Multipolar High-Speed IPMSM Design for EV Traction Considering Mechanical Stress

Kyong-Soo Cha, Dong-Min Kim, Min-Ro Park, M. Yoon, Jung-Pyo Hong
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引用次数: 6

Abstract

The greenhouse effect is getting worse in these days. To reduce this environmental problem, emission regulation in the automotive industries became strict. Accordingly, the automotive makers started to develop the environmental friendly vehicles such as the hybrid electric vehicle (HEV) and electric vehicle (EV). In the x-EV system, electric traction motor is the most important part act as the engine of the conventional vehicle. The design trend of the electric motor for EV traction is the high-speed low-torque with the reduction gear. For this reason, high speed operating condition should be considered in the design process. In this paper, some design factor study was done, considering both the electrical performance and the mechanical stress. Using these study results and response surface method (RSM) optimum design was conducted. From the optimum designed motor, mechanical stress simulation was done considering about the 15% margin of the maximum operating speed of the electric motor. Consequently, the multi-layered interior permanent magnet motor (IPMSM) design was done fulfill the electrical performance and the not exceeding the yield strength of the electrical steel sheet consist the electrical motor.
考虑机械应力的电动汽车牵引多极高速IPMSM设计
最近,温室效应越来越严重。为了减少这一环境问题,汽车行业的排放法规变得更加严格。因此,汽车制造商开始开发混合动力汽车(HEV)和电动汽车(EV)等环保汽车。在x-EV系统中,电动牵引电机作为传统车辆的发动机是最重要的部件。电动汽车牵引用电机的设计趋势是高速低转矩带减速齿轮。因此,在设计过程中应考虑高速工况。本文从电性能和机械应力两个方面对其设计因素进行了研究。利用这些研究结果和响应面法(RSM)进行了优化设计。从优化设计的电机出发,考虑电机最大运行速度的15%裕度,进行了机械应力仿真。因此,对多层内嵌式永磁电机(IPMSM)进行了设计,以满足电机的电气性能和不超过屈服强度的电工钢板构成电机。
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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