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HEV电加热能量对三元催化器转化效率、油耗和排放的影响 被引量:4

Impact Analysis of Heated Energy in HEV for Three Way Catalyst's Efficiency,Fuel Consumption and Emission
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摘要 对混合动力汽车电加热型三元催化器冷起动阶段的催化过程进行了分析,建立了适用于开发整车控制策略的三元催化器动力学模型。在此基础之上,通过对混合动力汽车运行工况的模拟,对影响三元催化器起燃的加热功率和位置等因素进行了研究,分析了电加热能量对电池荷电状态、整车油耗和排放的影响。结果表明,混合动力汽车采用电加热方式不会造成电池过放电,能以微小的燃油消耗为代价,有效加快三元催化器起燃,提高冷起动阶段的HC/CO转化效率。 The catalytic mechanism of electrically heated three way catalyst converter for HEV was analyzed and the control-oriented dynamic model of catalyst converter was created. Then, the operation of the vehicle was simulated. Some factors which can affect the catalytic converter's light-off time, such as electrically heated power capacity and location, were investigated systematically. The simulation was accomlished in NEDC(new European driving cycle).Effects of electrically heated energy for the battery's state of charge, the vehicle's fuel comsumption and emissions were analyzed. Simulation results show that electrically heated source equipped in HEV can increase the light-off of catalytic converters effectively with tiny price of fuel consumption, improve the HC/CO catalytic efficiency during the period of cold start and depletion of battery can be avoided.
出处 《中国机械工程》 EI CAS CSCD 北大核心 2013年第18期2533-2538,共6页 China Mechanical Engineering
基金 国家自然科学基金资助项目(51305472) 重庆市重大科技攻关计划资助项目(CSTC2008AA6025)
关键词 混合动力汽车 三元催化器 电加热 起燃时间 冷起动 hybrid electric vehicle(HEV) three way catalyst(TWC) electrically heated light off cold start
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参考文献13

  • 1周毅,刘新宇,高卫民.三元催化器冷起动研究分析[J].内燃机工程,2002,23(3):43-45. 被引量:19
  • 2Collins N R,Twigg V. Three—way Catalyst Emis-sions Control Technologies for Spark—ignition En-gines—recent Trends and Future Developments[J].Topics in Catalysis,2007,42/43(1/4) : 323-332.
  • 3梁海波,高卫民,朱军,王晓明.混合动力Start/Stop控制策略对整车排放影响的研究[J].内燃机工程,2008,29(2):15-18. 被引量:12
  • 4Yu S, Dong G,Li L. Transient Characteristics ofEmissions During Engine Start/Stop Operation Em-ploying a Conventional Gasoline Engine for HEVApplication[J]. International Journal of AutomotiveTechnology, 2008,9(5) :543-549.
  • 5Brandt E P,Wang Yanying, Grizzle J W. DynamicModeling of a Three — way Catalyst for SI EngineExhausts Emission Control[J]. IEEE Transactionson Control Systems Technology, 2000,8(5) : 767-.
  • 6OH S H,Bissett E J. Mathematical Modeling ofElectrically Heated Monolith Converters: Analysisof Design Aspects and Heating Strategy[J]. Indus-trial and Engineering Chemistry Research, 1994,33(12):3086-3093.
  • 7Kirchner T,Eigenberger G. Optimization of theCold_ start Behavior of Automotive Catalysts Usingan Electrically Heated Pre—catalyst[J]. ChemicalEngineering Science, 1996, 51(10) : 2409-2418.
  • 8Horng R F. Effect of Input Energy on the Emissionof a Motorcycle Engine with an Electrically HeatedCatalyst in Cold — start Conditions [J]. AppliedThermal Engineering, 2004, 24 ( 14/15 ) : 2017-2028.
  • 9Kessels J T B A , Foster D L,Bleuanus W A J. Fu-el Penalty Comparison for ( Electrically) HeatedCatalyst Technology [J]. Oil & Gas Science andTechnology, 2010,65(1): 47-54.
  • 10Pozniak D J. The Exhaust Emission and Fuel Con-sumption Characteristics of an Engine DuringWarmup:a Vehicle Study[C]//Society of Automo-tive Engineers. Warrendale, 1980:800396.

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