球面配置的电晕效应预测标准比较

IF 4.4 2区 工程技术 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC
High Voltage Pub Date : 2024-07-31 DOI:10.1049/hve2.12476
Manuel De La Hoz, Petrus Jacobus Pieterse, Agurtzane Etxegarai, Diego Gonzalez, Ángel Javier Mazon, Dirk Uhrlandt
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引用次数: 0

摘要

在设计高压元件时,了解在其生命周期内是否会出现电晕效应非常重要。因此,设计人员会根据与击穿放电原理相关的物理特征来考虑几种预测标准,以预测电晕效应。引入的实际装置包括一个凹锥形电极,其半球形顶端位于平板上方,用于评估选定的电晕预测标准。半球的固定直径为 7 毫米,电极间距从 2.5 厘米到 39 厘米不等。使用电荷耦合器件强化摄像机和局部放电测量仪提取了不同电压源下电晕模式萌生的信息。根据电晕模式发展背后的主要放电结构,将预测标准与特定电晕模式联系起来。这些标准与实验结果之间的平均偏差约为 8%。还根据实验结果讨论了标准中的基本假设。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Comparison of corona effect prediction criteria on sphere-plane configuration

Comparison of corona effect prediction criteria on sphere-plane configuration

When designing high-voltage elements, knowing if the corona effect will be present during their life cycle is relevant. Therefore, designers consider several prediction criteria based on physical features related to breakdown discharge principles to predict the corona effect. The introduced practical set-up consists of a concave cone electrode with a hemispheric tip above a plate to evaluate selected corona prediction criteria. The hemisphere has a fixed diameter of 7 mm, and the electrode separation ranges from 2.5 to 39 cm. Information about the corona mode inception under different voltage sources was extracted using an intensified charge-coupled device camera and a partial discharge metre. The prediction criteria were connected to a specific corona mode depending on the main discharge structure behind its development. The average deviation between these criteria and experimental results was around eight percent. Underlying assumptions in criteria are also discussed in light of the experimental results.

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来源期刊
High Voltage
High Voltage Energy-Energy Engineering and Power Technology
CiteScore
9.60
自引率
27.30%
发文量
97
审稿时长
21 weeks
期刊介绍: High Voltage aims to attract original research papers and review articles. The scope covers high-voltage power engineering and high voltage applications, including experimental, computational (including simulation and modelling) and theoretical studies, which include: Electrical Insulation ● Outdoor, indoor, solid, liquid and gas insulation ● Transient voltages and overvoltage protection ● Nano-dielectrics and new insulation materials ● Condition monitoring and maintenance Discharge and plasmas, pulsed power ● Electrical discharge, plasma generation and applications ● Interactions of plasma with surfaces ● Pulsed power science and technology High-field effects ● Computation, measurements of Intensive Electromagnetic Field ● Electromagnetic compatibility ● Biomedical effects ● Environmental effects and protection High Voltage Engineering ● Design problems, testing and measuring techniques ● Equipment development and asset management ● Smart Grid, live line working ● AC/DC power electronics ● UHV power transmission Special Issues. Call for papers: Interface Charging Phenomena for Dielectric Materials - https://digital-library.theiet.org/files/HVE_CFP_ICP.pdf Emerging Materials For High Voltage Applications - https://digital-library.theiet.org/files/HVE_CFP_EMHVA.pdf
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