Comment on intense shock waves in monatomic gases

It is known that the wavefront of a shock wave in a shock tube becomes unstable at particular Mach numbers and unperturbed gas pressure. This instability leads to the distortion of the wave front, i.e. particular Mach numbers define a threshold beyond which the wavefront is no longer plane (see Anno...

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Veröffentlicht in:Journal of plasma physics 2001-07, Vol.66 (1-2), p.135-139
Hauptverfasser: HOUILI, H., TRIBECHE, M., ZERGUINI, T. H.
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creator HOUILI, H.
TRIBECHE, M.
ZERGUINI, T. H.
description It is known that the wavefront of a shock wave in a shock tube becomes unstable at particular Mach numbers and unperturbed gas pressure. This instability leads to the distortion of the wave front, i.e. particular Mach numbers define a threshold beyond which the wavefront is no longer plane (see Annou and Ferhat 1997, and references therein). In a recent paper (Annou and Ferhat 1997, subsequently referred to as AF), the authors proposed a microscopic model based on an ionization mechanism described by a set of two reaction–diffusion equations in an effort to interpret the wavefront distortion. Using an analytical approach, they argued that their equations have a bifurcation point beyond which the wavefront instability occurs and that the solution thus obtained describes the distortion of the wavefront. In this brief comment, we present analytical and numerical arguments supporting the fact that the proposed model, although it has an instability point, is unable to explain the front behavior.
doi_str_mv 10.1017/S0022377801001192
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subjects Electrical properties (ionization, breakdown, electron and ion mobility, etc.)
Exact sciences and technology
Ionization
Physics
Physics of gases
Physics of gases, plasmas and electric discharges
Physics of plasmas and electric discharges
Plasma physics
Shock waves
Shock waves and discontinuities
Waves, oscillations, and instabilities in plasmas and intense beams
title Comment on intense shock waves in monatomic gases
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