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From Wikipedia, the free encyclopedia

An automobile or motor car is a wheeled motor vehicle used for transporting passengers, which also carries its own engine or motor. Most definitions of the term specify that automobiles are designed to run primarily on roads, to have seating for one to eight people, to typically have four wheels, and to be constructed principally for the transport of people rather than goods.^[1] However, the term automobile is far from precise, because there are many types of vehicles that do similar tasks.

As of 2002, there were 590 million passenger cars worldwide (roughly one car per eleven people).^[2] Around the world, there were about 806 million cars and light trucks on the road in 2007; they burn over 260 billion gallons of gasoline and diesel fuel yearly. The numbers are increasing rapidly, especially in China and India.^[3]

Contents 1 Etymology 2 History 3 Production 4 Fuel and propulsion technologies 4.1 Petroleum fuels 4.1.1 Diesel 4.1.2 Gasoline 4.2 Biofuels 4.3 Electric 4.4 Steam 4.5 Air 4.6 Gas turbine 4.7 Rotary (Wankel) engines 4.8 Rocket and jet cars 5 Safety 6 Costs and benefits 7 Environmental impact 8 Other negative effects 9 Future car technologies 10 Alternatives to the automobile 11 See also 12 References 13 Further reading 14 External links

Etymology

The word automobile comes, via the French automobile, from the Ancient Greek word αὐτός (autós, "self") and the Latin mobilis ("movable"); meaning a vehicle that moves itself, rather than being pulled or pushed by a separate animal or another vehicle. The alternative name car is believed to originate from the Latin word carrus or carrum ("wheeled vehicle"), or the Middle English word carre ("cart") (from Old North French), or karros (a Gallic wagon).^[4][5]

History

Although Nicolas-Joseph Cugnot is often credited with building the first self-propelled mechanical vehicle or automobile in about 1769 by adapting an existing horse-drawn vehicle, this claim is disputed by some^{[citation needed]}, who doubt Cugnot's three-wheeler ever ran or was stable. Ferdinand Verbiest, a member of a Jesuit mission in China, built the first steam-powered vehicle around 1672 which was of small scale and designed as a toy for the Chinese Emperor that was unable to carry a driver or a passenger, but quite possibly, was the first working steam-powered vehicle ('auto-mobile').^[6][7] What is not in doubt is that Richard Trevithick built and demonstrated his Puffing Devil road locomotive in 1801, believed by many to be the first demonstration of a steam-powered road vehicle although it was unable to maintain sufficient steam pressure for long periods, and would have been of little practical use.

In Russia, in the 1780s, Ivan Kulibin developed a human-pedalled, three-wheeled carriage with modern features such as a flywheel, brake, gear box, and bearings; however, it was not developed further.^[8]

François Isaac de Rivaz, a Swiss inventor, designed the first internal combustion engine, in 1806, which was fueled by a mixture of hydrogen and oxygen and used it to develop the world's first vehicle, albeit rudimentary, to be powered by such an engine. The design was not very successful, as was the case with others such as Samuel Brown, Samuel Morey, and Etienne Lenoir with his hippomobile, who each produced vehicles (usually adapted carriages or carts) powered by clumsy internal combustion engines.^[9]

In November 1881 French inventor Gustave Trouvé demonstrated a working three-wheeled automobile that was powered by electricity. This was at the International Exhibition of Electricity in Paris.^[10]

Although several other German engineers (including Gottlieb Daimler, Wilhelm Maybach, and Siegfried Marcus) were working on the problem at about the same time, Karl Benz generally is acknowledged as the inventor of the modern automobile.^[9]

An automobile powered by his own four-stroke cycle gasoline engine was built in Mannheim, Germany by Karl Benz in 1885 and granted a patent in January of the following year under the auspices of his major company, Benz & Cie., which was founded in 1883. It was an integral design, without the adaptation of other existing components and including several new technological elements to create a new concept. This is what made it worthy of a patent. He began to sell his production vehicles in 1888.

