高扭矩密度电力推进用耐放电环氧/粘土纳米复合材料

H. Nguyen, A. Mirza, Weiqiang Chen, J. Ronzello, S. Nasreen, Jack Chapman, A. Bazzi, Yang Cao
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引用次数: 9

摘要

高传热、间接冷却定子绝缘系统可以满足船舶电力推进系统对更高功率/扭矩密度和有效载荷效率的快速增长需求。通过在环氧树脂基体中适当分散二维纳米粘土,开发了一种新型的高转矩密度电机用纳米复合绝缘材料。电压耐久性测试表明,纯环氧树脂在500小时内失效,而纳米复合材料的寿命超过3000小时。以深度和体积衡量,纳米复合材料的侵蚀速率也明显慢于纯环氧树脂。粘土的层状结构有利于抗放电。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Discharge Resistant Epoxy/Clay Nanocomposite for High Torque Density Electrical Propulsion
Rapid growing demand in higher power/torque density and payload efficiency of marine electrical propulsion can be addressed by a high heat transfer, indirect cooled stator insulation system. A novel nanocomposite insulation has been developed for high torque density machine through proper dispersion of 2D nanoclay in epoxy resin matrix to obtain improvement in both thermal and electrical performance. The voltage endurance testing shows that while neat epoxy resin failed within 500 hours, the nanocomposite survived for more than 3000 hours. The erosion rate, evaluated by the depth and volume, of nanocomposite was also significantly slower than the neat epoxy resin. The layered structure of clay is attributed to benefit the discharge resistance.
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