An AC Solid-State Circuit Breaker Topology Applied to De-icing Devices for Bundled Conductors

This paper presents an AC solid-state circuit breaker (SSCB) topology applicable to online non-outage de-icing devices. The SSCB employs a conventional common-emitter connection configuration to form the basic topology, utilizes RCD snubber circuits to achieve protection and voltage sharing functions. Its current transfer capability for bundle conductors in high-voltage transmission lines has been validated through power grid simulation. This circuit breaker can replace conventional breakers in de-icing devices, offering advantages including high stability and reliability under extreme weather conditions, enhanced scalability, and improved de-icing device intelligence. It provides a new design approach for de-icing devices based on the cycled current ice melting method of bundle conductors and offers new insights for transmission line protection work.

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Publication Details

Published
2025-07-04
DOI
https://doi.org/10.1109/icpet66029.2025.11160499
Primary Topic
Vacuum and Plasma Arcs
Type
article
Field-Weighted Citation Impact
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article

An AC Solid-State Circuit Breaker Topology Applied to De-icing Devices for Bundled Conductors

Yihui Zhao, Qianjie Chen, Wenxuan Zhou, Fanghui Yin et al.
Vacuum and Plasma Arcs
article

An AC Solid-State Circuit Breaker Topology Applied to De-icing Devices for Bundled Conductors

Yihui Zhao, Qianjie Chen, Wenxuan Zhou, Fanghui Yin, Xiaoyang Zhu
article en

Abstract

This paper presents an AC solid-state circuit breaker (SSCB) topology applicable to online non-outage de-icing devices. The SSCB employs a conventional common-emitter connection configuration to form the basic topology, utilizes RCD snubber circuits to achieve protection and voltage sharing functions. Its current transfer capability for bundle conductors in high-voltage transmission lines has been validated through power grid simulation. This circuit breaker can replace conventional breakers in de-icing devices, offering advantages including high stability and reliability under extreme weather conditions, enhanced scalability, and improved de-icing device intelligence. It provides a new design approach for de-icing devices based on the cycled current ice melting method of bundle conductors and offers new insights for transmission line protection work.

Tsinghua–Berkeley Shenzhen Institute (CN), Tsinghua University (CN)
Openalex Percentile: Top 80%
Vacuum and Plasma Arcs
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