The Examination of Increasing Operation Speed of Consequent Pole Type Axial Gap Motor for Higher Output Power Density

Toru Ogawa, Tomohira Takahashi, M. Takemoto, S. Ogasawara, H. Arita, A. Daikoku
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Abstract

This paper presents an examination of increasing operation speed of consequent pole type axial gap motor to achieve higher output density. Our research group has been developing consequent pole type axial gap motor with field windings for traction motor of electric vehicles. From the point of fuel economy and layout, smaller and lighter traction motor is required. It is profitable to increase operation speed for reducing the size of motor. It is necessary to suppress line to line voltage to achieve high speed operation, and we examined pole-slot combination. Moreover, as rotor’s outer diameter of axial gap motor is larger than that of radial gap motor, the strength of rotor should be considered. We studied the adoption of non- magnetic high tensile strength steel for rotor supporting component. Motor design and the result of spin burst test are presented and we confirmed the operation of target maximum speed and output power density can be possible.
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提高顺极式轴向间隙电动机运行速度提高输出功率密度的研究
本文介绍了提高顺极式轴向间隙电动机运行速度以获得更高输出密度的方法。本课题组一直致力于开发电动汽车牵引电机用磁场绕组顺极式轴向间隙电机。从燃油经济性和布局角度考虑,需要更小、更轻的牵引电机。减小电机尺寸有利于提高运行速度。为了实现高速运行,必须抑制线对线电压,我们研究了极槽组合。此外,由于轴向间隙电机转子外径大于径向间隙电机,因此需要考虑转子的强度。对转子支承部件采用非磁性高抗拉强度钢进行了研究。给出了电机的设计和自旋爆试验结果,验证了目标最大转速和输出功率密度的运行是可能的。
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