基于实验的自洽模型对产生的等离子体表面波功率平衡方程的评述

J. Margot-Chaker, M. Moisan, C. Barbeau
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引用次数: 0

摘要

只有摘要形式。作者一直在对高频放电的关键参数之一θ进行广泛的实验研究,θ代表维持电子-离子对的平均耗散功率。一个自洽模型(耦合波和等离子体方程)可以用来预测观察到的θ的行为,特别是关于θ /p与pa的相似律是否被遵守。然而,对实验结果的仔细检查表明,差异可能与电子能量分布函数(EEDF)的频率依赖性有关。在该模型中,反映EEDF的另一个重要因素是动量传递的有效碰撞频率nu。由于电子密度的轴向分布可以被预测,因此同时知道θ和nu可以使放电完全建模。从观测到的θ和nu可以估计出有效电场强度值,并可以定性地推导出EEDF随频率的变化规律。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A critical review based on experiments of the self-consistent modelling leading to the power balance equation of surface waves produced plasmas
Summary form only. The authors have been conducting an extensive experimental study on one of the key parameters of high-frequency discharges, theta , which represents the average power dissipated to maintain an electron-ion pair. A self-consistent model (coupling the wave and plasma equations) can be used to predict the observed behavior of theta , especially in regard to whether the similarity law theta /p versus pa is obeyed. However, a closer examination of the experimental results shows discrepancies that could be connected with the frequency dependence of the electron energy distribution function (EEDF). In this model, another important factor that reflects the EEDF is the effective collision frequency for momentum transfer, nu . Knowledge of both theta and nu allows the discharge to be modeled completely, since the axial distribution of the electron density can then be predicted. An effective electric field intensity value can be estimated from the observed theta and nu , and the behavior of the EEDF with frequency can be qualitatively deduced.<>
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