Effect of Plasma Parameters on Monopole Plasma Antenna Performance

A. N. Dagang, N. F. Ramli, N. S. Alias, M. Ali
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引用次数: 1

Abstract

The research is focused on determining the plasma parameters such as electron temperature and density, and plasma and collision frequencies, that can be applied on plasma antenna simulation. From the characteristics of plasma parameters obtained, the antenna parameters are then investigated. The Ar-Hg discharge tube is used, and energized by using a high voltage power supply. The plasma parameters are obtained by using numerical programming namely Glomac based on the different voltage, current, pressure and size diameter of the discharge tube. Plasma antenna parameters are characterized by using Computer Simulation Technology (CST) software with different plasma frequency, gas pressure, tube size and material used to analyze the antenna performance. The plasma and collision frequencies are calculated based on the plasma parameter obtained from Glomac programming. It shows that the electron temperature decrease while electron density increase when the current is increased. The gas pressure and diameter of tubes are also influences the plasma parameters. From CST simulation, the antenna's performance can be analyzed in terms of return loss, resonant frequency, bandwidth, gain, and radiation pattern. The plasma frequency increase when the electron density increases. By changing the plasma frequency, gas pressure and tube diameter, the antenna performance can be improved in particular at their return loss, gain, directivity and conductivity. In addition, the efficiency of the plasma column as a radiating element is related to the conductivity of the plasma. From this study, the characteristics of the monopole plasma antenna is investigated and evaluated.
等离子体参数对单极等离子体天线性能的影响
研究重点是确定可用于等离子体天线仿真的等离子体参数,如电子温度和密度、等离子体和碰撞频率等。根据得到的等离子体参数特征,对天线参数进行了研究。采用氩汞放电管,并通过高压电源供电。根据放电管的不同电压、电流、压力和直径大小,通过数值编程(Glomac)得到了等离子体参数。采用CST (Computer Simulation Technology)软件对等离子体天线参数进行了表征,采用不同的等离子体频率、气体压力、管径和材料对天线性能进行了分析。根据Glomac规划得到的等离子体参数计算等离子体频率和碰撞频率。结果表明,随着电流的增大,电子温度降低,电子密度增加。气体压力和管道直径对等离子体参数也有影响。通过CST仿真,可以从回波损耗、谐振频率、带宽、增益和辐射方向图等方面分析天线的性能。等离子体频率随电子密度的增加而增加。通过改变等离子体频率、气体压力和管径,可以改善天线的性能,特别是回波损耗、增益、指向性和电导率。此外,等离子体柱作为辐射元件的效率与等离子体的电导率有关。在此基础上,对单极等离子体天线的特性进行了研究和评价。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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