Research of Shark Concept Using 3D Finite Element Analysis

K. Sejejs, E. Kamoliņš, K. Gulbis
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Abstract

Due to their comparatively higher efficiency and power density, permanent magnet synchronous machines (PMSM) is the most popular type of the electric machines used for the traction systems in electric vehicles (EV). Considering the increasing cost of rare earth materials and other disadvantages of PMSMs, it is necessary to develop reluctance machines needed for the usage in the EVs. In order to increase the competitiveness of the reluctance machines, it is important to develop solutions that would increase their torque density, overall efficiency, and eliminate disadvantages such as torque ripple, which is very undesirable in the field of EVs. One of the solutions is in the development of the longitudinal cross-section of the electric machine tooth zone - the proposed use of the Shark concept. In this paper, several Shark profiles (air gap shapes) are examined. Results of experiments conducted of three-dimensional (3D) magnetic field calculations using finite element analysis (FEA) have been discussed and the efficiency and behaviour of different Shark profiles have been compared. The results of experiments show that the Shark concept can be a perspective solution for the improvement of the reluctance machines, thus making them more competitive in the field of the traction systems of EVs.
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基于三维有限元分析的鲨鱼概念研究
永磁同步电机(PMSM)由于其相对较高的效率和功率密度,是电动汽车牵引系统中最常用的电机类型。考虑到稀土材料成本的不断上升和永磁同步电动机的其他缺点,有必要开发用于电动汽车的磁阻电机。为了提高磁阻电机的竞争力,必须开发出能够提高磁阻电机的转矩密度和整体效率的解决方案,并消除电动汽车领域非常不希望出现的转矩脉动等缺点。其中一个解决方案是在电机齿区的纵向横截面的发展-建议使用鲨鱼的概念。本文研究了几种Shark型(气隙形状)。本文讨论了利用有限元分析(FEA)进行三维(3D)磁场计算的实验结果,并比较了不同鲨鱼剖面的效率和行为。实验结果表明,Shark概念可以为磁阻电机的改进提供一个前景解决方案,从而使磁阻电机在电动汽车牵引系统领域更具竞争力。
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