永磁体涡流减小的优化设计,防止不可逆退磁

Jae-Woo Jung, Sang-Ho Lee, Jung-Pyo Hong, Kinam Kim, Hyoungjun Cho, Sanghoon Moon
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引用次数: 9

摘要

永磁体高温产生的不可逆退磁是混合动力汽车牵引电机设计中的主要问题。为了防止永磁电机的不可逆退磁,应尽量减少永磁电机的涡流损耗。本文研究了减少永磁涡流损耗的优化设计方法。采用间接法代替直接计算涡流损耗的三维瞬态磁场分析方法。为了间接估计涡流损耗,采用静磁场分析方法,根据涡流损耗与磁通密度和频率的平方成正比,利用得到的磁通密度变化量估算涡流损耗。采用响应面法结合实验设计对永磁电机设计过程中磁通密度变化的峰值和总谐波畸变目标函数进行优化设计,保证了永磁电机磁通密度变化最小,并通过瞬态分析验证了优化设计的有效性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Optimum design for eddy current reduction in permanent magnet to prevent irreversible demagnetization
Irreversible demagnetization which occurs in permanent magnet (PM) due to high temperature is main issue in design of traction motor for hybrid electric vehicle. In order to prevent irreversible demagnetization, eddy current loss in PM should be minimized. This paper deals with the optimum design to reduce eddy current loss in PM. Indirect method is used to instead of direct calculation of eddy current loss which uses 3D transient magnetic field analysis. To estimate eddy current loss indirectly, magneto-static field analysis is employed and the obtained flux density variation in PM is used based on the fact that eddy current loss is proportional to square of flux density and frequency. Response surface methodology coupled with design of experiment is used for optimum design in the objective function of peak-peak value and total harmonic distortion of flux density variation in PM Motor design process ensuring minimum variation of flux density in PM is presented and a transient analysis is used for verification of optimum design.
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