies in ornate head gear.

1912: 33,842 electric vehicles registered in US – peak of

electric cars sales.

1917: 1st hybrid petrol-electric vehicle released by Woods Motor Vehicle Co., Chicago, but too slow for price & difficult to service.

 Engine based on principle of combustion of air-fuel

mixture inside engine (contrasted with external combustion of fuel to heat water in boiler for steam

engine).

 Earliest efforts to create internal combustion engine

involved engines fuelled by gunpowder, created by Chinese, Mongols & Arabs in 13th century.

 Christiaan Huygens (1629-1695) used gunpowder to

drive water pumps (internal combustion piston engines) for Versaille palace gardens, supplying 3,000 cubic metres of water per day.

 Constructed double-acting engine which ignited mix of air & gas which pushed piston from one end of cylinder to other

end, producing single power stroke.

 Process repeated, piston producing second power stroke as it

moved back, expelling exhaust gases left over from first stroke.

 Disadvantage was air-fuel mixture not compressed before

ignition, resulting in limited power & efficiency.

 Higher thermal efficiency than steam engines.  Used to power vehicle in 1862, but took six hours to cover ten

kilometres.

 Invented 1st internal combustion engine to burn fuel directly

in piston chamber.

 1st to make practical use of four-stroke principle (‘Otto cycle’)

in 1876:

  1. Downward movement of piston creates partial vacuum which sucks mixture of air & vaporised fuel into combustion chamber admitted by opening valve.
  2. Mixture then compressed by upward movement of piston.
  3. Ignition of fuel-air mixture pushes piston down & turns crankshaft to which it’s connected.
  4. Piston moves up again, ejecting exhaust gases from combustion chamber through port opened by second valve.

 Within 10 years Otto’s company sold 45,000 units as

stationary power plants for industrial applications.

http://www.youtube.com/watch?v=kvtk4hx3Zcc http://www.youtube.com/watch?v=ep1NhANcC

L4&feature=related

http://www.youtube.com/watch?v=8TduyjTpWd

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 Daimler & Maybach were former

employees of Otto.

 In 1885, Daimler & Maybach installed

four-stroke, single-cylinder 0.5 hp engine into wooden-framed two wheeler.

 Demonstration model not intended to

be ridden any distance, but often considered to be first motorcycle.

 In 1886, installed same engine in a

stagecoach & a boat.

 In 1885, Benz constructed three-wheeled Motorwagen

in Mannheim using engine based on Otto’s principles.  Innovations included:

  • custom-designed tube frame
  • wire wheels
  • four-stroke engine mounted between rear wheels
  • advanced coil ignition
  • evaporative cooling rather than radiator
  • transmission via two roller chains to rear axle

 Engine less advanced than Daimler’s & Maybach’s,

producing only 0.75 hp at 250 rpm.

 Benz invented first gasoline-powered automobile &

patented all processes which made internal combustion engine feasible automobile technology.

 Family business founded in eastern France in

1700s manufacturing sheet metal & variety of metal products.

 1842 began making coffee, pepper & salt grinders, crinoline dresses (with steel rod frames), umbrella frames, saw blades, wire wheels.

 Bicycle production began in 1882

with ‘Le Grand Bi’ penny-farthing.

 1889: Peugeot built four steam powered, three-wheeled automobiles.

 1890: steam abandoned in favour of

petrol-fuelled internal combustion engine

 built by Panhard under licence from

Daimler;

 car had three-point suspension & sliding

gear transmission.

 1895: 1st car with rubber tyres  1896: 1st Peugeot engines built – 8

hp horizontal twin-cylinder fitted to rear of vehicle.

Peugeot Type 19 (1899)

 1892: 29 cars built  1894: 40  1895: 72  1898: 156  1899: 300

 1st American car built in 1893 with gasoline-powered internal

combustion engine: ‘Ladies Phaeton’.

 Built in Springfield, Massachusetts, inspired by Scientific American

article about Benz car.

 Brothers began business as bicycle manufacturers in Washington

DC, later Chicopee, Massachusetts.

