电极几何形状对电弧闪弧保护边界的影响

Zhenyuan Zhang, Peng Wang, Shiuan-Hau Rau, Weijen Lee
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引用次数: 5

摘要

在弧闪危害研究中,利用保护边界可以深入了解人员对热伤害的防护。然而,虽然IEEE 1584-2002规定了基于垂直平面上的电弧电极试验的危险计算,但近年来,垂直排列不直接适用的应用越来越受到关注。由于设备的不同配置和母线连接方式的不同,电弧的热行为也不同,为了充分保护工人免受热伤害,有必要分析不同电极几何形状对电弧闪弧保护边界的影响。本文充分讨论了电极几何形状对入射能量暴露水平和AFPB的影响。通过多电极几何设计试验,分析了不同结构下电弧的热行为。根据试验结果,推导了各典型电极几何形状下的修正方程,对IEEE 1584-2002的AFPC计算进行了调整。通过比较,修正后的模型能更好地反映电极几何形状的实际效果,同时也能很好地为实际应用提供合理的AFPB。
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Effect of Electrode Geometry on Arc Flash Protection Boundary
In arc flash hazards studies, protection boundary are able to be used to gain insight in personnel protection against to thermal injuries. However, while IEEE 1584–2002 has provided the hazards calculation based on tests with the arcing electrodes in a vertical plane, applications where the vertical arrangement is not directly applicable is drawing more attentions in past few years. Due to the varied thermal behaviors of arc occurred in different configuration of the equipment and the varied bus connection mode, to adequately protect a worker from thermal injury, it is necessary to analyze the effect of different electrode geometry on arc flash protection boundary. This paper fully discussed the impact of electrode geometry on incident energy exposure level and AFPB. With the multiple electrode geometry designed tests, thermal behaviors of arc under different configurations has been analyzed. According to test results, correction equations were derived under each typical electrode geometry to adjust the AFPC calculation of IEEE 1584–2002. Through the comparisons, the corrected model can better reflect the actual effects of electrode geometry, meanwhile showing a good ability to provide the reasonable AFPB for practical uses.
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