In 1879 Benz was granted a patent for his first engine, which had been designed in 1878. Many of his other inventions made the use of the internal combustion engine feasible for powering a vehicle.

His first Motorwagen was built in 1885 and he was awarded the patent for its invention as of his application on January 29, 1886. Benz began promotion of the vehicle on July 3, 1886 and approximately 25 Benz vehicles were sold between 1888 and 1893, when his first four-wheeler was introduced along with a model intended for affordability. They also were powered with four-stroke engines of his own design. Emile Roger of France, already producing Benz engines under license, now added the Benz automobile to his line of products. Because France was more open to the early automobiles, initially more were built and sold in France through Roger than Benz sold in Germany.

In 1896, Benz designed and patented the first internal-combustion flat engine, called a boxermotor in German. During the last years of the nineteenth century, Benz was the largest automobile company in the world with 572 units produced in 1899 and because of its size, Benz & Cie., became a joint-stock company.

Daimler and Maybach founded Daimler Motoren Gesellschaft (Daimler Motor Company, DMG) in Cannstatt in 1890 and under the brand name, Daimler, sold their first automobile in 1892, which was a horse-drawn stagecoach built by another manufacturer, that they retrofitted with an engine of their design. By 1895 about 30 vehicles had been built by Daimler and Maybach, either at the Daimler works or in the Hotel Hermann, where they set up shop after falling out with their backers. Benz and the Maybach and Daimler team seem to have been unaware of each other's early work. They never worked together because by the time of the merger of the two companies, Daimler and Maybach were no longer part of DMG.

Daimler died in 1900 and later that year, Maybach designed an engine named Daimler-Mercedes, that was placed in a specially-ordered model built to specifications set by Emil Jellinek. This was a production of a small number of vehicles for Jellinek to race and market in his country. Two years later, in 1902, a new model DMG automobile was produced and the model was named Mercedes after the Maybach engine which generated 35 hp. Maybach quit DMG shortly thereafter and opened a business of his own. Rights to the Daimler brand name were sold to other manufacturers.

Karl Benz proposed co-operation between DMG and Benz & Cie. when economic conditions began to deteriorate in Germany following the First World War, but the directors of DMG refused to consider it initially. Negotiations between the two companies resumed several years later when these conditions worsened and, in 1924 they signed an Agreement of Mutual Interest, valid until the year 2000. Both enterprises standardized design, production, purchasing, and sales and they advertised or marketed their automobile models jointly—although keeping their respective brands.

On June 28, 1926, Benz & Cie. and DMG finally merged as the Daimler-Benz company, baptizing all of its automobiles Mercedes Benz as a brand honoring the most important model of the DMG automobiles, the Maybach design later referred to as the 1902 Mercedes-35hp, along with the Benz name. Karl Benz remained a member of the board of directors of Daimler-Benz until his death in 1929 and at times, his two sons participated in the management of the company as well.

In 1890, Emile Levassor and Armand Peugeot of France began producing vehicles with Daimler engines and so laid the foundation of the automobile industry in France.

The first design for an American automobile with a gasoline internal combustion engine was drawn in 1877 by George Selden of Rochester, New York, who applied for a patent for an automobile in 1879, but the patent application expired because the vehicle was never built. After a delay of sixteen years and a series of attachments to his application, on November 5, 1895, Selden was granted a United States patent (U.S. Patent 549,160 ) for a two-stroke automobile engine, which hindered, more than encouraged, development of automobiles in the United States. His patent was challenged by Henry Ford and others, and overturned in 1911.

