Design and Control Principles of Hybrid Braking System for EV, HEV and FCV

Yimin Gao, Liang Chu, M. Ehsani
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引用次数: 95

Abstract

Due to the introduction of electrical regenerative braking, the structure, design and control of braking system of an electric vehicle (EV), hybrid electrical vehicle (HEV) and fuel cell vehicle (FCV) is quite different from the pure mechanical braking system of conventional vehicles. Desirable braking performance not only guarantee to quickly stop the vehicle and maintain the traveling direction stable and controllable, but recapture the braking energy as much as possible on various conditions of road. In this paper, the braking energy characteristics on vehicle speed and braking power in typical urban driving cycles have been investigated. The results provide strong supports to the design and control of such hybrid braking system. Two hybrid braking systems have been introduced. One is parallel hybrid braking system, which has a simple structure and control. The other is fully controllable hybrid braking system. Two typical control strategies for this system have been established. One emphasizes optimal braking performance and the other on optimal braking energy recovery.
电动汽车、混合动力汽车和燃料电池汽车混合动力制动系统设计及控制原理
由于电再生制动的引入,电动汽车、混合动力汽车和燃料电池汽车的制动系统的结构、设计和控制与传统车辆的纯机械制动系统有很大的不同。良好的制动性能不仅能保证车辆快速停车,保持行驶方向稳定可控,而且能在各种路况下尽可能地回收制动能量。本文研究了典型城市行驶工况下制动能量对车速和制动功率的影响。研究结果为这种混合动力制动系统的设计和控制提供了有力的支持。引入了两种混合动力制动系统。一种是并联混合动力制动系统,该系统结构简单,控制简单。二是完全可控混合动力制动系统。建立了该系统的两种典型控制策略。一个强调最佳制动性能,另一个强调最佳制动能量回收。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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