Automobile air conditioning - wikipedia Automobile air conditioning 1953 Chrysler Imperial with factory trunk mounted `` Airtemp '' system Automobile air conditioning ( also called A / C ) systems use air conditioning to cool the air in a vehicle. Contents 1 History 1.1 Chrysler Airtemp 1.2 Nash integrated system 1.3 Growth in demand 1.4 Evaporative cooling 2 Operating principles 3 Power consumption 4 See also 5 References 6 External links History A company in New York City in the United States first offered installation of air conditioning for cars in 1933. Most of their customers operated limousines and luxury cars. In 1939, Packard became the first automobile manufacturer to offer an air conditioning unit in its cars. These were manufactured by Bishop and Babcock Co, of Cleveland, Ohio. The `` Bishop and Babcock Weather Conditioner '' also incorporated a heater. Cars ordered with the new `` Weather Conditioner '' were shipped from Packard 's East Grand Boulevard facility to the B&B factory where the conversion was performed. Once complete, the car was shipped to a local dealer where the customer would take delivery. Packard fully warranted and supported this conversion, and marketed it well. However, it was not commercially successful for a number of reasons : The main evaporator and blower system took up half of the trunk space ( though this became less of a problem as trunks became larger in the post-war period ). It was superseded by more efficient systems in the post-war years. It had no temperature thermostat or shut - off mechanism other than switching the blower off. ( Cold air would still sometimes enter the car with any movement as the drive belt was continuously connected to the compressor -- later systems would use electrically operated clutches to remedy this problem. ) The several feet of plumbing going back and forth between the engine compartment and trunk proved unreliable in service. The price, at US $274 ( $4,692.12 in 2014 US dollars ), was unaffordable to most people in post-depression / pre-war America. The option was discontinued after 1941. Chrysler Airtemp The 1953 Chrysler Imperial was one of the first production cars in twelve years to offer modern automobile air conditioning as an option, following tentative experiments by Packard in 1940 and Cadillac in 1941. Walter Chrysler had seen to the invention of Airtemp air conditioning in the 1930s for the Chrysler Building, and had offered it on cars in 1941 - 42, and again in 1951 - 52. The Airtemp was more advanced than rival automobile air conditioners by 1953. It was operated by a single switch on the dashboard marked with low, medium, and high positions. As the highest capacity unit available at that time, the system was capable of quickly cooling the passenger compartment and also reducing humidity, dust, pollen, and tobacco smoke. The system drew in more outside air than contemporary systems ; thus, reducing the staleness associated with automotive air conditioning at the time. Instead of plastic tubes mounted on the rear window package shelf as on GM cars, small ducts directed cool air toward the ceiling of the car where it filtered down around the passengers instead of blowing directly on them, a feature that modern cars have lost. Cadillac, Buick, and Oldsmobile added air conditioning as an option on some of their models in the 1953 model year. All of these Frigidaire systems used separate engine and trunk mounted components. Nash integrated system Logo on a 1957 car with AMC factory installed air - conditioning system In 1954, the Nash Ambassador was the first American automobile to have a front - end, fully integrated heating, ventilating, and air - conditioning system. The Nash - Kelvinator corporation used its experience in refrigeration to introduce the automobile industry 's first compact and affordable, single - unit heating and air conditioning system optional for its Nash models. This was the first mass market system with controls on the dash and an electric clutch. This system was also compact and serviceable with all of its components installed under the hood or in the cowl area. Combining heating, cooling, and ventilating, the new air conditioning