Electromagnetic Field study of Solar EV Charging Power Transmission Line Using the 3D Finite Element Method

This paper present a study on the electromagnetic field of a power transmission line used for solar EV charging through the 3D Finite Element Method (FEM) by varying the conductor material type. The study is divided into four parts: beginning with the design of the study area's elements, followed by the exploration of approximation functions within 3D elements, the creation of element equations, and finally, the simulation of electromagnetic field distribution. The approach involves dividing the study area using tetrahedral elements (it is a shape with the least number of nodes and connections), applying equations derived from element-based approximations, and solving them in MATLAB. The study's results indicate that the conductor type affects the electromagnetic field values (favored by transmission line), with the minimum fields at a 1-meter distance from the source being 1.2357 µT for copper (Cu) and 1.2339 µT for aluminum (Al). Both conductor types exhibit electromagnetic field values at a 1meter distance from the source (throughout the day) that do not exceed the ICNIRP standard.

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Published
2025-03-05
DOI
https://doi.org/10.1109/ieecon64081.2025.10987613
Primary Topic
Innovative Energy Harvesting Technologies
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article
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article

Electromagnetic Field study of Solar EV Charging Power Transmission Line Using the 3D Finite Element Method

Arak Bunmat, Pongpisit Saikham, Nattapong Mingpruk, Kritsada Mongkoldee et al.
Innovative Energy Harvesting Technologies
article

Electromagnetic Field study of Solar EV Charging Power Transmission Line Using the 3D Finite Element Method

Arak Bunmat, Pongpisit Saikham, Nattapong Mingpruk, Kritsada Mongkoldee, Jiradech Kaewsalab, Sarayuth Sawadwongchai
article en

Abstract

This paper present a study on the electromagnetic field of a power transmission line used for solar EV charging through the 3D Finite Element Method (FEM) by varying the conductor material type. The study is divided into four parts: beginning with the design of the study area's elements, followed by the exploration of approximation functions within 3D elements, the creation of element equations, and finally, the simulation of electromagnetic field distribution. The approach involves dividing the study area using tetrahedral elements (it is a shape with the least number of nodes and connections), applying equations derived from element-based approximations, and solving them in MATLAB. The study's results indicate that the conductor type affects the electromagnetic field values (favored by transmission line), with the minimum fields at a 1-meter distance from the source being 1.2357 µT for copper (Cu) and 1.2339 µT for aluminum (Al). Both conductor types exhibit electromagnetic field values at a 1meter distance from the source (throughout the day) that do not exceed the ICNIRP standard.

Rajamangala University of Technology Isan (TH)
Affordable and clean energy
Openalex Percentile: Top 90%
Innovative Energy Harvesting Technologies
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Electromagnetic Field study of Solar EV Charging Power Transmission Line Using the 3D Finite Element Method — Arak Bunmat, Pongpisit Saikham, et al. · (2025) | TGRS Research Map | TGRS