Simulation of nonstationary phenomena in atmospheric-pressure glow discharge

被引:0
|
作者
Yu. D. Korolev
O. B. Frants
V. O. Nekhoroshev
A. I. Suslov
V. S. Kas’yanov
I. A. Shemyakin
A. V. Bolotov
机构
[1] Russian Academy of Sciences,Institute for High
[2] National Research Tomsk State University,Current Electronics, Siberian Branch
[3] Tomsk Polytechnic University,undefined
来源
Plasma Physics Reports | 2016年 / 42卷
关键词
D O I
暂无
中图分类号
学科分类号
摘要
Nonstationary processes in atmospheric-pressure glow discharge manifest themselves in spontaneous transitions from the normal glow discharge into a spark. In the experiments, both so-called completed transitions in which a highly conductive constricted channel arises and incomplete transitions accompanied by the formation of a diffuse channel are observed. A model of the positive column of a discharge in air is elaborated that allows one to interpret specific features of the discharge both in the stationary stage and during its transition into a spark and makes it possible to calculate the characteristic oscillatory current waveforms for completed transitions into a spark and aperiodic ones for incomplete transitions. The calculated parameters of the positive column in the glow discharge mode agree well with experiment. Data on the densities of the most abundant species generated in the discharge (such as atomic oxygen, metastable nitrogen molecules, ozone, nitrogen oxides, and negative oxygen ions) are presented.
引用
收藏
页码:592 / 600
页数:8
相关论文
共 50 条
  • [1] Simulation of nonstationary phenomena in atmospheric-pressure glow discharge
    Korolev, Yu. D.
    Frants, O. B.
    Nekhoroshev, V. O.
    Suslov, A. I.
    Kas'yanov, V. S.
    Shemyakin, I. A.
    Bolotov, A. V.
    [J]. PLASMA PHYSICS REPORTS, 2016, 42 (06) : 592 - 600
  • [2] Atmospheric-Pressure Glow Discharge Treatment of Water
    A. A. Ivannikov
    V. M. Lelevkin
    A. V. Tokarev
    V. A. Yudanov
    [J]. High Energy Chemistry, 2003, 37 : 115 - 118
  • [3] Atmospheric-pressure glow discharge treatment of water
    Ivannikov, AA
    Lelevkin, VM
    Tokarev, AV
    Yudanov, VA
    [J]. HIGH ENERGY CHEMISTRY, 2003, 37 (02) : 115 - 118
  • [4] AN ATMOSPHERIC-PRESSURE GLOW-DISCHARGE IONIZATION SOURCE
    SOFER, I
    ZHU, JZ
    LEE, HS
    ANTOS, W
    LUBMAN, DM
    [J]. APPLIED SPECTROSCOPY, 1990, 44 (08) : 1391 - 1398
  • [5] Interelectrode microwave glow discharge in atmospheric-pressure argon flow
    Antipov, S. N.
    Gadzhiev, M. Kh
    Sargsyan, M. A.
    Tereshonok, D., V
    Tyuftyaev, A. S.
    Yusupov, D., I
    Chistolinov, A., V
    Abramov, A. G.
    Ugryumov, A., V
    [J]. PHYSICA SCRIPTA, 2023, 98 (02)
  • [6] Atmospheric-Pressure Glow Discharge Sustained by a Resonant Power Supply
    Ding, Weidong
    Li, Feng
    Yang, Lanjun
    [J]. IEEE TRANSACTIONS ON PLASMA SCIENCE, 2009, 37 (11) : 2207 - 2212
  • [7] Decomposition of toluene in a steady-state atmospheric-pressure glow discharge
    Trushkin, A. N.
    Grushin, M. E.
    Kochetov, I. V.
    Trushkin, N. I.
    Akishev, Yu. S.
    [J]. PLASMA PHYSICS REPORTS, 2013, 39 (02) : 167 - 182
  • [8] On the increase in the limiting current of an atmospheric-pressure glow discharge in an argon flow
    Baldanov, B. B.
    Ranzhurov, Ts. V.
    [J]. TECHNICAL PHYSICS, 2014, 59 (04) : 621 - 623
  • [9] Decomposition of toluene in a steady-state atmospheric-pressure glow discharge
    A. N. Trushkin
    M. E. Grushin
    I. V. Kochetov
    N. I. Trushkin
    Yu. S. Akishev
    [J]. Plasma Physics Reports, 2013, 39 : 167 - 182
  • [10] Visual observations of an atmospheric-pressure solution-cathode glow discharge
    Schwartz, Andrew J.
    Ray, Steven J.
    Elish, Eyal
    Storey, Andrew P.
    Rubinshtein, Arnon A.
    Chan, George C. -Y.
    Pfeuffer, Kevin P.
    Hieftje, Gary M.
    [J]. TALANTA, 2012, 102 : 26 - 33