system for the Nash cars was called the `` All - Weather Eye ''. This followed the marketing name of `` Weather Eye '' for Nash 's fresh - air automotive heating and ventilating system that was first used in 1938. With a single thermostatic control, the Nash passenger compartment air cooling option was `` a good and remarkably inexpensive '' system. The system had cold air for passengers enter through dash - mounted vents. Nash 's exclusive `` remarkable advance '' was not only the `` sophisticated '' unified system, but also its $345 price that beat all other systems. Most competing systems used a separate heating system and an engine - mounted compressor, driven by the engine crankshaft via a belt, with an evaporator in the car 's trunk to deliver cold air through the rear parcel shelf and overhead vents. General Motors made a front - mounted air conditioning system optional in 1954 on Pontiacs with a straight - eight engine that added separate controls and air distribution. The alternative layout pioneered by Nash `` became established practice and continues to form the basis of the modern and more sophisticated automatic climate control systems. '' Growth in demand Air - conditioning for automobiles came into wide use from the late twentieth century. Although air conditioners use significant power ; the drag of a car with closed windows is less than if the windows are open to cool the occupants. There has been much debate on the effect of air conditioning on the fuel efficiency of a vehicle. Factors such as wind resistance, aerodynamics and engine power and weight must be considered, to find the true difference between using the air conditioning system and not using it, when estimating the actual fuel mileage. Other factors can affect the engine, and an overall engine heat increase can affect the cooling system of the vehicle. The innovation was adopted quickly and new features to air conditioning like the Cadillac Comfort Control which was a completely automatic heating and cooling system set by dial thermostat was introduced as an industry first in the 1964 model year. By 1960 about 20 % of all cars in the U.S. had air - conditioning, with the percentage increasing to 80 % in the warm areas of the Southwest. American Motors made air conditioning standard equipment on all AMC Ambassadors starting with the 1968 model year, a first in the mass market, with a base price starting at $2,671. By 1969, 54 % of domestic automobiles were equipped with air conditioning, with the feature needed not only for passenger comfort, but also to increase the car 's resale value. Evaporative cooling Main article : Car cooler A car cooler A car cooler is an automobile evaporative cooler, sometimes referred to as a swamp cooler. Most are aftermarket relatively inexpensive accessories consisting of an external window - mounted metal cylinder without moving parts, but internal under dashboard or center floor units with an electric fan are available. It was an early type of automobile air conditioner and is not used in modern cars relying on refrigerative systems to cool the interior. To cool the air it used latent heat ( in other words, cooling by water evaporation ). Water inside the device evaporates and in the process transfers heat from the surrounding air. The cool moisture - laden air is then directed to the inside of the car. The evaporate `` cooling '' effect decreases with humidity because the air already saturated with water. Therefore, the lower humidity, such as in dry desert regions, the better the system works. Car coolers were popular, especially among summer tourists visiting or crossing the southwestern United States states of California, Arizona, Texas, New Mexico, and Nevada. Operating principles See also : Refrigeration cycle A simple stylized diagram of the refrigeration cycle : 1 ) condensing coil, 2 ) expansion valve, 3 ) evaporator coil, 4 ) compressor Regassing the air conditioning of a Ford Focus. In the refrigeration cycle, heat is transported from the passenger compartment to the environment. A refrigerator is an example of such a system, as it transports the heat out of the interior and into the ambient environment. Circulating