A Self-Consistent Two Temperatures Model for the Computation of Supersonic Argon Plasma Jets

Bartosiewicz, Yann;Proulx, Pierre;Mercadier, Yves
(2002) Journal of Physics D: Applied Physics — Vol. 35, n° 17, p. 2139-2148 (2002)

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  • Proulx, PierreUniversité de Sherbrooke, Québec, J1K2R1, Canada
    Author
  • Mercadier, YvesUniversité de Sherbrooke, Québec, J1K2R1, Canada
    Author
Abstract
This paper presents a two-temperature model for compressible plasma flows. This study concentrates on the behaviour of the plasma jet in the expansion region. The conditions used correspond to the conditions of low-pressure plasma spraying, with slightly supersonic conditions with thermal and chemical non-equilibrium. The flow dynamics results are analysed with different turbulence models and appear to be consistent with results previously published by the authors [3] on the dynamics of low-temperature air jets and favour the Reynolds stress turbulence model. Chemical as well as thermal non-equilibrium are studied.
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Bartosiewicz, Y., Proulx, P., & Mercadier, Y. (2002). A Self-Consistent Two Temperatures Model for the Computation of Supersonic Argon Plasma Jets. Journal of Physics D: Applied Physics, 35(17), 2139-2148. https://doi.org/10.1088/0022-3727/35/17/310 (Original work published 2002)