直流GIL用表面σ-FGM绝缘子的闪络改善及场控

Z. Ran, B. Du, Jin Li, H. Yao, J. Xing, J. Dong
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引用次数: 0

摘要

直流气体绝缘管道环氧绝缘子的闪络失效是制约输电系统发展的主要问题。电场畸变是引起闪络故障的主要原因。迫切需要有效的电场调节和增强闪络的方法。本文采用表面氟化技术将表面电导率梯度材料($\sigma$ -SFGM)应用于锥形绝缘子中,并在与燃气管道和温度测试探头连接的密封反应器中进行了表面氟化处理。在绝缘体表面的不同部位形成了厚度不同的氟化层。在直流条件下进行闪络试验。SFGM具有电场调节能力。此外,无论是否有预载,采用SFGM的绝缘子的闪络电压都比原绝缘子高33%以上,表明SFGM的设计大大提高了绝缘子的性能。与传统的现场控制方法相比,本文提出的绝缘子具有广阔的应用前景,为直流GIL控制提供了参考。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Flashover Improvement and Field Control of Insulator with Surface σ-FGM for DC GIL
Flashover failure of the epoxy insulator in DC gaseous insulated pipeline (GIL) is a major problem limiting the development of the power transmission system. The electric field distortion is the main reason for flashover faults. Effective electric field regulation and flashover enhancement methods are in urgent need. In this paper, the surface conductivity graded material ($\sigma$ -SFGM) was applied in cone-type insulator by surface fluorination technology, which was conducted in a sealed reactor connected with the gas pipelines and the temperature test probe. A fluorinated layer with a different thickness was formed at different portions of the insulator surface. The flashover tests were conducted under DC condition. The SFGM presents an ability of electric field regulation. Besides, the flashover voltage of the insulator with SFGM is higher than that of the original one by over 33 % whether there is a preload or not, indicating highly increased property by the design of SFGM. Compared with the traditional field control methods, the insulator proposed in this paper possesses a wide application prospect and provide a reference for the DC GIL.
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