 1895: Duryea car wins Chicago Times Herald race in Chicago - 1st

US auto race in which any entrants finish; Duryea Motor Wagon company is 1st American firm to build gasoline-driven cars.

 1896: thirteen cars sold.  1917: stopped manufacturing due to low production & sales.

Ransom E. Olds

 Founded by Ransom Eli Olds in 1897 in

Lansing, Michigan

 Olds sold out in 1899 & company moved

to Detroit

 Curved Dash (1901-04) 1st mass-produced

car

 1901: 425 automobiles sales  1904: 5,500 automobile sales  Buggy-like body with single-cylinder, 7 hp

engine mounted between front & rear wheels

 Top speed of 30 kph  Poor brake system & tiller steering meant

higher speeds were dangerous!

1905 popular hit

1897: Harry Tarrant produces 1st petrol-driven,

fully enclosed Australian automobile in

Melbourne.

1903: Australian Motoring Association formed in NSW, SA & VIC.

Early 1900s: Australia imports most vehicles from

UK & America. Most early motorists are upper class & upper middle class.

1909: mass production makes motoring affordable for people on lower incomes.

Primarily contingent upon successful development of several crucial technical

components:

 drive mechanism (engine)  cooling system  transmission system  wheels & tyres  brake system  steering system  vehicle chassis

Several cultural changes, or changes in social attitudes, also important in acceptance of automobiles:

 Residents in densely populated urban areas tended to use

streets for games, socializing, buying & selling, etc, not for transport.

 Residents in rural areas complained about dust thrown up by cars, motorists trespassing on private property, stealing fruit & littering.

 Both groups initially responded by placing obstacles in paths of motor vehicles, including digging up roads & stretching

barbed wire across highways (!).

 As prices of vehicles came down & became more affordable,

& vehicles had to be registered & drivers licensed by law, attitudes to automobile became far more favourable.

 Utility: certain professions & occupations e.g.,

doctors, managers, engineers & salesmen, found cars useful in their work.

 Social groups such as urban poor & farmers

regarded cars as anti-social, disruptive nuisance.  Risk & Revenue: local & state authorities

regarded cars as potential public safety hazard, but also source of tax revenue for provision of appropriate infrastructure.

 Use of muffler (1897) reduces noise of internal

combustion engines.

 Invention of electric starter (1912) makes cranks in

gasoline cars obsolete.

 Improved road infrastructure between cities of

Europe, North America & colonies from 1920s onward requires vehicles with greater range.

 Discovery of large reserves of petroleum in Texas,

Oklahoma & California substantially reduces price of gasoline.

 Mass production of cheaper gasoline vehicles by

companies such as Ford:

1912 – electric roadster sold for $1,750 (roughly $39k

equivalent)

1912 – steam-powered roadster for $4,800 (roughly

$109k)

1912 – gasoline roadster sold for $650 (roughly $15k) 1915 – Ford Model T sold for $440 (roughly $9.4k) 1916 – Ford Model T sold for $360 (roughly $7.2k)

 Steam-powered cars had higher standard of performance in

terms of speed & power, but required great deal of driver vigilance.

 Most early cars not intended for everyday transport, but for

sport & entertainment: electric cars were not considered exciting by most men.

 Perception of electric cars as ‘feminine’ put off male drivers.  By early 1910s, various technological improvements meant

gasoline-powered cars offered best compromise between potential for high performance & reasonable practicality.

 Electric & steam-powered cars largely disappeared from

market by 1930s.

 Technical

 reverse salients with gasoline-powered vehicle technology overcome by

1912

 problems with range of electric vehicles & complexity of maintaining

steam-powered vehicles not overcome by 1912

 road & refuelling infrastructure favours gasoline-powered vehicles

 Economic

 relative price of mass-produced electric & steam-powered vehicles could  price not compete of gasoline with radically gasoline-powered reduced by vehicles 1910s in mass market

 Cultural/Psychological

 male preference for ‘sporty’ cars  perception of electric cars as ‘feminine’  once mass-production made cost of vehicles affordable to people on

lower incomes, perception of automobile as embodiment of arrogance & egotism of moneyed classes began to subside.