气体绝缘开关设备中导电微粒失活的捕集器

N. Phansiri, N. Tanthanuch, B. Techaumnat
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摘要

本文介绍了气体绝缘开关设备中用于抑制粒子运动的简单粒子阱的研究。该研究旨在研究设计的陷阱,以阻止粒子沿着放置在地电极上的介电表面运动的情况下,利用介电泳(DEP)力的运动。数值计算结果显示了有无粒子阱的高压与地电极通道内的电场分布,阐明了电场作用下粒子的运动规律。粒子阱由硅树脂和聚酰亚胺制成。观察了两种粒子阱的粒子失活性能。实验结果表明,第一种捕集器对铝颗粒和不锈钢颗粒的失活率分别为53%和87%。第一类和第二类的捕集率分别为10%和80%。电场作用下粒子的速度是预测阱性能的重要参数。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Trap for Deactivation of Conducting Particle in Gas-insulated Switchgear
This paper presents the study of the simple particle traps for deactivation particle movement in gas insulated switchgears. The study aims to investigate the designed trap to stop the movement of the particle by using the dielectrophoretic (DEP) force in the case of moving along the dielectric surface placed on the ground electrode. Numerical calculation results show electric field distribution in the channel between high voltage and ground electrodes with and without particle trap to clarify the particle motion under the electric field. Particle traps are fabricated with silicone and polyimide. The particle deactivation performance is observed for two types of particle traps. The experimental results show that the first type of trap can deactivate 53% and 87% of all experiment conditions for aluminum and stainless-steel particle, respectively. The first type and second type can trap aluminum particles at 10% and 80%, respectively. The particle’s velocity under an electric field is an important parameter in predicting the trap performance.
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