Characteristics and mechanisms of streamer discharge in liquids under micro/nano-second pulsed voltages: status and advances

Q4 Engineering 强激光与粒子束 Pub Date : 2021-06-15 DOI:10.11884/HPLPB202133.210190
Li Yuan, Wen Jia-Ye, Li Lin-bo, Gao Jing, Shi Yaxuan, Liu Zhihao, Zhang Guan-jun
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引用次数: 1

Abstract

The studies on discharges in liquid dielectrics have been continuously gaining great attentions in the field of high voltage and insulation engineering. Profound understandings of the characteristics and mechanism of micro/nano-second pulsed discharge in liquids are prerequisites to the innovation and breakthrough of various cutting-edge applications, e.g., optimized electrical equipment design, deep ocean explorations, advanced material synthesis. In this review, we summarize the recent progress in the investigations of characteristics and mechanisms of micro/nano-second pulsed streamer discharge in liquid dielectrics. Fundamental characteristics of streamer discharge are elucidated including discharge modes and transition, branching characteristic, and breakdown. The contributing factors on the streamer characteristics, such as liquid conductivity, pressure, dissolved gas, impurities and additives, are analyzed. Prevailing mechanisms of initiation and propagation of streamer discharge in liquids as well as their application scenarios are discussed, including bubble theory, direct impact ionization, field molecular ionization, electrostriction, etc. Further, we expect the prospects and challenges of liquid discharge to enlighten fundamental researches and engineering applications in the relevant fields.
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微纳秒脉冲电压下液体流光放电特性及机理研究进展
液体介质的放电问题一直是高压和绝缘工程领域的研究热点。深入理解液体中微纳秒脉冲放电的特性和机理是创新和突破电气设备优化设计、深海勘探、先进材料合成等各种前沿应用的先决条件。本文综述了近年来在液体介质中微纳秒脉冲流放电特性和机理的研究进展。阐述了流放电的基本特性,包括放电模式和过渡、分支特性和击穿。分析了影响拖缆特性的因素,如液体电导率、压力、溶解气体、杂质和添加剂。讨论了流光放电在液体中产生和传播的主要机理及其应用场景,包括气泡理论、直接冲击电离、场分子电离、电致伸缩等。此外,我们期望液体排放的前景和挑战对相关领域的基础研究和工程应用有所启发。
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强激光与粒子束
强激光与粒子束 Engineering-Electrical and Electronic Engineering
CiteScore
0.90
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11289
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