Nanostructured insulation for high torque density electric propulsion motors

H. Nguyen, Yiqi Liu, Weiqiang Chen, M. Ghassemi, Jack Chapman, A. Bazzi, Yang Cao
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引用次数: 10

Abstract

It has been identified in ONR Next Generation Integrated Power System (NGIPS) Roadmap that fundamental research in dielectric insulation research enables payload efficiency and affordable high power density of integrated electric propulsion motors. The objective of this study is to revolutionize electrical insulation in the manufacturing of NGIPS motors for military electric propulsion with game-changing torque density and payload efficiency through the development of nanostructured insulation with significant improvements in both electrical and thermal performance. This paper presents the progress of nanostructured insulation innovation, high field characterization, performance and insulation integrity validation under high voltage, high frequency multi-stresses. The thermal, dielectric and voltage endurance properties of novel nanocomposite insulation based on 2D-nanostructured platelet fillers were investigated. It was demonstrated that nanostructured insulation could offer significant improvement over conventional insulation system in electrical, dielectric, thermal and mechanical properties. A Design of Experiment was employed to study the effects of various 2D fillers and their interplay, and more importantly to identify the optimal nanostructured formulation with high thermal conductivity of >0.8 W/mK, low dielectric constant of less than 5, low dissipation factor of less than 3% at 150°C and high breakdown strength of >1000V/mil. Furthermore, disk samples with optimal formulation from Design of Experiment were fabricated for voltage endurance tests in accordance with IEC 60343 standard for evaluation of their long-term endurance life.
高转矩密度电力推进电机用纳米结构绝缘材料
ONR下一代集成电力系统(NGIPS)路线图已经确定,介电绝缘研究的基础研究可以实现集成电力推进电机的有效载荷效率和可负担的高功率密度。本研究的目的是通过开发纳米结构绝缘材料,在电气和热性能方面都有显著改善,从而彻底改变军用电力推进用NGIPS电机制造中的电绝缘,从而改变扭矩密度和有效载荷效率。本文介绍了纳米结构绝缘的创新、高场表征、高电压、高频多应力下的性能和绝缘完整性验证等方面的进展。研究了基于二维纳米结构片状填料的新型纳米复合绝缘材料的热、介电和耐压性能。研究结果表明,纳米结构的绝缘材料在电气、介电、热学和力学性能方面都比传统的绝缘材料有显著的改善。采用实验设计的方法研究了不同的二维填料及其相互作用的影响,确定了导热系数>0.8 W/mK、介电常数小于5、150℃时耗散系数小于3%、击穿强度>1000V/mil的最佳纳米结构配方。根据IEC 60343标准,制作了实验设计中优化配方的磁片样品,进行了长期耐压寿命评价试验。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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