Study on Analysis of Transfer Torque and Improvement of Transfer Torque in Non-Contact Permanent Magnet Gear

Gyu-sang Park, Chan-ho Kim, Yong-Jae Kim
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Abstract

The non-contact permanent magnet gear has advantages of high efficiency and improved reliability. It has other advantages of no mechanical friction loss, very little noise and vibration, and no need for lubricant. With these advantages, the non-contact permanent magnet gear that solves the physical contact problem of the mechanical gear has drawn attention. Due to this unique non-contact characteristic, the non-contact permanent magnet gear which is capable of non-contact torque transmission has replaced mechanical gear. The mechanical gears which is in many fields of the modern industry, is used mostly for power transmitting mechanical devices. However, it also has the problem of a low torque density, which requires improvement. In this paper, a novel pole piece shape is proposed in order to improve the problem of low torque density of the non-contact permanent magnet gear. The experiment data required for predicting the relationships among them are obtained using finiteelement Operating method based on two-dimensional (2-D) numerical analysis. Therefore, this paper derived an optimal model for thenon-contact permanent magnet gear with the novel pole piece using the Box-Behnken design, and the validity of the optimal design of the proposed pole piece shape through variance analysis and regression analysis demonstrated. In this paper, we performed the thransfer torque analysis in order to improve the torque density and power density, we have performed on optimal design of proposed pole piece shape using box-behnken.
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非接触永磁齿轮传递转矩分析及改进研究
非接触式永磁齿轮具有效率高、可靠性高的优点。它还具有无机械摩擦损失,噪音和振动很小,不需要润滑剂等优点。由于这些优点,解决机械齿轮物理接触问题的非接触式永磁齿轮引起了人们的关注。由于这种独特的非接触特性,能够进行非接触转矩传递的非接触永磁齿轮已经取代了机械齿轮。机械齿轮是一种主要用于动力传动的机械装置,在现代工业的许多领域都有应用。但也存在转矩密度低的问题,需要改进。针对非接触永磁齿轮转矩密度低的问题,提出了一种新的极片形状。采用基于二维数值分析的有限元运算方法获得了预测两者之间关系所需的实验数据。因此,本文采用Box-Behnken设计方法推导了具有新型极片的非接触永磁齿轮优化模型,并通过方差分析和回归分析验证了所提出极片形状优化设计的有效性。为了提高转矩密度和功率密度,本文进行了传递转矩分析,并利用box-behnken对所提出的极片形状进行了优化设计。
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