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Operating regimes and structure of an atmospheric-pressure interelectrode microwave discharge in argon
Russian version
Antipov S. N. 1, Gadzhiev M. Kh. 1, Il'ichev M. V. 1, Tyuftyaev A. S. 1, Chepelev V. M. 1, Yusupov D. I. 1
1Joint Institute for High Temperatures, Russian Academy of Sciences, Moscow, Russia
Email: antipov@ihed.ras.ru, makhach@mail.ru, imvpl@mail.ru, astpl@mail.ru, chepelev@ihed.ras.ru, yusupovdi@ihed.ras.ru
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Continuous and pulse-periodic operating regimes and spatio-temporal structure of an atmospheric-pressure interelectrode microwave discharge in transverse argon flow were experimentally investigated for a hemisphere-to-plate electrodes configuration. A multielectrode plasma torch with a power of ~ 100 W was used as a gas-discharge device, electromagnetic energy to which was supplied from a waveguide-type microwave plasmatron operating on the basis of a magnetron with a frequency of 2.45 GHz. The discharge regime switching were carried out using a high-voltage three-phase magnetron power supply. In the continuous regime, fractal filamentation of near-electrode regions of a glow-type microwave discharge was described. Diagnostics of the regimes was conducted by floating potential oscillography of the microwave discharge flowing afterglow (cold plasma jet). Keywords: microwave plasmatron, atmospheric-pressure glow discharge, plasma diagnostics, discharge filamentation.
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