Experimental and Molecular Simulation Study on the Influence Mechanism of Moisture on Fluorination Modification of Epoxy Resin Insulation Surface

Surface fluorination technology presents a feasible approach for the surface modification of insulating materials, attributed to its inherent advantages such as a simple process, established techniques, and economic efficiency. The application of epoxy resin as the inner insulation material in DC wall bushing can significantly enhance their electrical insulation performance through surface fluoridation treatment. In this study, the impact of moisture on epoxy resin insulation, both before and after fluoridation, is examined through a combination of molecular simulations and high voltage experiments. This research seeks to advance the broad application of surface fluoridation technology within the domain of insulating materials. The results indicate that surface fluoridation significantly improves the thermal stability, mechanical properties, and electrical strength of epoxy resin insulation materials. However, it has been observed that moisture significantly impacts the performance of fluorinated epoxy resin insulation materials, resulting in a decline in their properties. Nevertheless, through drying and timely treatment, the overall performance of fluorinated DC wall bushing shows significant improvement compared to the original casing. The aforementioned conclusions not only underscore the pivotal role of timely and sustained drying procedures in the fluorination modification of insulating surfaces, but also furnish a robust theoretical and empirical foundation for further investigation into the mechanisms and technological advancements of fluorination modification.

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Publication Details

Journal
IEEE Transactions on Dielectrics and Electrical Insulation
Published
2025-09-12
DOI
https://doi.org/10.1109/tdei.2025.3608089
Primary Topic
Geochemistry and Geologic Mapping
Type
article
Field-Weighted Citation Impact
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article

Experimental and Molecular Simulation Study on the Influence Mechanism of Moisture on Fluorination Modification of Epoxy Resin Insulation Surface

IEEE Transactions on Dielectrics and Electrical Insulation
Geochemistry and Geologic Mapping
article

Experimental and Molecular Simulation Study on the Influence Mechanism of Moisture on Fluorination Modification of Epoxy Resin Insulation Surface

article en

Abstract

Surface fluorination technology presents a feasible approach for the surface modification of insulating materials, attributed to its inherent advantages such as a simple process, established techniques, and economic efficiency. The application of epoxy resin as the inner insulation material in DC wall bushing can significantly enhance their electrical insulation performance through surface fluoridation treatment. In this study, the impact of moisture on epoxy resin insulation, both before and after fluoridation, is examined through a combination of molecular simulations and high voltage experiments. This research seeks to advance the broad application of surface fluoridation technology within the domain of insulating materials. The results indicate that surface fluoridation significantly improves the thermal stability, mechanical properties, and electrical strength of epoxy resin insulation materials. However, it has been observed that moisture significantly impacts the performance of fluorinated epoxy resin insulation materials, resulting in a decline in their properties. Nevertheless, through drying and timely treatment, the overall performance of fluorinated DC wall bushing shows significant improvement compared to the original casing. The aforementioned conclusions not only underscore the pivotal role of timely and sustained drying procedures in the fluorination modification of insulating surfaces, but also furnish a robust theoretical and empirical foundation for further investigation into the mechanisms and technological advancements of fluorination modification.

IEEE Transactions on Dielectrics and Electrical InsulationVol. 33(1)
Guangxi University (CN)
Openalex Percentile: Top 40%
Geochemistry and Geologic Mapping
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