环保气体CF3I的绝缘断弧性能

D. Xiao
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引用次数: 0

摘要

对三氟碘甲烷(CF3I)的许多研究表明,CF3I具有许多优良的性能,使其成为SF6的可能替代品之一。揭示了CF3I气体含量、间隙距离、气体压力、极性和电场不均匀系数对CF3I混合气体绝缘性能的影响规律。总体而言,在不同电场设置下,CF3I-N2混合气体的介电强度均优于CF3I-CO2。实验结果表明,20%和30%含量的CF3I-N2混合气体可以达到接近纯SF6的50%和55%的绝缘强度。此外,为了评估环保气体CF3I的断弧性能,我们建立了CF3I瞬态喷嘴电弧模型,研究了其热力学和输运特性。分析表明,CF3I气体具有良好的断弧能力,其热力学和输运性能主要接近SF6,有的甚至优于SF6。包括金属和水在内的杂质也会加剧分解过程。主要副产物是GWP低于SF6的温室气体,毒性低,不可燃。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The Performance of Insulation and Arc Interruption of the Environmentally Friendly Gas CF3I
Many researches of trifluoroiodomethane (CF3I) have shown that CF3I has many excellent properties that make it one of the possible alternatives of SF6. This paper reveals the effect laws of CF3I gas content, gap distance, gas pressure, polarity, and electric field nonuniform coefficient on the insulation performance of CF3I gas mixtures. In general, CF3I-N2 gas mixtures present a superior dielectric strength than CF3I-CO2 under different electric field sets. The experimental results indicate that 20 and 30% content CF3I-N2 gas mixtures can achieve nearly 50 and 55% insulation strength of pure SF6. In addition, to evaluate the arc interruption performance of environmentally friendly gas CF3I, we set up a CF3I transient nozzle arc model to study its thermodynamic and transport property. The analysis shows that CF3I gas has a good arc interruption capability, which mainly functions thermodynamic and transport properties approach that of SF6, and some are even better than SF6. The decomposition process is also aggravated by impurities including metal and water. The main by-products are greenhouse gases with GWP below that of SF6 and are lowly toxic and incombustible.
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