具有独立径向和轴向承载能力的三极径向-轴向HMB设计与优化

H. Zhu, J. Ju
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引用次数: 1

摘要

三极径向-轴向HMB的轴向气隙和径向气隙的偏置磁通密度通常取相同值,偏置磁通密度通常取饱和磁通密度的一半。因此,径向承载力与轴向承载力成正比。但在大多数工况下,要求轴向承载力和径向承载力相互独立。在径向或轴向的任何一个方向上的承载能力都会大于所需的承载能力,从而导致体积更大,重量更重,功率损失更高。基于径向气隙和轴向气隙中不同的偏压和饱和磁通密度,设计了径向-轴向三极HMB。在这种情况下,可以独立设计径向和轴向承载能力,从而减小三极径向-轴向HMB的体积和重量。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design and optimisation of three-pole radial-axial HMB with independent radial and axial carrying capacity
The bias flux density in axial and radial air gaps of the three-pole radial-axial HMB is usually selected as a same value and the bias flux density is usually half of the saturation flux density. As a result the radial carrying capacity is proportional to the axial carrying capacity. But in most conditions, the axial and radial carrying capacity is required to be independent with each other. The carrying capacity in one of radial or axial direction will be larger than the required carrying capacity, which will lead to larger volume, heavier weight and higher power loss. In this paper, the three-pole radial-axial HMB is designed based on different bias and saturation flux density in radial and axial air gaps. In this case, the radial and axial carrying capacity can be designed independently and the volume and weight of the three-pole radial-axial HMB can be reduced.
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