Range Extender Technology for Electric Vehicles

H. Friedl, G. Fraidl, Christian Hubmann, H. Sorger, Gerald Teuschl, Ch. Martin
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引用次数: 13

Abstract

The demand for improved fuel economy and the request for Zero Emission within cities require complex powertrains with an increasing level of electrification already in a short-termed timeframe until 2025. According to general expectations the demand for Hybrid powertrains will increase significantly within a broad range of implementation through all vehicle classes as well as on battery electric vehicles (BEV) mainly for use in urban areas. For a broad acceptance of battery electric vehicles, the trade-off between all electric range and battery cost respectively weight represents the most important challenge. The all electric range obtained under real world conditions most often deviates significantly from the nominal value which is measured under idealized conditions. Under extreme conditions - slow traffic and demanding requirements for cabin heating or cooling - the electrical range might become less a question of spatial distance but even more of total operation time. As long as no sufficient charging infrastructure is available, measures for BEV have to applied to avoid “Range Anxiety” of the user. This may be additional battery capacity, which is increasing cost and weight proportionally to requested range. Alternatively, a so-called Range Extender (RE) with internal combustion engine (ICE) may be integrated, of course also increasing cost and weight, but independent from requested driving range. In the last years AVL has developed several solutions for electrification of the powertrain as well as Range Extenders for battery electric vehicles. The different solutions cover REXs with Rotary engine, 2- and single cylinder engines derived from motorcycle applications. In the present paper the different solutions are described and the priorities for application as well as practical use are explained.
电动汽车增程技术
提高燃油经济性的需求和对城市零排放的要求需要复杂的动力系统,并且在2025年之前的短期内已经提高了电气化水平。根据普遍预期,混合动力系统的需求将在所有车辆类别以及主要用于城市地区的电池电动汽车(BEV)的广泛实施范围内显着增加。对于电池电动汽车的广泛接受,在全电动里程和电池成本之间的权衡是最重要的挑战。在实际条件下获得的所有电范围通常与在理想条件下测量的标称值有很大偏差。在极端条件下,如交通缓慢和对客舱加热或冷却的苛刻要求,电动续航里程可能不再是空间距离的问题,而更多的是总运行时间的问题。只要没有足够的充电基础设施,就必须采取措施避免用户的“里程焦虑”。这可能是额外的电池容量,这是增加成本和重量成比例的要求范围。另一种选择是,将所谓的增程器(RE)与内燃机(ICE)集成在一起,当然也会增加成本和重量,但与所要求的行驶里程无关。在过去的几年里,AVL已经开发了多种动力系统电气化解决方案以及电池电动汽车的增程器。不同的解决方案涵盖rex与旋转式发动机,二缸和单缸发动机衍生自摩托车应用。本文介绍了不同的解决方案,并说明了应用的重点和实际用途。
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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