带磁通浓缩装置的双面TFM机磁体安装问题的研究

A. Hagnestål
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引用次数: 0

摘要

可变磁阻电机,如横向磁通电机(tfm),具有非常适合于波能等慢速可再生能源转换应用的特性。具有磁通浓缩磁体设置的双面TFM变体通常比其他变体具有更好的性能,但构建起来更具挑战性。制造这种机器最具挑战性的部件之一是磁铁结构,特别是对于磁铁结构较宽的大型机器。本文分析了线性波浪发电机组中这种结构的磁体安装问题。提出了一种安装方法,并计算了该方法所涉及的安装力。设计并制造了一个安装工具,并成功地为两个线性波浪发电机构建了12个磁体堆栈,形成了一个测试装置。通过这项工作,已经证明了构建这种磁铁结构是完全可行的,从而为该领域的其他人提供了如何处理这一相当复杂的实际问题的参考。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Addressing the Magnet Mounting Problem for Double-Sided TFM Machines With Flux-Concentrating Setup
Variable reluctance machines, such as transverse flux machines (TFMs), have very suitable properties for slow-speed renewable energy conversion applications such as wave power. The double-sided TFM variant with flux-concentrating magnet setup has generally better performance than other variants, but it is considerably more challenging to build. One of the most challenging parts to build for such machines is the magnet structure, especially for larger machines where the magnet structure is wide. In this paper, the magnet mounting problem of such a structure for a linear wave power generator has been analyzed. A mounting method has been proposed, and the mounting forces involved for that method have been calculated. A mounting tool has been designed and built, and it has been used to successfully build 12 magnet stacks for two linear-wave power generators that form a test setup. Through this work, it has been demonstrated that it is fully feasible to construct such magnet structures, and thereby, a reference to how this rather complex practical problem can be handled is provided for others in the field.
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