In Britain there had been several attempts to build steam cars with varying degrees of success with Thomas Rickett even attempting a production run in 1860.^[11] Santler from Malvern is recognized by the Veteran Car Club of Great Britain as having made the first petrol-powered car in the country in 1894^[12] followed by Frederick William Lanchester in 1895 but these were both one-offs.^[12] The first production vehicles in Great Britain came from the Daimler Motor Company, a company founded by Harry J. Lawson in 1896 after purchasing the right to use the name of the engines. Lawson's company made its first automobiles in 1897 and they bore the name Daimler.^[12]

In 1892, German engineer Rudolf Diesel was granted a patent for a "New Rational Combustion Engine". In 1897 he built the first Diesel Engine.^[9] Steam-, electric-, and gasoline-powered vehicles competed for decades, with gasoline internal combustion engines achieving dominance in the 1910s.

Although various pistonless rotary engine designs have attempted to compete with the conventional piston and crankshaft design, only Mazda's version of the Wankel engine has had more than very limited success.

Production

The large-scale, production-line manufacturing of affordable automobiles was debuted by Ransom Olds at his Oldsmobile factory in 1902. This concept was greatly expanded by Henry Ford, beginning in 1914.

As a result, Ford's cars came off the line in fifteen minute intervals, much faster than previous methods, increasing productivity eight fold (requiring 12.5 man-hours before, 1 hour 33 minutes after), while using less manpower.^[13] It was so successful, paint became a bottleneck. Only Japan black would dry fast enough, forcing the company to drop the variety of colors available before 1914, until fast-drying Duco lacquer was developed in 1926. This is the source of Ford's apocryphal remark, "any color as long as it's black".^[13] In 1914, an assembly line worker could buy a Model T with four months' pay.^[13]

Ford's complex safety procedures—especially assigning each worker to a specific location instead of allowing them to roam about—dramatically reduced the rate of injury. The combination of high wages and high efficiency is called "Fordism," and was copied by most major industries. The efficiency gains from the assembly line also coincided with the economic rise of the United States. The assembly line forced workers to work at a certain pace with very repetitive motions which led to more output per worker while other countries were using less productive methods.

In the automotive industry, its success was dominating, and quickly spread worldwide seeing the founding of Ford France and Ford Britain in 1911, Ford Denmark 1923, Ford Germany 1925; in 1921, Citroen was the first native European manufacturer to adopt the production method. Soon, companies had to have assembly lines, or risk going broke; by 1930, 250 companies which did not, had disappeared.^[13]

Development of automotive technology was rapid, due in part to the hundreds of small manufacturers competing to gain the world's attention. Key developments included electric ignition and the electric self-starter (both by Charles Kettering, for the Cadillac Motor Company in 1910-1911), independent suspension, and four-wheel brakes.

Since the 1920s, nearly all cars have been mass-produced to meet market needs, so marketing plans often have heavily influenced automobile design. It was Alfred P. Sloan who established the idea of different makes of cars produced by one company, so buyers could "move up" as their fortunes improved.

Reflecting the rapid pace of change, makes shared parts with one another so larger production volume resulted in lower costs for each price range. For example, in the 1930s, LaSalles, sold by Cadillac, used cheaper mechanical parts made by Oldsmobile; in the 1950s, Chevrolet shared hood, doors, roof, and windows with Pontiac; by the 1990s, corporate drivetrains and shared platforms (with interchangeable brakes, suspension, and other parts) were common. Even so, only major makers could afford high costs, and even companies with decades of production, such as Apperson, Cole, Dorris, Haynes, or Premier, could not manage: of some two hundred American car makers in existence in 1920, only 43 survived in 1930, and with the Great Depression, by 1940, only 17 of those were left.^[13]

In Europe much the same would happen. Morris set up its production line at Cowley in 1924, and soon outsold Ford, while beginning in 1923 to follow Ford's practise of vertical integration, buying Hotchkiss (engines), Wrigley (gearboxes), and Osberton (radiators), for instance, as well as competitors, such as Wolseley: in 1925, Morris had 41% of total British car production. Most British small-car assemblers, from Abbey to Xtra had gone under. Citroen did the same in France, coming to cars in 1919; between them and other cheap cars in reply such as Renault's 10CV and Peugeot's 5CV, they produced 550,000 cars in 1925, and Mors, Hurtu, and others could not compete.^[13] Germany's first mass-manufactured car, the Opel 4PS Laubfrosch (Tree Frog), came off the line at Russelsheim in 1924, soon making Opel the top car builder in Germany, with 37.5% of the market.^[13]

