Title :
Comprehensive drive train efficiency analysis of hybrid electric and fuel cell vehicles based on motor-controller efficiency modeling
Author :
Williamson, Sheldon S. ; Lukic, Srdjan M. ; Emadi, Ali
Author_Institution :
Electr. Power & Power Electron. Center, Illinois Inst. of Technol., Chicago, IL
fDate :
5/1/2006 12:00:00 AM
Abstract :
From the point of view of overall hybrid electric vehicle (HEV) and fuel cell vehicle (FCV) drive train efficiency, the research focus is mainly on the efficiency analysis of the power train components, which prove to be an integral part of modern HEV and FCV drive trains. The critical portion of any HEV electrical system consists of a power electronic converter (inverter) and a suitable traction motor. Thus, the efficiency analysis of the inverter/motor is of prime importance for the calculation of the overall efficiency of the drive trains. This paper aims at modeling the efficiencies of the traction motor/controller through efficiency maps. Efficiency maps are a convenient way to represent motor drive systems of large and complex systems, like that of a HEV. The paper uses the advanced vehicle simulator (ADVISOR) software for the simulations of a large-sized car, similar to a Chevy Lumina, over the urban dynamometer-driving schedule and highway fuel economy test drive cycles. Furthermore, the paper investigates the traction motor efficiency maps and consequent overall drive train efficiencies of commercially available Honda Insight and Toyota Prius HEVs. In all the case studies, the aim is to analyze the overall drive train efficiency over the city and highway drive cycles based on the inverter/motor efficiency maps
Keywords :
electric locomotives; electric propulsion; fuel cell vehicles; hybrid electric vehicles; invertors; machine control; power convertors; traction motor drives; Chevy Lumina; Honda Insight; Toyota Prius; advanced vehicle simulator software; drive train efficiency analysis; dynamometer-driving schedule; efficiency maps; fuel cell vehicle drive train efficiency; highway fuel economy test drive cycles; hybrid electric vehicles; inverter; motor controller efficiency modeling; motor drive systems; power electronic converter; power train components; traction motor-controller; Fuel cell vehicles; Hybrid electric vehicles; Intelligent vehicles; Inverters; Motor drives; Power electronics; Power system modeling; Road transportation; Road vehicles; Traction motors; Electric propulsion; hybrid electric vehicles (HEV); internal combustion engines (ICE); inverters; road vehicles; traction motors;
Journal_Title :
Power Electronics, IEEE Transactions on
DOI :
10.1109/TPEL.2006.872388