A High-Speed High-Power-Density Non-Heavy Rare-Earth Permanent Magnet Traction Motor

T. Raminosoa, R. Wiles, J. Cousineau, K. Bennion, Jonathan Wilkins
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引用次数: 6

Abstract

There has been a global push for higher torque density and lower cost traction motors. The use of non-heavy rare-earth (non-HRE) permanent magnet materials in traction motors are being investigated for the sustainability, profitability and affordability of electric vehicles and to broaden their adoption. A 20,000-rpm permanent magnet traction motor using non-HRE magnet materials is proposed. A dual three-phase winding configuration driven by a segmented dual three-phase drive is proposed to reduce the current ripple, and as a result, the DC Link capacitor, as well as to ease the voltage constraint at high speed and eliminate any risk of uncontrolled regeneration. Furthermore, the dual winding configuration enables a fault tolerant design which is useful for reliability. The paper presents comprehensive electromagnetic, thermal and mechanical designs and analyses using an integrated approach. The results have shown that the design is robust against demagnetization and confirmed its thermal and mechanical viability.
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一种高速高功率密度非重稀土永磁牵引电机
全球都在推动更高扭矩密度和更低成本的牵引电机。目前正在研究在牵引电机中使用非重稀土(non-HRE)永磁材料,以提高电动汽车的可持续性、盈利能力和可负担性,并扩大其采用范围。提出了一种采用非hre磁铁材料的2万转永磁牵引电机。提出了一种由分段双三相驱动器驱动的双三相绕组结构,以减少电流纹波,从而减少DC Link电容,并缓解高速时的电压约束,消除任何不受控制的再生风险。此外,双绕组配置实现了容错设计,这对可靠性很有用。本文采用综合的方法进行了电磁、热学和力学的综合设计和分析。结果表明,该设计具有很强的抗退磁能力,并证实了其热学和力学可行性。
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