Fuel and propulsion technologies

Most automobiles in use today are propelled by gasoline (also known as petrol) or diesel internal combustion engines, which are known to cause air pollution and are also blamed for contributing to climate change and global warming.^[14] Increasing costs of oil-based fuels, tightening environmental laws and restrictions on greenhouse gas emissions are propelling work on alternative power systems for automobiles. Efforts to improve or replace existing technologies include the development of hybrid vehicles, and electric and hydrogen vehicles which do not release pollution into the air.

Petroleum fuels

Diesel

Diesel-engined cars have long been popular in Europe with the first models being introduced as early as 1922 ^[15] by Peugeot and the first production car, Mercedes-Benz 260 D in 1936 by Mercedes-Benz. The main benefit of diesel engines is a 50% fuel burn efficiency compared with 27%^[16] in the best gasoline engines. A down-side of the Diesel engine is that better filters are required to reduce the presence in the exhaust gases of fine soot particulates called diesel particulate matter. Manufacturers are now starting to fit^[when?] diesel particulate filters to remove the soot. Many diesel-powered cars can run with little or no modifications on 100% biodiesel and combinations of other organic oils.

Gasoline

Gasoline engines have the advantage over diesel in being lighter and able to work at higher rotational speeds and they are the usual choice for fitting in high-performance sports cars. Continuous development of gasoline engines for over a hundred years has produced improvements in efficiency and reduced pollution. The carburetor was used on nearly all road car engines until the 1980s but it was long realised better control of the fuel/air mixture could be achieved with fuel injection. Indirect fuel injection was first used in aircraft engines from 1909, in racing car engines from the 1930s, and road cars from the late 1950s.^[16] Gasoline Direct Injection (GDI) is now starting to appear in production vehicles such as the 2007 (Mark II) BMW Mini. Exhaust gases are also cleaned up by fitting a catalytic converter into the exhaust system. Clean air legislation in many of the car industries most important markets has made both catalysts and fuel injection virtually universal fittings. Most modern gasoline engines also are capable of running with up to 15% ethanol mixed into the gasoline - older vehicles may have seals and hoses that can be harmed by ethanol. With a small amount of redesign, gasoline-powered vehicles can run on ethanol concentrations as high as 85%. 100% ethanol is used in some parts of the world (such as Brazil), but vehicles must be started on pure gasoline and switched over to ethanol once the engine is running. Most gasoline engined cars can also run on LPG with the addition of an LPG tank for fuel storage and carburettor modifications to add an LPG mixer. LPG produces fewer toxic emissions and is a popular fuel for fork-lift trucks that have to operate inside buildings.

Biofuels

Ethanol, other alcohol fuels (biobutanol) and biogasoline have widespread use an automotive fuel. Most alcohols have less energy per liter than gasoline and are usually blended with gasoline. Alcohols are used for a variety of reasons - to increase octane, to improve emissions, and as an alternative to petroleum based fuel, since they can be made from agricultural crops. Brazil's ethanol program provides about 20% of the nation's automotive fuel needs, as a result of the mandatory use of E25 blend of gasoline throughout the country, 3 million cars that operate on pure ethanol, and 6 million dual or flexible-fuel vehicles sold since 2003.^[17] that run on any mix of ethanol and gasoline. The commercial success of "flex" vehicles, as they are popularly known, have allowed sugarcane based ethanol fuel to achieve a 50% market share of the gasoline market by April 2008.^[18][19][20]