refrigerant gas vapor ( which also carries the compressor lubricant oil across the system along with it ) from the evaporator enters the gas compressor in the engine bay, usually an axial piston pump compressor, and is compressed to a higher pressure, resulting in a higher temperature as well. The hot, compressed refrigerant vapor is now at a temperature and pressure at which it can be condensed and is routed through a condenser, usually in front of the car 's radiator. Here the refrigerant is cooled by air flowing across the condenser coils ( originating from the vehicle 's movement or from a fan, often the same fan of the cooling radiator if the condenser is mounted on it, automatically turned on when the vehicle is stationary or moving at low speeds ) and condensed into a liquid. Thus, the circulating refrigerant rejects heat from the system and the heat is carried away by the air. The condensed and pressurized liquid refrigerant is next routed through the receiver - drier, that is, a one way desiccant and filter cartridge that both dehydrates the refrigerant and compressor lubricant oil mixture in order to remove any residual water content ( which would become ice inside the expansion valve and therefore clog it ) that the vacuum done prior to the charging process did n't manage to remove from the system, and filters it in order to remove any solid particles carried by the mixture, and then through a thermal expansion valve where it undergoes an abrupt reduction in pressure. That pressure reduction results in flash evaporation of a part of the liquid refrigerant, lowering its temperature. The cold refrigerant is then routed through the evaporator coil in the passenger compartment. The air, often after being filtered by a cabin air filter, is blowed by an adjustable speed electric powered centrifugal fan across the evaporator, causing the liquid part of the cold refrigerant mixture to evaporate as well, further lowering the temperature. The warm air is therefore cooled, and also deprived of any humidity ( which condenses on the evaporator coils and is drained outside of the vehicle ) in the process. It is then passed through an heater matrix, inside of which the engine 's coolant circulates, where it can be reheated to a certain degree or even a certain temperature selected by the user and then delivered inside the vehicle 's cabin through a set of adjustable vents. Another way of adjusting the desired air temperature, this time by working on the system 's cooling capacity, is precisely regulating the centrifugal fan speed so that only the strictly required volumetric flow rate of air is cooled by the evaporator. The user is also given the option to close the vehicle 's external air flaps, in order to achieve even faster and stronger cooling by recirculating the already cooled air inside the cabin to the evaporator. To complete the refrigeration cycle, the refrigerant vapor is routed back into the compressor. The warmer is the air that reaches the evaporator, the higher is the pressure of the vapor mixture discharged from it and therefore the higher is the load placed on the compressor and therefore on the engine to keep the refrigerant flowing through the system. The compressor can be driven by the car 's engine ( e.g. via a belt, often the serpentine belt, and an electromagnetically actuated clutch ; an electronically actuated variable displacement compressor can also be always directly driven by a belt without the need of any clutch and magnet at all ) or by an electric motor. Power consumption In a modern automobile, the A / C system will use around 4 horsepower ( 3 kW ) of the engine 's power, thus increasing fuel consumption of the vehicle. See also Sustainable automotive air conditioning References Jump up ^ `` First Air Conditioned Auto ''. Popular Science. 123 ( 5 ) : 30. November 1933. Retrieved 16 April 2015. Jump up ^ `` Michigan Fast Facts and Trivia ''. 