Thickness Optimization for Capacitance Core of High Voltage Transformer Bushing Based on Finite Element Method

Hai-Yue Yang, Jia Xie, Xiaoyu Hu, Chenchen Zhang, G. Ding, Xingwang Wu, R. Yin, Jielong Wu
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Abstract

The stability of the power system is becoming more and more essential with the rapid development of the national economy, as one of the most important components of power transformers, bushing plays a significant role in electrical insulation. This paper takes the 500 kV GOE oil-immersed bushing as the object of study, constructing a bushing simulation model, and using FEM (Finite Element Method) to research the electric field strength of the bushing. The electric field strength distribution of bushing under the different capacitor core thickness, the radius of the shield electrode, and the ascending flanged base diameter is discussed. Then the influence of the capacitor core thickness and the radius of the shield electrode on the maximum electric field strength is considered to optimize the structure of the shield electrode. The analysis results provide a theoretical basis for the practical application of engineering.
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基于有限元法的高压变压器套管电容铁芯厚度优化
随着国民经济的快速发展,电力系统的稳定性变得越来越重要,套管作为电力变压器最重要的部件之一,在电力绝缘中起着重要的作用。本文以500kv GOE油浸套管为研究对象,建立了套管仿真模型,采用有限元法对套管的电场强度进行了研究。讨论了在不同电容器铁心厚度、屏蔽电极半径和法兰底座直径上升情况下衬套的电场强度分布。然后考虑电容器铁心厚度和屏蔽电极半径对最大电场强度的影响,优化屏蔽电极的结构。分析结果为工程实际应用提供了理论依据。
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