先进的聚合物电缆退化诊断使用时域反射技术

T. M. Kuan, A. M. Ariffin, S. Sulaiman, H. Illias, W. Raymond
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引用次数: 1

摘要

电力电缆是将电力从发电输送到输配到终端用户的重要介质。尽管采取了各种预防措施,但仍有许多因电缆故障而导致停电的报告。电力公司一直在使用时域反射技术(TDR)来定位电缆故障。然而,由于TDR结果中电缆故障特征的不确定性,电缆诊断往往耗时较长。因此,本研究旨在从TDR结果中研究电缆故障特征,以便快速识别电缆故障,以便进行更换工作。本研究包括利用MATLAB Simulink对TDR进行仿真工作,并通过TDR实验对仿真结果进行验证。电力电缆首先是无接头的,然后是有两个接头的电缆。对于每个电缆模型,每个电缆段的条件都是不同的,以复制电缆沿电缆退化的所有可能性。然后用TDR实验验证了所有电缆配置的仿真结果。TDR模拟和实验结果都表明,TDR反射具有明显的特征,可以通过观察电缆接头反射的延迟和幅度变化来检测。更大的延迟表明电缆的退化程度更高。带接头的退化电缆可以从具有较高震级的电缆接头反射中识别出来。利用这些TDR反射信号,可以识别和划分退化电缆,以便立即进行电缆更换,从而最大限度地减少电力中断时间。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Advanced Polymeric Cable Degradation Diagnostics using Time Domain Reflectometry Technique
Power cable is an important medium to transmit electricity from generation to transmission and distributing to end users. Despite taking various preventive measures, there are still numerous reports on power outages due to power cable failure. Power utility companies have been using time domain reflectometry (TDR) technique to locate fault in cable. However, the cable diagnosis often consumes long period of time due to uncertainty of cable fault signatures from the TDR result. Therefore, this study aims to investigate the cable fault signature from the TDR result so that fault in the cable can be identified quickly for replacement work to take place. This study consists of TDR simulation work using MATLAB Simulink and validation of simulation results with TDR experiments. Power cable is first modelled without any joint followed by a cable with two joints. Conditions of every cable section is varied for each cable model to replicate all possibilities of cable degradation along the cable. Simulation results from all cable configurations are then validated with TDR experiments. Both TDR simulation and experimental results have shown consistencies in the TDR reflections with distinct signatures where it can be detected by observing the delay and change in magnitude of cable joint reflections. Greater delay shows higher level of degradation in the cable. Degraded cable with joint can be identified from the cable joint reflection that has a higher magnitude. With these TDR reflection signatures, degraded cable can be identified and sectionalized for cable replacement to take place immediately and thus, minimizes the electricity disruption time.
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