Electric

The first electric cars were built around 1832, well before internal combustion powered cars appeared.^[21] For a period of time electrics were considered superior due to the silent nature of electric motors compared to the very loud noise of the gasoline engine. This advantage was removed with Hiram Percy Maxim's invention of the muffler in 1897. Thereafter internal combustion powered cars had two critical advantages: 1) long range and 2) high specific energy (far lower weight of petrol fuel versus weight of batteries). The building of battery electric vehicles that could rival internal combustion models had to wait for the introduction of modern semiconductor controls and improved batteries. Because they can deliver a high torque at low revolutions electric cars do not require such a complex drive train and transmission as internal combustion powered cars. Some post-2000 electric car designs such as the Venturi Fétish are able to accelerate from 0-60 mph (96 km/h) in 4.0 seconds with a top speed around 130 mph (210 km/h). Others have a range of 250 miles (400 km) on the United States Environmental Protection Agency‎ (EPA) highway cycle requiring 3-1/2 hours to completely charge.^[22] Equivalent fuel efficiency to internal combustion is not well defined but some press reports give it at around 135 miles per US gallon (1.74 L/100 km; 162 mpg_-imp).

Steam

Steam power, usually using an oil- or gas-heated boiler, was also in use until the 1930s but had the major disadvantage of being unable to power the car until boiler pressure was available (although the newer models could achieve this in well under a minute). It has the advantage of being able to produce very low emissions as the combustion process can be carefully controlled. Its disadvantages include poor heat efficiency and extensive requirements for electric auxiliaries.^[23].

Air

A compressed air car is an alternative fuel car that uses a motor powered by compressed air. The car can be powered solely by air, or by air combined (as in a hybrid electric vehicle) with gasoline/diesel/ethanol or electric plant and regenerative braking. Instead of mixing fuel with air and burning it to drive pistons with hot expanding gases; compressed air cars use the expansion of compressed air to drive their pistons. Several prototypes are available already and scheduled for worldwide sale by the end of 2008, though this has not happened as of January 2009. Companies releasing this type of car include Tata Motors and Motor Development International (MDI).

Gas turbine

In the 1950s there was a brief interest in using gas turbine engines and several makers including Rover and Chrysler produced prototypes. In spite of the power units being very compact, high fuel consumption, severe delay in throttle response, and lack of engine braking meant no cars reached production.

Rotary (Wankel) engines

Rotary Wankel engines were introduced into road cars by NSU with the Ro 80 and later were seen in the Citroën GS Birotor and several Mazda models. In spite of their impressive smoothness, poor reliability and fuel economy led to them largely disappearing. Mazda, beginning with the R100 then RX-2, has continued research on these engines, overcoming most of the earlier problems with the RX-7 and RX-8.

Rocket and jet cars

A rocket car holds the record in drag racing. However, the fastest of those cars are used to set the Land Speed Record, and are propelled by propulsive jets emitted from rocket, turbojet, or more recently and most successfully turbofan engines. The ThrustSSC car using two Rolls-Royce Spey turbofans with reheat was able to exceed the speed of sound at ground level in 1997.

Safety

There are three main statistics to which automobile safety can be compared:^[24]

Deaths per billion journeys
Bus: 4.3
Rail: 20
Van: 20
Car: 40
Foot: 40
Water: 90
Air: 117
Bicycle: 170
Motorcycle: 1640

Deaths per billion hours
Bus: 11.1
Rail: 30
Air: 30.8
Water: 50
Van: 60
Car: 130
Foot: 220
Bicycle: 550
Motorcycle: 4840

Deaths per billion kilometres
Air: 0.05
Bus: 0.4
Rail: 0.6
Van: 1.2
Water: 2.6
Car: 3.1
Bicycle: 44.6
Foot: 54.2
Motorcycle: 108.9

While road traffic injuries represent the leading cause in worldwide injury-related deaths,^[25] their popularity undermines this statistic.

