Mesh-Based Charge Simulation Method and Its Applications to Electrostatic Electric Field Computation
|更新时间:2026-05-20
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Mesh-Based Charge Simulation Method and Its Applications to Electrostatic Electric Field Computation
Mesh-Based Charge Simulation Method and Its Applications to Electrostatic Electric Field Computation
高电压(英文)2026年11卷第2期
作者机构:
1. High Voltage Department, China Electric Power Research Institute,Beijing,China
2. Xizang Yangbajing High Altitude Electrical Safety and Electromagnetic Environment National Observation and Research Station, China Electric Power Research Institute,Beijing,China
Tahan Wang, Kun He, Fangyuan Cao, 等. Mesh-Based Charge Simulation Method and Its Applications to Electrostatic Electric Field Computation[J]. 高电压(英文), 2026,11(2).
Tahan Wang, Kun He, Fangyuan Cao, et al. Mesh-Based Charge Simulation Method and Its Applications to Electrostatic Electric Field Computation[J]. High Voltage, 2026, 11(2).
Tahan Wang, Kun He, Fangyuan Cao, 等. Mesh-Based Charge Simulation Method and Its Applications to Electrostatic Electric Field Computation[J]. 高电压(英文), 2026,11(2).DOI: 10.1049/hve2.70054.
Tahan Wang, Kun He, Fangyuan Cao, et al. Mesh-Based Charge Simulation Method and Its Applications to Electrostatic Electric Field Computation[J]. High Voltage, 2026, 11(2).DOI: 10.1049/hve2.70054.
Mesh-Based Charge Simulation Method and Its Applications to Electrostatic Electric Field Computation
摘要
Abstract
The charge simulation method (CSM) is a well-established numerical technique employed in electrostatic field calculations
primarily due to its simplicity and computational efficiency. However
conventional CSM face challenges when applied to complex geometries
as they necessitate meticulous manual placement of simulation charges and matching points. In this paper
we propose an enhanced CSM that incorporates mesh-based approaches to automate the generation of simulation charges and matching points. By utilising structured or unstructured meshes
the proposed mesh-based CSM (MCSM) is capable of handling intricate geometries. Numerical experiments validate the increased versatility of the method in comparison to traditional CSM techniques. Furthermore
the efficacy of the proposed method is demonstrated through its application to the calculation of total electric fields surrounding high-voltage direct current (HVDC) transmission lines in the presence of nearby buildings. These results underscore the potential of the improved CSM to expand its range of practical applications
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