液体放电等离子体和冲击波特性的数值分析

Q4 Engineering 强激光与粒子束 Pub Date : 2021-07-15 DOI:10.11884/HPLPB202133.200321
Yu Qing, Z. Hui, M. Danni
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引用次数: 0

摘要

基于能量守恒方程,描述了不同电导率模型下等离子体圆柱形几何结构的通道特性。获得了通道半径、温度、电阻、电流和耗散能量随时间的变化。给出了在离放电间隙中心一定距离处冲击波压力的变化。将结果与基于等离子体通道的球形几何形状计算的结果进行了比较。本文的目的是为进一步研究液体放电的物理化学特性和冲击波特性提供参考。结果表明,将等离子体通道分别视为球体和圆柱体时,通道压力和半径存在显著差异,但其他物理性质差异不大。当使用三个电导率模型来描述除冲击波特性外的物理特性时,变化趋势几乎相同,而使用电导率模型σ2来更准确地描述冲击波特性。通过比较电参数和压力参数的变化,可以根据实验数据或具体研究问题选择模型的适用性,也为进一步研究放电等离子体在液体中的物理化学特性和冲击波特性提供了参考。
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Numerical analysis of plasma and shock wave characteristics of the discharge in liquid
Based on conservation equation of energy, channel characteristics of the cylindrical geometry of the plasma were described under different conductivity models. The variation of the channel radius, temperature, resistance, current and dissipated energy with time is obtained. The variation of shock wave pressure at a certain distance from the center of the discharge gap is also given. The results are compared with those calculated based on the spherical geometry of the plasma channel. The purpose of this paper is to provide a reference for further study of physical and chemical characteristics and shock wave characteristics of the discharge in liquid. The results show that there is significant difference in the channel pressure and radius when the plasma channel is respectively regarded as a sphere and a cylinder, but there is little difference in other physical properties. When the physical characteristics except the shock wave characteristic are described by using three conductivity models, the change trend is almost the same, while the shock wave characteristic is described more accurately by using the conductivity model σ2. By comparing the changes of electrical parameters and pressure parameters, the applicability of the model can be selected according to the experimental data or specific research problems, which also provides a reference for further study of the physicochemical characteristics and shock wave characteristics of discharge plasma in liquid.
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来源期刊
强激光与粒子束
强激光与粒子束 Engineering-Electrical and Electronic Engineering
CiteScore
0.90
自引率
0.00%
发文量
11289
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