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Automotive engine

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31: 266:. One of the most popular steam automobiles was the “Stanley Steamer,” offering low pollution, power, and speed. The downside of these steam automobiles is the unreliability, complexity, and the frequent accidents that occurred with them. The startup time for a steam car may take up to 45 minutes, defeating the purpose of faster transportation. By the time the steam automobile was improved, the complexity of manufacturing relative to the gas automobiles made steam automobiles unprofitable. 338:. Previously, the abundant gasoline had become the prime source of fuel for vehicles. But after the shortage, manufacturers began looking towards electric vehicles again. Despite the improved technology from the 1800s, the electric vehicles faced similar technological flaws such as limited mileage and speed. They could only travel up to 45 miles per hour and had a range of approximately 40 miles. 232:
gasoline engines became popular, they were not particularly desirable due to the dangers of fuel leaks that may cause explosions. Therefore, many inventors attempted to create a kerosene burning engine as a result. This was not a successful venture applying it for automotive usage. There are many different types of fuels for internal combustion engines. These include
110:) in advanced designs resulting from substantial investments in development research by European countries and Japan seemed to give an advantage to them over Chinese automakers and parts suppliers who, as of 2013, had low development budgets and lacked capacity to produce parts for high-tech engine and power train designs. 330:
is generally cheaper but the components required to run it in an electric vehicle such as the controller and inverter makes it more expensive than the DC motor. A unique feature of electric vehicles compared to its gasoline counterparts, the electric vehicle is more simple than the gasoline vehicle.
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in efficiency. Steam has been known to have very efficient fuel economy with a high power source. That is why half the world was powered by steam for almost the entirety of the 19th century and almost half the 20th century. The main drawback of the steam engine in automobiles was that operators were
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was a popular fuel for French and German automobiles, but as governments imposed large taxes on the production, the price of wood alcohol rose above that of gasoline. Gasoline engines became popular as a result of this, as internal combustion engines were commonly known as gasoline engines. Although
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seemed to be the most viable option, similar to the steam automobiles. They were first invented in the early 1800s, and became a viable option of transportation around 1890, when William Morrison created the first electric car that traveled 14 miles per hour. The electric cars offered low pollution
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quickly became the choice of manufacturers and consumers alike. Despite the rough start, noisy and dirty engine, and the difficult gear shifting, new technologies such as the production line and the advancement of the engine allowed the standard production of the gas automobiles. This is the start,
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being pushed by the pressure of a certain explosion. This explosion is burning the hydrocarbon within the cylinder of an engine. Out of all the cars manufactured during the time, only around one fourth are actually considered internal combustion. Within the next couple of years, the internal
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and a soundless ride, unlike their gasoline counterparts. The greatest downside of electric cars was the range. The typical electric car could reach around 20 miles before requiring a recharge. Manufacturers could not increase the number of batteries, due to the bulkiness of the
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invented a new form of internal combustion power, using a concept of injecting liquid fuel into air heated solely by compression. This is the predecessor to the modern diesel engine used in automobiles, but more specifically, heavy duty vehicles such as semi-trucks.
220:, allowing the engine to be started without the need for a mechanical hand crank. The abundance of fuel propelled gas automobiles to be highly capable and affordable. The demand of gasoline rose from 3 billion barrels in 1919 to around 15 billion in 1929. 331:
The electric vehicle bypasses the gasoline car components such as the crankshaft which allows it to generate power much faster than gasoline. Because of the faster transfer of power, the electric vehicle is able to accelerate faster than gasoline cars.