Mary Ward became one of the first documented automobile fatalities in 1869 in Parsonstown, Ireland^[26] and Henry Bliss one of the United States' first pedestrian automobile casualties in 1899 in New York.^[27] There are now standard tests for safety in new automobiles, like the EuroNCAP and the US NCAP tests,^[28] as well as insurance-backed IIHS tests.^[29]

Costs and benefits

The neutrality of this section is disputed. Please see the discussion on the talk page. Please do not remove this message until the dispute is resolved. (December 2007)

The costs of automobile usage, which may include the cost of: acquiring the vehicle, repairs, maintenance, fuel, depreciation, parking fees, tire replacement, taxes and insurance,^[30] are weighed against the cost of the alternatives, and the value of the benefits - perceived and real - of vehicle usage. The benefits may include on-demand transportation, mobility, independence and convenience.^[7]

Similarly the costs to society of encompassing automobile use, which may include those of: maintaining roads, land use, pollution, public health, health care, and of disposing of the vehicle at the end of its life, can be balanced against the value of the benefits to society that automobile use generates. The societal benefits may include: economy benefits, such as job and wealth creation, of automobile production and maintenance, transportation provision, society wellbeing derived from leisure and travel opportunities, and revenue generation from the tax opportunities. The ability for humans to move flexibly from place to place has far reaching implications for the nature of societies. ^[31]

Environmental impact

The examples and perspective in this section may not represent a worldwide view of the subject. Please improve this article or discuss the issue on the talk page.

Transportation is a major contributor to air pollution in most industrialised nations. According to the American Surface Transportation Policy Project nearly half of all Americans are breathing unhealthy air. Their study showed air quality in dozens of metropolitan areas has got worse over the last decade.^[32] In the United States the average passenger car emits 11,450 lbs (5 tonnes) of carbon dioxide, along with smaller amounts of carbon monoxide, hydrocarbons, and nitrogen.^[33]

Animals and plants are often negatively impacted by automobiles via habitat destruction and pollution. Over the lifetime of the average automobile the "loss of habitat potential" may be over 50,000 square meters (538,195 square feet) based on Primary production correlations. ^[34]

Fuel taxes may act as an incentive for the production of more efficient, hence less polluting, car designs (e.g. hybrid vehicles) and the development of alternative fuels. High fuel taxes may provide a strong incentive for consumers to purchase lighter, smaller, more fuel-efficient cars, or to not drive. On average, today's automobiles are about 75 percent recyclable, and using recycled steel helps reduce energy use and pollution.^[35] In the United States Congress, federally mandated fuel efficiency standards have been debated regularly, passenger car standards have not risen above the 27.5 miles per US gallon (8.55 L/100 km; 33.0 mpg_-imp) standard set in 1985. Light truck standards have changed more frequently, and were set at 22.2 miles per US gallon (10.6 L/100 km; 26.7 mpg_-imp) in 2007.^[36] Alternative fuel vehicles are another option that is less polluting than conventional petroleum powered vehicles.

Other negative effects

Residents of low-density, residential-only sprawling communities are also more likely to die in car collisions, which kill 1.2 million people worldwide each year, and injure about forty times this number.^[25] Sprawl is more broadly a factor in inactivity and obesity, which in turn can lead to increased risk of a variety of diseases.^[37]

Future car technologies

Automobile propulsion technology under development include gasoline/electric and plug-in hybrids, battery electric vehicles, hydrogen cars, biofuels, and various alternative fuels.

Research into future alternative forms of power include the development of fuel cells, Homogeneous Charge Compression Ignition (HCCI), stirling engines^[38], and even using the stored energy of compressed air or liquid nitrogen.

New materials which may replace steel car bodies include duraluminum, fiberglass, carbon fiber, and carbon nanotubes.

Telematics technology is allowing more and more people to share cars, on a pay-as-you-go basis, through such schemes as City Car Club in the UK, Mobility in mainland Europe, and Zipcar in the US.

