单盘轴向涡流制动器参数化设计

H. Waloyo, M. Nizam, Dddp. Tiahiana, Ubaidillah
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引用次数: 4

摘要

轴向ECB制动转矩的主要因素是诱导导体产生涡流的初级磁场。磁密度取决于磁源质量等级和磁源位置。确定永磁体坐标的一些参数是永磁体到旋转中心或导体的距离。研究了单盘轴向ECB位置参数对制动转矩的影响。本文采用有限元模拟方法进行了研究,并通过实验进行了验证。结果表明,离旋转中心较远的永磁体位置产生的制动转矩较大,因为手的作用力较大。磁源坐标的最大值在距旋转中心50mm处。制动扭矩随着气隙的增大而减小。在所有气隙变化中,在远半径永磁体处也发现了相等的制动力矩。这是因为磁通效应。因此,在适当的参数位置下,单盘轴向涡流制动器的设计可以以较低的成本获得最佳的性能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Parametric Design in Single Disk Axial Eddy Current Brake
The main factor in axial ECB braking torque is a primary magnetic field that induces conductor to create an eddy current. The magnetic density depends on the level of magnetic source quality and the magnetic source position. Some parameters to determine permanent magnet coordinate are its distance to the rotating center or to the conductor. This paper investigated the impacts of position parameters in single disk axial ECB on braking torque. The study was conducted using FEM modeling that had been validated by experiment. The results showed that distant permanent magnet position from the rotating center produced more braking torque due to larger hand force. The maximum value of the magnetic source coordinate was found at 50 mm from the rotation center. Braking torque decreased as the air gap increased. Equal braking torque was also found at the distant radius permanent magnet in all of air gap variations. This happened because of flux magnetic effect. Thus, with proper parameter positions, a design of single disk axial eddy current brake can achieve optimum performance with less cost.
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