50states.com. Retrieved 16 April 2015. Jump up ^ Alder, Dennis ( 2004 ). Packard. MBI Publishing. p. 76. ISBN 978 - 0 - 7603 - 1928 - 4. ^ Jump up to : Langworth, Richard M. ( 1994 ). Chrysler and Imperial : The Postwar Years. Motorbooks International. ISBN 0 - 87938 - 034 - 9. Jump up ^ `` 1953 Cadillac Brochure ''. oldcarbrochures.org. p. 5. Archived from the original on 7 February 2015. Retrieved 16 April 2015. Jump up ^ `` 1953 - Buick Heating and AC Folder ''. oldcarbrochures.org. pp. 10 -- 11. Retrieved 16 April 2015. Jump up ^ `` 1953 Oldsmobile Brochure ''. oldcarbrochures.org. p. 23. Retrieved 16 April 2015. Jump up ^ `` Nash Low Cost Air Conditioner Cools or Heats by Turning Knob ''. Popular Mechanics. 101 ( 5 ) : 86. May 1954. Retrieved 16 April 2015. Jump up ^ `` One Control Heating Cooling ''. Motor. 101 : 54. 1954. Retrieved 16 April 2015. Jump up ^ Gunnell, John, ed. ( 1987 ). The Standard Catalog of American Cars 1946 -- 1975. Krause Publications. p. 176. ISBN 978 - 0 - 87341 - 096 - 0. Jump up ^ Daly, Steven ( 2006 ). Automotive Air - Conditioning and Climate Control Systems. Elsevier Science & Technology Books. p. 2. ISBN 978 - 0 - 7506 - 6955 - 9. Retrieved 16 April 2015. ^ Jump up to : Wolfe, Steven J. ( 2000 ). `` HVAC Time Line ''. Refrigeration Service Engineers Society Twin Cities Chapter. Archived from the original on 21 November 2009. Retrieved 16 April 2015. Jump up ^ `` News of the Automotive World - Nash Air Conditioner Combines Heating, Cooling, and Ventilating ''. Automotive Industries. 110 : 86. 1954. Retrieved 16 April 2015. Jump up ^ Stevenson, Heon J. ( 2008 ). American Automobile Advertising, 1930 -- 1980 : An Illustrated History. McFarland. p. 177. ISBN 978 - 0 - 7864 - 3685 - 9. Retrieved 16 April 2015. Jump up ^ Binder, Al ; the Ward 's staff ( 2 February 2001 ). `` Rearview Mirror ''. Ward 's AutoWorld. Retrieved 16 April 2015. Jump up ^ Auto Editors of Consumer Guide ( 29 November 2007 ). `` 1953 -- 1955 Nash and Hudson Ramblers ''. auto.howstuffworks.com. Retrieved 16 April 2015. Jump up ^ Nunney, Malcolm J. ( 2006 ). Light and Heavy Vehicle Technology. Elsevier Science & Technology Books. p. 147. ISBN 978 - 0 - 7506 - 8037 - 0. Jump up ^ https://www.gmheritagecenter.com/docs/gm-heritage-archive/vehicle-information-kits/Cadillac/1964_Cadillac_VVI.pdf Jump up ^ Nash, Gerald D. ( 1999 ). Federal Landscape : An Economic History of the Twentieth - Century West. University of Arizona Press. p. 224. ISBN 978 - 0 - 8165 - 1863 - 0. Jump up ^ Lintern, Mike ( 1977 ). Complete guide to American cars, 1966 - 76. AutoMedia. p. 32. ISBN 9780905395012. Retrieved 16 April 2015. Jump up ^ `` U.S. Business : Shuffle & Cut ''. Time. 6 October 1967. Retrieved 16 April 2015. Jump up ^ `` Air Conditioning and Refrigeration Timeline ''. National Academy of Engineering. Retrieved 16 April 2015. Jump up ^ Hinckley, p. 54 ``... it was actually an evaporative cooler - something Californians and Southwesterners have on the roofs of their houses and often call ' swamp coolers ' or ' swampies ''. '' Jump up ^ Heitmann, John Alfred ( 2009 ). The Automobile and American Life. McFarland. p. 151. ISBN 9781476601991. Retrieved 16 April 2015. Jump up ^ Watt, John R. ( 1963 ). Evaporative Air Conditioning. Industrial Press. p. 93. Retrieved 13 August 2017. ^ Jump up to : Watt, John R. ( 1986 ). Evaporative Air Conditioning Handbook ( Second ed. ). Springer. ISBN 9781461293873. Retrieved 13 August 2017. Jump up ^ Hinckley, p. 54 ^ Jump up to : Sibley, p. 221 Jump up ^ `` The Easy Way ''. Popular Mechanics. 75 ( 5 ) : 676 -- 677. May 1941. Retrieved 16 April 2015. Jump up ^ `` Impact of Vehicle Air - Conditioning on Fuel Economy '' ( PDF ). National Renewable Energy Laboratory. Retrieved 16 April 2015. External links `` Air Conditioners for Your Car ''. Popular Science. 194 ( 4 ) : 117 -- 132, includes detailed drawings. April 1969. Retrieved 16 April 2015. Heating, ventilation and air conditioning Fundamental concepts Air changes per hour Bake - out Building envelope Convection Dilution Domestic energy consumption Enthalpy Fluid dynamics Gas compressor Heat pump and refrigeration cycle Heat transfer Humidity Infiltration Latent heat Noise control Outgassing Particulates Psychrometrics Sensible heat Stack effect Thermal comfort Thermal destratification Thermal mass Thermodynamics Vapour pressure of water Technology Absorption refrigerator Air barrier Air conditioning Antifreeze Automobile air