Alternatives to the automobile

Established alternatives for some aspects of automobile use include public transit (buses, trolleybuses, trains, subways, monorails, tramways), cycling, walking, rollerblading, skateboarding, horseback riding and using a velomobile. Car-share arrangements and carpooling are also increasingly popular–the U.S. market leader in car-sharing has experienced double-digit growth in revenue and membership growth between 2006 and 2007, offering a service that enables urban residents to "share" a vehicle rather than own a car in already congested neighborhoods.^[39] Bike-share systems have been tried in some European cities, including Copenhagen and Amsterdam. Similar programs have been experimented with in a number of U.S. Cities.^[40] Additional individual modes of transport, such as personal rapid transit could serve as an alternative to automobiles if they prove to be socially accepted.^[41]

See also

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v • d • e Automotive design Part of the Automobile series Body Framework Automobile platform • Body-on-frame • Bumper • Cabrio coach • Chassis • Continental tire • Crumple zone • Dagmar bumpers • Decklid • Fender • Fender skirts • Grille • Hood • Hood scoop • Monocoque construction • Overhang • Pillar • Pontoon fenders • Quarter panel • Shaker scoop • Spoiler • Subframe • Tonneau Compartments Trunk/Boot/Dickie • Hood/Bonnet Doors Butterfly doors • Gull-wing door • Scissor doors • Suicide door • Sliding doors • Canopy door Glass Greenhouse • Sunroof • Power window • Quarter glass • Windshield/Windscreen • Windshield/Windscreen wiper Other Curb feeler • Bumper sticker • Hood ornament • Japan Black paint • Monsoonshield • Nerf bar • Tire/Tyre • Tow hitch • Truck accessory Exterior Equipment Lighting Daytime running lamp • Headlamp • Hidden headlamps • High-intensity discharge lamp • Retroreflector • Sealed beam • Trafficators Legal and other Vehicle Identification Number • Vehicle registration plate • Vanity plate • Parktronic • Motor vehicle theft • Windshield/Windscreen washer fluid • Wing mirror Interior equipment Instruments Backup camera • Boost gauge • Buzzer • Carputer • Electronic instrument cluster • Fuel gauge • Global Positioning System and Automotive navigation system • Head-up display • Idiot light • Malfunction Indicator Lamp • Night vision • Odometer • Radar detector • LIDAR detector • Speedometer • Tachometer • Trip computer Controls Bowden cable • Cruise control (speed control) • Electronic throttle control • Gear stick • Hand brake • Manettino dial • Steering wheel • Throttle Theft deterrence Key • Car alarm • Immobiliser • Klaxon • Automatic vehicle location • VIN etching Safety & seating Airbag • Armrest • Automatic seat belt • Bench seat • Bucket seat • Child safety lock • Rumble seat • Seat belt Other Air conditioning • Ancillary power • Car audio • Car phone • Center console • Dashboard • Flat tire • Glove compartment • Motorola connector • Power steering • Rear-view mirror • Sun visor Portal • Category

v • d • e Car engine Part of the Automobile series Air/Fuel Air filter · Air fuel ratio meter · Automatic Performance Control · Blowoff valve · Boost · Boost controller · Butterfly valve · Carburetor · Charge cooler · Centrifugal type supercharger · Cold air intake · Engine management system · Engine Control Unit · Forced induction · Front mounted intercooler · Fuel filter · Fuel injection · Fuel pump · Fuel tank · Gasoline direct injection · Indirect injection · Intake · Intercooler · Manifold · Manifold vacuum · Mass flow sensor · Naturally-aspirated engine · Piston · Ram-air intake · Scroll-type supercharger · Short ram air intake · Supercharger · Throttle body · Top mounted intercooler · Turbocharger · Turbocharged Direct Injection · Twin-turbo · Variable Length Intake Manifold · Variable geometry turbocharger · Warm air intake Exhaust Catalytic converter · Emissions control devices · Exhaust pipe · Exhaust system · Glasspack · Muffler · Oxygen sensor Cooling Aircooling · Antifreeze · Ethylene glycol · Radiator · Thermostat Ignition system Starter · Car battery · Contact breaker · Distributor · Electrical ballast · Ignition coil · Lead-acid battery · Magneto · Spark-ignition · Spark plug Other Balance shaft · Block heater · Crank. Cam · Camshaft · Connecting rod · Combustion chamber · Crank pin · Crankshaft · Crossflow cylinder head · Crossplane · Desmodromic valve · Engine knocking · Compression ratio · Crank sensor · Cylinder · Cylinder bank · Cylinder block · Cylinder head · Cylinder head porting · Dump valve · Engine balance · Oil filter · Firing order · Freeze plug · Gasket · Head gasket · Hypereutectic piston · Hydrolock · Lean burn · Main bearing · Motor oil · Multi-valve · Oil sludge · Overhead camshaft · Overhead valve · PCV valve · Piston · Piston ring · Pneumatic valve gear · Poppet valve · Power band · Redline · Reverse-flow cylinder head · Rocker arm · Seal · Sleeve valve · Starter ring gear · Synthetic oil · Tappet · Timing belt · Timing mark · Top dead centre · Underdrive pulleys · Valve float · Variable valve timing Portal · Category

