雷击电流作用于接地线-悬架箝位系统的放电条件分析

Hongfa Li, Qingjiang Chen, Shaobing Cheng, Zhicong Dong, Rongpeng Wang, Ruige Cai, Beisi Huang, Gang Liu
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摘要

悬挂钳内放电是架空地线损坏的一个重要因素。为了找出放电的原因,建立了电路模型,分析了接地线-悬架夹紧系统(GW-SC系统)内部接触点的电流分布。随后,通过有限元仿真得到了在不同转矩下流过各接触点的电流波形。在此基础上,建立了单接触点模型,分析了电流最大接触点周围的电场强度分布。最终结果表明,在雷电电流的作用下,接触点附近的气隙具有非常高的电场强度,甚至可能超过30kV/cm。接触点的形状和大小对电场强度和分布有很大的影响。
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Discharge Conditions Analysis of Lightning Current Action on Ground Wire-Suspension Clamp System
The discharge inside the suspension clamp is a significant factor for the damage of overhead ground wire. To find the reason of discharge, an electric circuit model was established to analyze the current distribution of contact points inside the Ground Wire-Suspension Clamp System (GW-SC System). Subsequently, the current waveform flowing through each contact point in different torque was obtained through finite element simulation. Based on the result, a single contact point model was created to analyze the electric field intensity distribution around the contact point with the highest current flow. The final result shows that, under the action of lightning current, the air gap near the contact point has a very high electric field intensity, which may even exceed 30kV/cm. The shape and size of contact point have a great impact on the electric field intensity and distribution.
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