Experimental Study of RF-Plasma Interaction Using a Low-Pressure DC Glow Discharge Tube for MPC

被引:1
|
作者
Khan, Asif Mehmood [1 ]
Ahmed, Muhammad Mansoor [1 ]
Rafique, Umair [2 ]
机构
[1] Capital Univ Sci & Technol, Dept Elect Engn, Islamabad 44000, Pakistan
[2] Univ Oulu, Fac Informat Technol & Elect Engn, Ctr Wireless Commun, Oulu 90570, Finland
关键词
RF-plasma; wave reflection; RF polarizer; COMSOL multiphysics; DC glow;
D O I
10.3390/electronics12030551
中图分类号
TP [自动化技术、计算机技术];
学科分类号
0812 ;
摘要
This paper aims to perform experimental validation of RF-plasma interaction behaviors for the purposes of wave transmission and reflection. Wave reflection from plasma is of interest as it finds applications in pulse compression and RF polarizer-based systems. Simulations are performed using a combination of Magic3D and COMSOL multiphysics to characterize the plasma-wave interaction and discharge tube properties. The goal is to generate plasma with characteristics that wholly reflect the incident electromagnetic wave. A glass tube of inner diameter 22 mm and length 100 mm, with 12 mm brass electrodes, is fabricated for plasma generation. Argon-based DC glow discharge is sustained at 500 volts at a pressure of 3.8 Torr. Plasma density is calculated to be 2.529x1019 m(-3), with a corresponding plasma frequency of 7.18 GHz. Due to this higher frequency, a 3 GHz incident RF wave is reflected, as measured through S-parameter measurements using a network analyzer. Off and on states of the tube correspond to S11=-40 dB and S11=-13 dB, which show wave transmission and reflection, respectively. When the plasma column is ignited, the reflected wave has a phase difference of 180 .
引用
收藏
页数:11
相关论文
共 50 条
  • [31] Investigation of the emission lines behaviour in the low-pressure nitrogen DC glow discharge
    Kylián, O
    Hrachová, V
    Kanka, A
    INTERNATIONAL CONFERENCE ON PHENOMENA IN IONIZED GASES, VOL III, PROCEEDINGS, 1999, : 49 - 50
  • [32] Thermal Effects of Low-Pressure Glow Discharge and Its Heat Transfer Through the Discharge Tube
    Liu, Xintong
    Fu, Yangyang
    Yang, Guolin
    Zhang, Zhijin
    Hu, Qin
    Hu, Jianlin
    Zhao, Zhihang
    Zhang, Liyang
    Liu, Zhigang
    Wang, Xinxin
    Jiang, Xingliang
    Li, Yutai
    IEEE TRANSACTIONS ON PLASMA SCIENCE, 2025, 53 (01) : 40 - 50
  • [33] Comparative study on the use of different metal electrodes in low-pressure glow discharge plasma sterilization
    Daseco, Joanna Abigael
    Pabeliña, Karel G.
    Siringan, Ma. Auxilia T.
    Ramos, Henry J.
    Plasma Medicine, 2014, 4 (1-4) : 1 - 10
  • [34] Influence of low-pressure glow discharge on laser-induced plasma spectra
    Karatodorov, S.
    Mihailov, V.
    Grozeva, M.
    18TH INTERNATIONAL SUMMER SCHOOL ON VACUUM, ELECTRON AND ION TECHNOLOGIES (VEIT2013), 2014, 514
  • [35] Initiation of a low-pressure glow discharge in a plasma electron source with a ribbon beam
    V. Ya. Martens
    Technical Physics, 1999, 44 : 860 - 861
  • [36] Surface Hardening of Massive Steel Products in the Low-pressure Glow Discharge Plasma
    Grigoriev, Sergey
    Metel, Alexander
    Volosova, Marina
    Melnik, Yury
    Ney, Htet A.
    Mustafaev, Enver
    TECHNOLOGIES, 2019, 7 (03)
  • [37] Initiation of a low-pressure glow discharge in a plasma electron source with a ribbon beam
    Martens, VY
    TECHNICAL PHYSICS, 1999, 44 (07) : 860 - 861
  • [38] Radial inhomogenity of plasma parameters in a low-pressure inductive RF discharge
    Kralkina, E. A.
    Nekliudova, P. A.
    Pavlov, V. B.
    Vavilin, K. V.
    Tarakanov, V. P.
    MOSCOW UNIVERSITY PHYSICS BULLETIN, 2014, 69 (01) : 86 - 91
  • [39] RADICAL ACCUMULATION IN POLYTETRAFLUOROETHYLENE PRODUCED BY A LOW-PRESSURE GLOW-DISCHARGE PLASMA
    PUCHKIN, YN
    BAIDAROVTSEV, YP
    VASILETS, VN
    PONOMAREV, AN
    HIGH ENERGY CHEMISTRY, 1983, 17 (04) : 286 - 288
  • [40] Characterization of the large area plane-symmetric low-pressure DC glow discharge
    Avtaeva, S.
    Gorokhovsky, V.
    Myers, S.
    Robertson, S.
    Shunko, E.
    Zembower, Z.
    SPECTROCHIMICA ACTA PART B-ATOMIC SPECTROSCOPY, 2016, 124 : 25 - 39