基于多物理场的高温超导同极电感交流发电机转子设计

Shaopeng Wang, Aimei Tian, Wenjiang Yang, Dongbin Song, Mingliang Bai
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引用次数: 2

摘要

高温超导电机以其无电阻、重量轻、体积小等特点,在航空电力系统中有着广阔的应用前景。特别是当同极电感转子应用于高温超导发电机时,其结构简单,工作速度快,输出能力强。然而,高温超导同极电感交流发电机(HIA)转子的设计由于工作环境复杂,需要考虑多种物理特性。在满足电磁输出特性、磁分布、强度和转子动力学限制的前提下,提出了一种全面高效的转子参数多物理场预设计和多目标优化方法。最后,设计制造了最大输出功率为30kw的样机,并进行了空载实验,验证了理论设计。同时,饱和问题在实验中也很突出,这在未来HTS HIA的小型化中将越来越明显。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Rotor Design of HTS homopolar inductor alternator based on multi-physics field
High temperature superconducting (HTS) machine has a broad application prospect in the airborne electric power system, because of its non-resistance, lightweight, and small size property. Especially when the homopolar inductor rotor was used in the HTS generator, it will also have a simple structure but high working speed which means powerful output capability. However, the design of HTS homopolar inductor alternator (HIA) rotor has to take multiple physics into consideration because of the complex working environment. The comprehensive but efficiency multi-physics predesign and multi-objective optimization of rotor parameters, which satisfies the limitation of electromagnetic output characteristics, magnetic distribution, strength, and rotor dynamics, are proposed. Finally, a prototype with the maximum output power of 30 kW is designed and manufactured, and the no-load experiment confirms the theoretical design. Meanwhile, the saturation issue is highlighted in the experimentation which will become increasingly obvious in the future miniaturization of HTS HIA.
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