conditioning Autonomous building Building insulation materials Central heating Central solar heating Chilled beam Chilled water Constant air volume ( CAV ) Coolant Dedicated outdoor air system ( DOAS ) Deep water source cooling Demand - controlled ventilation ( DCV ) Displacement ventilation District cooling District heating Electric heating Energy recovery ventilation ( ERV ) Firestop Forced - air Forced - air gas Free cooling Heat recovery ventilation ( HRV ) Hybrid heat Hydronics HVAC Ice storage air conditioning Kitchen ventilation Mixed - mode ventilation Microgeneration Natural ventilation Passive cooling Passive house Radiant heating and cooling system Radiant cooling Radiant heating Radon mitigation Refrigeration Renewable heat Room air distribution Solar air heat Solar combisystem Solar cooling Solar heating Thermal insulation Underfloor air distribution Underfloor heating Vapor barrier Vapor - compression refrigeration ( VCRS ) Variable air volume ( VAV ) Variable refrigerant flow ( VRF ) Ventilation Components Air conditioner inverter Air door Air filter Air handler Air ionizer Air - mixing plenum Air purifier Air source heat pumps Automatic balancing valve Back boiler Barrier pipe Blast damper Boiler Centrifugal fan Chiller Condensate pump Condenser Condensing boiler Convection heater Cooling tower Damper Dehumidifier Duct Economizer Electrostatic precipitator Evaporative cooler Evaporator Exhaust hood Expansion tank Fan coil unit Fan heater Fire damper Fireplace Fireplace insert Freeze stat Flue Freon Fume hood Furnace Furnace room Gas compressor Gas heater Gasoline heater Geothermal heat pump Grease duct Grille Ground - coupled heat exchanger Heat exchanger Heat pipe Heat pump Heating film Heating system High efficiency glandless circulating pump High - efficiency particulate air ( HEPA ) High pressure cut off switch Humidifier Infrared heater Inverter compressor Kerosene heater Louver Mechanical fan Mechanical room Oil heater Packaged terminal air conditioner Plenum space Pressurisation ductwork Process duct work Radiator Radiator reflector Recuperator Refrigerant Register Reversing valve Run - around coil Scroll compressor Solar chimney Solar - assisted heat pump Space heater Smoke exhaust ductwork Thermal expansion valve Thermal wheel Thermosiphon Thermostatic radiator valve Trickle vent Trombe wall Turning vanes Ultra-low particulate air ( ULPA ) Whole - house fan Windcatcher Wood - burning stove Measurement and control Air flow meter Aquastat BACnet Blower door Building automation Carbon dioxide sensor Clean Air Delivery Rate ( CADR ) Gas sensor Home energy monitor Humidistat HVAC control system Intelligent buildings LonWorks Minimum efficiency reporting value ( MERV ) OpenTherm Programmable communicating thermostat Programmable thermostat Psychrometrics Room temperature Smart thermostat Thermostat Thermostatic radiator valve Professions, trades, and services Architectural acoustics Architectural engineering Architectural technologist Building services engineering Building information modeling ( BIM ) Deep energy retrofit Duct leakage testing Environmental engineering Hydronic balancing Kitchen exhaust cleaning Mechanical engineering Mechanical, electrical, and plumbing Mold growth, assessment, and remediation Refrigerant reclamation Testing, adjusting, balancing Industry organizations ACCA AMCA ASHRAE ASTM International BRE BSRIA CIBSE LEED SMACNA Health and safety Indoor air quality ( IAQ ) Passive smoking Sick building syndrome ( SBS ) Volatile organic compound ( VOC ) See also ASHRAE Handbook Building science Fireproofing Glossary of HVAC terms Template : Home automation Template : Solar energy Retrieved from `` https://en.wikipedia.org/w/index.php?title=Automobile_air_conditioning&oldid=804386771 '' Categories : Heating, ventilating, and air conditioning Automotive cooling systems Hidden categories : Use dmy dates from April 2014 Talk Contents About Wikipedia Deutsch Español Français Italiano 日本 語 Русский 中文 Edit links This page was last edited on 8 October 2017, at 17 : 36. 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Question: when did air conditioning became standard in cars
Answer: late twentieth century