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from the invention of the gas automobile in 1876, to the beginning of mass production in the 1890s. Henry Ford's Model T drove down the price of cars to a more affordable price. At the same time, Charles Kettering invented an
98:. With no compelling advantage for any particular option, car makers pursued parallel development tracks using a variety of options. Reducing the weight of vehicles was one strategy being employed. 164:(ICE), became dominant. In 2015, the internal combustion engine remains the most widely used but a resurgence of electricity seems likely because of increasing concern about ic engine 227:
gases fuels. To elaborate, an internal combustion used the heat of a combustion created by the injected hydrocarbon fuel to create mechanical motion. At the time of the early 1900s,
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A steam engine is a device which transforms heat into mechanical motion. This is provided with the usage of boilers, which create steam by boiling water. In the early 1900s,
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Melosi, M. (2004). Automobile and the Environment in American History: Energy Use and the Internal Combustion Engine. Autolife.umd.umich.edu. Retrieved 28 March 2017, from
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required to have full knowledge of boilers and steam engines before operating, as it was detrimental to the engine itself if the operator neglected it.
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Schwitters, C. (2017). AC versus DC charging - what is the difference - Plug In America. Plug In America. Retrieved 11 April 2017, from
500: 183:. The internal combustion engines of the time were powered by gasoline. Internal combustion engines function with the concept of a 134:. This is achieved by using a high rotational speed. However, automotive engines are sometimes modified for marine use, forming a 300:
at the time. Without an incentive to purchase the electric automobiles, gas automobiles were the most viable option at the time.
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Cummins Jr., Lyle C. (1976) Early IC and Automotive Engines. SAE Technical Papers. Wilsonville: Carnot Press, 760604, 1976.
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Alternative Fuels Data Center: How Do All-Electric Cars Work?. (2017). Afdc.energy.gov. Retrieved 9 April 2017, from
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petrol engine from 2008 seen here, have been the dominant propulsion system for most of the history of automobiles
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https://play.google.com/store/books/details/Alfred_B_Chambers_Lee_s_American_Automobile_Manual?id=_lYF6H7Q0GYC
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Chambers, A. (1902). Lee's American Automobile Handbook (1st ed.). Chicago: Laird & Lee. Retrieved from
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introduced a steam-powered car in the United States which had capabilities that could potentially overpower
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combustion engine came out to become the most popular automotive engine. Sometime within the 19th century,
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How Do Battery Electric Cars Work?. (2017). Union of Concerned Scientists. Retrieved 11 April 2017, from
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An internal combustion engine is powered by the expansion of gas which is created by the combustion of
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http://www.ucsusa.org/clean-vehicles/electric-vehicles/how-do-battery-electric-cars-work#.WOqfj_
384:"Propulsion systems The great powertrain race Carmakers are hedging their bets on powering cars" 422:
L. Collier, James. (2006) Steam Engines. 1st ed. Tarrytown: Cavendish Square Publishing, 2006.
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available or potentially available for automobiles and other vehicles. Options included
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was invented in the late 1700s, and the primary method of powering engines and soon,
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powered. In the early 1900s, the internal combustion engines faced competition from
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The History of the Electric Car. (2014). Energy.gov. Retrieved 28 March 2017, from
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is the sort of system that is required to run it in an electric vehicle. An
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http://www.autolife.umd.umich.edu/Environment/E_Overview/E_Overview3.htm
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In the 1970s, the electric vehicle made its reappearance because of the
