Preface | p. ix |
Introduction | p. 1 |
Stability of strong discontinuities | p. 1 |
Standard physical approach to the stability problem | p. 2 |
"Equational" approach | p. 3 |
Basic steps of the "equational" approach to the stability analysis | p. 7 |
Symmetrization of quasilinear systems of conservation laws | p. 7 |
Equations of strong discontinuity | p. 11 |
Setting of the linearized stability problem | p. 12 |
Linearization of quasilinear equations and jump conditions | p. 12 |
Evolutionarity condition as the necessary one for well-posedness | p. 14 |
Important remarks on evolutionary (classical) and nonevolutionary (nonclassical) discontinuities | p. 15 |
Classical Lax discontinuities | p. 16 |
Separating of instability domains | p. 17 |
Uniform linearized stability | p. 21 |
Uniform Lopatinski condition | p. 22 |
Concept of uniform stability | p. 25 |
A priori estimates for the LSP | p. 26 |
Passage to nonlinear stability | p. 27 |
Neutral stability | p. 28 |
Method of dissipative energy integrals | p. 32 |
Advantages of the "equational" approach | p. 34 |
Equations of ideal magneto- and electrohydrodynamics | p. 37 |
Equations of magnetohydrodynamics for an ideal medium | p. 37 |
Equations of magnetohydrodynamics with anisotropic pressure | p. 39 |
Equations of electrohydrodynamics for an ideal medium | p. 43 |
Symmetrization of MHD equations | p. 47 |
Symmetric form of the MHD equations (3.1)-(3.4) and its properties | p. 47 |
Symmetrization of the MHD equations (3.1)-(3.4) | p. 47 |
Local estimates for smooth periodic solutions to the Cauchy problem | p. 53 |
Symmetrization of MHD equations with anisotropic pressure | p. 60 |
Strong discontinuities in magneto- and electrohydrodynamics | p. 69 |
Strong discontinuities in MHD | p. 69 |
Equations of MHD strong discontinuities | p. 69 |
Classification of MHD strong discontinuities | p. 70 |
Strong discontinuities in plasma with anisotropic pressure | p. 73 |
Equations of strong discontinuities in MHD CGL | p. 73 |
Classification of strong discontinuities in MHD CGL | p. 74 |
Deduction of the analog of the Hugoniot adiabat for MHD CGL | p. 76 |
Strong discontinuities in EHD | p. 79 |
Setting of main linearized stability problems in magneto- and electrohydrodynamics | p. 81 |
Setting of the main LSP for MHD strong discontinuities | p. 81 |
Magnetoacoustic system | p. 81 |
The main LSP for MHD strong discontinuities | p. 84 |
Setting of the main LSP for strong discontinuities in MHD CGL | p. 86 |
Linear system of MHD with anisotropic pressure | p. 86 |
The main LSP for strong discontinuities in MHD CGL | p. 90 |
Setting of the main LSP for EHD shock waves | p. 93 |
Linear EHD system for a polytropic gas | p. 93 |
The main LSP for EHD shock waves | p. 95 |
Evolutionarity analysis for shock waves in magneto- and electrohydrodynamics | p. 99 |
Evolutionary shock waves in MHD | p. 99 |
Fast MHD shock wave | p. 101 |
Slow MHD shock wave | p. 105 |
Evolutionary shock waves in MHD CGL | p. 107 |
Fast shock wave in MHD CGL | p. 110 |
Slow shock wave in MHD CGL | p. 114 |
EHD shock waves | p. 115 |
Stability of fast MHD shock waves | p. 119 |
Setting of the LSP for fast MHD shock waves | p. 121 |
Uniform stability of fast MHD shocks under a weak magnetic field | p. 127 |
On 3-D stability | p. 137 |
Uniform stability condition for fast parallel MHD shock waves | p. 145 |
The LSP for fast parallel shocks | p. 145 |
The LC and the ULC for hyperbolic IBVP's with the 1-shock property | p. 147 |
The LC for Problem 8.4.1 | p. 150 |
The ULC for Problem 8.4.1 | p. 152 |
A complete 2-D stability analysis of fast MHD shocks in a polytropic gas | p. 155 |
Numerical testing of the LC and the ULC | p. 155 |
Numerical investigation of the stability of fast MHD shocks | p. 159 |
Concluding remarks | p. 163 |
Stability of slow MHD shock waves | p. 167 |
Setting of the LSP for slow MHD shock waves | p. 167 |
Instability of slow MHD shocks under a strong magnetic field | p. 170 |
Stability of MHD contact discontinuity | p. 179 |
Setting of the LSP for contact discontinuity | p. 179 |
Uniform stability of MHD contact discontinuity | p. 184 |
Stability of rotational discontinuity in MHD | p. 187 |
Setting of the LSP for rotational discontinuity | p. 188 |
Equivalent statements of Problem 11.1.1 | p. 193 |
Instability of rotational discontinuity under a strong magnetic field | p. 198 |
Stability of MHD tangential discontinuity | p. 203 |
Setting of the LSP for tangential discontinuity | p. 204 |
Ill-posedness of Problem 12.1.1 | p. 214 |
Stability of MHD shock waves in a collisionless magnetized plasma | p. 221 |
Setting of the LSP for fast MHD CGL shock waves | p. 222 |
Uniform stability of the fast parallel MHD CGL shock wave | p. 227 |
Weak stability of the fast perpendicular MHD CGL shock wave. Sufficient condition for uniform stability | p. 229 |
Setting of the LSP for slow MHD CGL shock waves | p. 231 |
Instability of the slow parallel MHD CGL shock wave in a cold plasma | p. 236 |
Stability of rotational discontinuity in MHD CGL | p. 241 |
Setting of the LSP for rotational discontinuity in MHD CGL | p. 241 |
Equivalent statements of Problem 14.1.1 | p. 249 |
Instability of rotational discontinuity in a cold plasma | p. 254 |
Stability of EHD shock waves | p. 259 |
The LSP for EHD shock waves | p. 259 |
Uniform stability of EHD shock waves under a small surface charge | p. 262 |
Shock waves in relativistic MHD | p. 275 |
Equations of relativistic MHD | p. 276 |
Symmetric form and hyperbolicity conditions | p. 277 |
Shock waves in relativistic MHD: the LSP for parallel shocks | p. 279 |
A Complete stability analysis of fast parallel shocks for an arbitrary state equation | p. 284 |
Instability domain for fast parallel relativistic MHD shock waves | p. 284 |
Uniform stability domain for fast parallel relativistic MHD shock waves | p. 288 |
References | p. 293 |
Index | p. 305 |
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