Power Management of Supercapacitors using Multi boost and Full Bridge Converters Used in Electric / Hybrid Electric Vehicle

E. Reddy, G. Rao, K. Reddy
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引用次数: 3

Abstract

The Hybrid electric vehicle (HEV) has become one of the most promising vehicles in the automobile industry due to its energy saving ability and low emission of harmful pollutants. Battery management system, which has acceptable life cycle, remains the major roadblock to large-scale production of Electric vehicles and Hybrid electric vehicles, which consists of high power density batteries. In the last few years the pollution problems and the increase of the cost of fossil energy (oil, gas) have become planetary problems. The car manufacturers started to react to the urban pollution problems in nineties by commercializing the electric vehicle. But the battery weight and cost problems were not solved. The batteries must provide energy and peaks power during the transient states. These conditions are severe for the batteries. To decrease these severe conditions, the super capacitors and batteries associate with a good power management present a promising solution. Simulink, a model is a collection of blocks which, in general, represents a system. This paper emphasis more on the management of the energy provided by super capacitor Packs. Each super capacitors module is made of 108 cells with a maximum voltage of 270V. The multi boost and multi full bridge converter topologies are tested to define the best topology for the embarked power management.. The experimental and simulated results validate the proposed two converter topologies presented in this paper.
电动/混合动力汽车中使用多升压和全桥转换器的超级电容器的电源管理
混合动力汽车(HEV)以其节能、低排放等优点成为汽车工业中最具发展前景的汽车之一。以高功率密度电池为核心的电动汽车和混合动力汽车大规模生产的主要障碍是电池管理系统,但其寿命周期尚可接受。在过去的几年里,污染问题和化石能源(石油、天然气)成本的增加已经成为全球性的问题。汽车制造商在九十年代开始通过商业化电动汽车来应对城市污染问题。但是电池的重量和成本问题并没有得到解决。电池必须在瞬态期间提供能量和峰值功率。这些条件对电池来说是严峻的。为了减少这些恶劣的条件,超级电容器和电池结合良好的电源管理提出了一个有希望的解决方案。在Simulink中,模型是块的集合,通常代表一个系统。本文着重研究了超级电容器组的能量管理。每个超级电容器模块由108个电池组成,最大电压为270V。多升压和多全桥转换器拓扑进行了测试,以确定最佳拓扑的船舶电源管理。实验和仿真结果验证了本文提出的两种转换器拓扑结构。
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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