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Geoghegan, J. (2017). Full Steam Ahead. American History, (1), 26-31.
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http://www.afdc.energy.gov/vehicles/how-do-all-electric-cars-work
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Internal combustion engines, like this 1.6 litre (98 cubic inch)
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https://pluginamerica.org/ac-versus-dc-charging-what-difference/
314:. The battery delivers the power to the motor, which is either 184: 160:
were tried, but with limited success. In the 20th century, the
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As of 2017, the majority of the cars in the United States are
357:"Trucking Industry Is Set to Expand Its Use of Natural Gas" 90:. Some options required construction of a network of 461: 459: 457: 355:
Cardwell, Diane; Krauss, Clifford (April 22, 2013).
454: 523: 438:https://energy.gov/articles/history-electric-car 106:The use of high-technology (such as electronic 354: 201: 376: 432: 430: 428: 118:The chief characteristic of an automotive 409: 407: 29: 425: 348: 14: 524: 416: 404: 101: 322:(DC). The difference between AC and 24: 281: 113: 25: 553: 392:(print ed.). April 20, 2013 247: 506: 493: 196: 481: 472: 442: 254:History of steam road vehicles 13: 1: 341: 42:There are a wide variety of 7: 202:Internal combustion engines 48:internal combustion engines 10: 558: 285: 251: 208:Internal combustion engine 205: 162:internal combustion engine 145: 141: 148:History of the automobile 136:marine automobile engine 27:Car and truck technology 310:which is used to power 306:use batteries to store 39: 336:1973 OPEC Oil Embargo 132:power-to-weight ratio 33: 152:In the early years, 108:engine control units 316:Alternating Current 102:Recent developments 537:Vehicle technology 362:The New York Times 76:fuel cell vehicles 44:propulsion systems 40: 542:Engine technology 293:Electric vehicles 124:stationary engine 96:charging stations 18:Automobile engine 16:(Redirected from 549: 516: 510: 504: 497: 491: 485: 479: 476: 470: 463: 452: 446: 440: 434: 423: 420: 414: 411: 402: 401: 399: 397: 380: 374: 373: 371: 369: 352: 218:electric starter 21: 557: 556: 552: 551: 550: 548: 547: 546: 522: 521: 520: 519: 511: 507: 498: 494: 486: 482: 477: 473: 464: 455: 447: 443: 435: 426: 421: 417: 412: 405: 395: 393: 382: 381: 377: 367: 365: 353: 349: 344: 312:electric motors 290: 284: 282:Electric motors 256: 250: 210: 204: 199: 181:electric motors 158:electric motors 150: 144: 122:(compared to a 116: 114:Characteristics 104: 72:plug-in hybrids 68:hybrid vehicles 28: 23: 22: 15: 12: 11: 5: 555: 545: 544: 539: 534: 518: 517: 505: 492: 480: 471: 453: 441: 424: 415: 403: 375: 346: 345: 343: 340: 320:Direct Current 288:Electric motor 286:Main article: 283: 280: 275:Ford's Model T 252:Main article: 249: 246: 213:Petrol engines 206:Main article: 203: 200: 198: 195: 146:Main article: 143: 140: 115: 112: 103: 100: 26: 9: 6: 4: 3: 2: 554: 543: 540: 538: 535: 533: 530: 529: 527: 515: 509: 502: 496: 490: 484: 475: 468: 462: 460: 458: 451: 445: 439: 433: 431: 429: 419: 410: 408: 391: 390: 389:The Economist 385: 379: 364: 363: 358: 351: 347: 339: 337: 332: 329: 325: 321: 317: 313: 309: 305: 304:Electric cars 301: 299: 294: 289: 279: 276: 272: 267: 265: 261: 255: 248:Steam engines 245: 243: 239: 235: 230: 226: 221: 219: 214: 209: 194: 191: 190:Rudolf Diesel 186: 182: 178: 177:steam engines 174: 169: 167: 163: 159: 155: 154:steam engines 149: 139: 137: 133: 129: 128:marine engine 125: 121: 111: 109: 99: 97: 93: 89: 85: 84:electric cars 81: 77: 73: 69: 65: 61: 57: 53: 49: 45: 37: 32: 19: 508: 495: 483: 474: 444: 418: 394:. Retrieved 387: 378: 366:. Retrieved 360: 350: 333: 302: 291: 268: 260:steam engine 257: 229:wood alcohol 222: 211: 197:Engine types 170: 151: 130:) is a high 117: 105: 41: 308:electricity 271:Abner Doble 264:locomotives 225:hydrocarbon 168:emissions. 166:exhaust gas 64:natural gas 532:Propulsion 526:Categories 342:References 78:fueled by 50:fueled by 396:April 19, 368:April 23, 324:DC motors 298:batteries 88:batteries 328:AC motor 318:(AC) or 238:gasoline 173:gasoline 82:and all 80:hydrogen 242:ethanol 142:History 92:fueling 60:propane 36:Renault 240:, and 234:diesel 185:piston 120:engine 56:diesel 52:petrol 503:krK70 126:or a 62:, or 398:2013 370:2013 258:The 179:and 156:and 94:or 528:: 456:^ 427:^ 406:^ 386:. 359:. 244:. 236:, 138:. 74:, 70:, 66:; 58:, 54:, 469:. 400:. 372:. 20:)

Index

Automobile engine

Renault
propulsion systems
internal combustion engines
petrol
diesel
propane
natural gas
hybrid vehicles
plug-in hybrids
fuel cell vehicles
hydrogen
electric cars
batteries
fueling
charging stations
engine control units
engine
stationary engine
marine engine
power-to-weight ratio
marine automobile engine
History of the automobile
steam engines
electric motors
internal combustion engine
exhaust gas
gasoline
steam engines

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