电导电弧故障模型。应用于UL1699测试建模

J. Andrea, P. Schweitzer, Jean-Mary Martel
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引用次数: 14

摘要

不同类型的电弧故障可能导致电气火灾的发生。根据电力系统和应用(光伏、汽车、飞机、住宅布线)的不同,电弧故障可能涉及接触或非接触电弧,最终在附近产生半导电材料。其他特性,如间隙距离或电极材料和几何形状也可能有很大的不同。开发了一个电气模型,以适应AFCI UL1699标准中描述的电弧故障场景。对电弧发生器产生的接触电弧铜石墨电极和灭弧时间测试仪在碳化轨道上产生的非接触电弧进行了观察,通过电学模型验证了两者的电学特性(重击和燃烧电压、时间常数和稳定性),结果吻合良好。定性研究表明,该模型适用于各种拟合参数,而不考虑电弧点火原理。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Arc Fault Model of Conductance. Application to the UL1699 Tests Modeling
Differents types of arc faults can be responsible for the start of an electrical fire. Depending on the power system and the application (photovoltaic, vehicule, aircraft, residential wiring) the arc fault may involve contact or non-contact arcing with eventually semi-conductive materials in the vicinity. Other characteristics such as the gap distance or the electrode material and geometry may also strongly differ. An electrical model was developed to fit with the arc fault scenarios described in the standard for AFCI UL1699. The contact arcing copper-graphite electrodes produced by the arc generator and the non-contact arcing on carbonized track produced with the arc clearing time tester were observed and their electrical characteristics (restrike and burning voltage, time constant and stability) could be verified thanks to the electrical model with a very good agreement. A qualitative study showing the various parameters used for fitting shows that the model is applicable regardless of the arc ignition principle.
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