磁通开关永磁电机的分析研究:气隙磁通密度公式

A. Abdelkefi, Amal Souissi, Imen Abdhennader
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摘要

本文旨在预测磁通开关永磁电机(fspmm)的电磁特性,重点研究气隙磁通密度。后者首先是在忽略气隙两侧开槽效应的情况下制定的。为此,考虑了三种磁动势(MMF)波形。它们的主要区别在于空间再划分中考虑的气隙显著性水平。然后,考虑定子开槽效应、定子pm效应和转子开槽效应,引入三种磁导函数。在此基础上,建立了气隙磁通密度空间重分配公式并进行了预测。此外,通过对三种已开发的分析模型的比较,可以选择更准确的模型。最后,结合两个校正因子,预测了改进后的气隙磁通密度波形;第一个与转子位置有关,第二个与饱和水平有关。通过二维有限元分析(FEA)模型验证了解析预测结果。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Analytical Investigation of Flux Switching PM Machines: Air Gap Flux Density Formulation
This paper is aimed at the prediction of the electromagnetic features of the flux switching permanent magnet machines (FSPMMs), with an emphasis on the air gap flux density. The latter is firstly formulated while neglecting the slotting effect at both sides of the air gap. Doing so, three magnetomotive force (MMF) waveforms are considered. They mainly differ by the level of air gap saliency taken in account in their spatial repartition. Then, three permeance functions are incorporated, taking into account the stator slotting effect, the stator PMs effect and the rotor slotting effect. This done, the air gap flux density spatial repartition is formulated and predicted. Moreover, a comparison of the three developed analytical models leads to the selection of the more accurate one. Finally, an improved air gap flux density waveform is predicted by the incorporation of two correction factors; the first allied to the rotor position and the second allied to the saturation level. the analytically predicted results are validated by the ones yielded by a 2D finite element analysis (FEA) model.
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