电动动力总成系统、设计和集成

Adam Gleeson, Alexander Allca-Pekarovic, Niloufar Keshmiri, A. Emadi
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摘要

本文研究了用于EcoCAR移动挑战赛的混合动力并联公路传动系统的规格、设计、仿真和测试方法。本文从空间优化、机械稳健性和整车燃油经济性三个方面对原型电动后动力系统进行了评价。概述了动力总成部件的设计和性能仿真数据,以验证所提出的设计方法。通过有限元分析对所提出的电动汽车动力总成结构的可靠性和鲁棒性进行了评估。后电动动力系统的增加显示,与现有车辆相比,模拟的车辆综合油耗降低了20%。在两种驾驶场景下进行了两项车内驾驶测试,一项是城市偏置驾驶测试,一项是公路偏置驾驶测试。这些道路测试表明,后一种方案比前一种方案的燃油经济性高3英里/加仑(MPG)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
EcoCAR Mobility Challenge Electrified Powertrain System, Design, and Integration
This paper investigates the methodology for the specification, design, simulation, and testing of a hybrid electrified parallel-through-the-road drivetrain for the EcoCAR Mobility Challenge. The performance of the prototype electric rear powertrain in terms of space optimization, mechanical robustness and vehicle fuel economy is proposed in this paper. Overview of the powertrain component design and performance simulation data is presented to validate the proposed design methodology. Finite Element Analysis (FEA) is conducted to assess the reliability and robustness of the proposed electric vehicle powertrain architecture. The addition of the rear electric powertrain shows a simulated 20% reduction in vehicle combined fuel consumption as compared to the stock vehicle. Two in-vehicle drive tests were carried out over two driving scenarios, a combined city-biased drive test, and a combined highway-biased drive test. These road tests showed the latter scenario to have a 3 miles per gallon (MPG) greater fuel economy than the former.
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