Effect of Pressing Mode and Pressure on Arc Ablation Performance of PTFE/BN Composites

Zhaozi Zhang, Bingchen Song, Yongjie Nie, D. Min, Shengtao Li, Chuanchuan Wang, Tao Zhao
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Abstract

With the development of high voltage transmission, higher voltage is necessary. Power equipment with traditional materials can not satisfy the insulation requirement of higher voltage transmission, so excellent material is urgently needed. PTFE nozzle is important in circuit breaker which faces the problem of arc ablation, and the nozzle with better performance is helpful to improve the transmission voltage. In this paper, in order to study the influence of different pressing pressures and modes on the ablation performance of PTFE/BN composites, four pressures and two modes were adopted (cold isostatic pressing and mould pressing) to obtain 7-wt% BN doped PTFE composites. As the pressing pressure increases, the ablation amount of the specimen decreases gradually. Compared with mould pressing, the specimen prepared by cold isostatic pressing has a higher thermal conductivity and lower ablation amount, while the light reflection properties are almost the same for both preparing methods. This paper is of great significance to improve the ablation resistance of nozzle materials.
压制方式和压力对PTFE/BN复合材料电弧烧蚀性能的影响
随着高压输电的发展,需要更高的电压。采用传统材料的电力设备已不能满足高压输电的绝缘要求,迫切需要优良的材料。聚四氟乙烯喷嘴在面临电弧烧蚀问题的断路器中起着重要的作用,性能较好的喷嘴有助于提高传输电压。为了研究不同压力和模式对PTFE/BN复合材料烧蚀性能的影响,采用四种压力和两种模式(冷等静压和模压)制备了掺氮量为7 wt%的PTFE复合材料。随着挤压压力的增大,试样的烧蚀量逐渐减小。与模压相比,冷等静压制备的试样具有更高的导热率和更低的烧蚀量,两种制备方法的光反射性能几乎相同。本文对提高喷嘴材料的抗烧蚀性能具有重要意义。
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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