v • d • e Powertrain Part of the Automobile series Hybrid powertrains Hybrid vehicle drivetrain Wheels and Tires All-terrain tire · Bias-ply tire · Contact patch · Custom wheel · Drive wheel · Hubcap · Magnesium alloy wheel · Mud-terrain tyre · Paddle tires · Radial tire · Rostyle wheel · Run flat tire · Schrader valve · Slick tire · Spinner · Tire code · Tire pressure monitoring system · Tread · Treadwear rating · Whitewall tire · Wire wheels Transmission Automatic transmission · Clutch · Continuously variable transmission · Differential · Direct-Shift Gearbox · Driveshaft · Electrorheological clutch · Epicyclic gearing · Fluid coupling · Fully-automatic transmission · Gear stick · Gearbox · Hydramatic · Limited slip differential · Locking differential · Manual transmission · Multitronic · Roto Hydramatic · Saxomat · Semi-automatic transmission · Super Turbine 300 · Tiptronic · Torque converter · Transaxle · Transmission (mechanics) · Transmission Control Unit · Turbo-Hydramatic · Universal joint Steering Ackermann steering geometry · Camber angle · Car handling · Caster angle · Oversteer · Power steering · Rack and pinion · Toe angle · Torque steering · Understeer · Wheel alignment Suspension Axle · Beam axle · Coil spring · De Dion tube · Double wishbone · Electronic Stability Control · Hydragas · Hydrolastic · Hydropneumatic suspension · Independent suspension · Kingpin · Leaf spring · Live axle · MacPherson strut · Multi-link suspension · Panhard rod · Semi-trailing arm suspension · Shock absorber · Sway bar · Swing axle · Torsion beam suspension · Trailing arm · Unsprung weight · Watt's linkage · Wishbone suspension Brakes Anti-lock braking system · Disc brake · Drum brake · Electronic Stability Control · Hand brake · Hydraulic brake · Inboard brake · Brake lining · Brake fade · Brake fluid · Hydraulic fluid · Brake bleeding · Engine braking · Electronic brakeforce distribution · Regenerative brake Portal · Category

• Air pollution
• Bus
• Car classification
• Car donation
• Driving
• List of countries by automobile production
• List of countries by vehicles per capita
• Lists of automobiles
• Steering
• Society of Automotive Engineers
• Sustainable transport
• Truck
• U.S. Automobile Production Figures - production figures for each make from 1899 to 2000
• Vehicle-to-grid
• Vehicle-to-vehicle

References

Further reading

• Halberstam, David, The Reckoning, New York, Morrow, 1986. ISBN 0688048382
• Kay, Jane Holtz, Asphalt nation : how the automobile took over America, and how we can take it back, New York, Crown, 1997. ISBN 0517587025
• Heathcote Williams, Autogeddon, New York, Arcade, 1991. ISBN 1559701765

External links

Look up automobile in Wiktionary, the free dictionary.

Wikimedia Commons has media related to: Automobile

• Fédération Internationale de l'Automobile