单回路输电线路架空地线电磁感应特性分析与实验

Xianmin Mu, Jiwei Guo, Jialin Li, Qiyu Sheng
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摘要

架空地线是高压输电线路的重要组成部分。但是,由于电磁感应现象,架空地线上存在着巨大的能量损耗。为了寻找降低能量损耗的方法,或研究架空地线断电的可能性,我们对架空地线电磁感应现象的规律进行了详细的研究。本文主要研究了两架空地线为主的单回路输电线路,特别是500kV杯式塔和330kV猫头式塔;每座塔的地线都是接地的。首先,建立了输电线路的等效电路图,并对电路图中各元器件的参数进行了理论计算。然后在MATLAB中对架空地线位置的电场和磁场进行数值模拟,并在COMSOL Multiphysics中建立等比例缩小模型进行有限元仿真,更直观地显示了传输线周围电磁场的分布情况。仿真结果表明,杯形塔两地线的感应电压相位差大于160°,猫头塔两地线的感应电压相位差约为60°。仿真还发现,当屏蔽角从0°增大到15°时,感应电流会缓慢减小。最后,在实验室搭建了传输线模拟实验装置进行验证,并给出了一些结论。
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Analysis and Experiment of Electromagnetic Induction on the Overhead Ground Wires of Single Circuit Transmission Line
Overhead ground wires are essential parts of high voltage transmission lines. However, due to the phenomenon of electromagnetic induction, there is a huge energy loss on the overhead ground wires. In order to find a way to reduce the energy loss, or study the possibility of tapping off power from overhead ground wires, we studied in detail the law of electromagnetic induction phenomenon on overhead ground wires. This paper focused on the main single-circuit transmission lines with two overhead ground wires, especially the 500kV cup type tower and the 330kV cat-head type tower; the ground wires are grounded at every tower. Firstly, we built the equivalent circuit diagram of the transmission lines, and theoretically calculated the parameters of the components in the circuit diagram. Then, the electric field and magnetic field at the position of the overhead ground wire were numerically simulated in MATLAB, and an equal scale reduced model was built in COMSOL Multiphysics for finite element simulation, which more intuitively showed the distribution of the electromagnetic field around the transmission lines, the simulation results showed the induced voltage phase difference on two ground wires of cup type tower is more than 160° and the induced voltage phase difference on two ground wires of cat-head type tower is about 60°. The simulation also found the induced current will decrease slowly when the shielding angle increases from 0° to 15°. Finally, a transmission line simulation experimental device was built in the laboratory for verification and some conclusions were given in the end.
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