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Journal ArticleDOI

Shock waves in arbitrary fluids

Hermann Weyl
- 01 Jun 1949 - 
- Vol. 2, pp 103-122
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TLDR
In this article, the authors investigated the general hydrodynamical and thermodynamic foundations of the shock phenomenon and showed that the initial state and final state of a fluid are singular points for the differential equations of the fluid's shock layer.
Abstract
The following investigation tries to clear up the general hydrodynamical and thermodynamical foundations of the shock phenomenon.1 The first part, Sections 2–5, answers the question: What are the conditions for the equation of state of a fluid under which shocks with their distinctive qualitative features may be produced. These conditions, enumerated in Section 3, are partly of differential, partly of global nature. The second part, Sections 6–7, investigates the physical structure of the shock layer whose “infinitesimal” width is of the order of magnitude e provided heat conductivity and viscosity are small of the same order. Initial state and final state are singular points for the differential equations of the shock layer, and it is shown that they are of such a nature as to make one expect the problem to have a unique solution.

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The Riemann problem for fluid flow of real materials

TL;DR: In this article, the properties of the isentropes and the shock Hugoniot loci that follow from conditions imposed on the equation of state are reviewed systematically, and additional questions related to shock stability and nonuniqueness of the solution of the Riemann problem are discussed.
Journal ArticleDOI

The Riemann problem for general systems of conservation laws

TL;DR: In this article, the authors considered the Riemann problem for general n-conservation laws and proved uniqueness and existence theorems subject to condition (E), which is equivalent to Lax's shock inequalities when the system is "genuinely nonlinear".
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The profile of a steady plane shock wave

TL;DR: In this paper, it was shown that a continuous solution of the differential equations can be approximated by a sequence of smooth initial functions, and the time of breakdown of each succeeding smooth wave will approach the initial instant, so that no limit exists which could be termed propagation of the initial discontinuity.
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