Influencing Factors for Magnetic Circuit Environment of the Magnetorheological Fluid Dynamometer

Yameng Chen, Yiping Luo, Bin Yang
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Abstract

The magnetic circuit environment is the most important factor restricting the normal operation of the magnetorheological fluid (MRF) device. A good magnetic circuit environment can make the MRF dynamometer more economical and practical. In this paper, a new MRF dynamometer is used as the research object. The magnetic field simulation is carried out by Ansoft Maxwell software to study the influence of magnetic isolation ring, magnetic permeability material, Working gap and Excitation current on the magnetic field performance of MRF dynamometer. The research shows that the magnetic induction line distribution in the working gap of the MRF dynamometer is relatively uniform, the magnetic induction intensity is in the range of 120-162 mT, For materials with higher permeability, the stronger the magnetic induction intensity in the working gap is. This research has certain guiding significance for the magnetic circuit optimization of MRF dynamometer.
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磁流变流体测功机磁路环境的影响因素
磁路环境是制约磁流变液(MRF)装置正常工作的最重要因素。良好的磁路环境可以使磁流变测功机更加经济实用。本文以一种新型磁流变功率计为研究对象。利用Ansoft Maxwell软件进行磁场仿真,研究磁隔离环、磁导率材料、工作间隙和励磁电流对磁流变功率计磁场性能的影响。研究表明,磁流变功率计工作间隙内的磁感应线分布较为均匀,磁感应强度在120 ~ 162 mT之间,对于磁导率越高的材料,工作间隙内的磁感应强度越强。该研究对磁流变功率计的磁路优化具有一定的指导意义。
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