Preface | p. xiii |
Introduction | p. 1 |
Basic kinematic concepts | p. 10 |
Magnetic flux and magnetic helicity | p. 10 |
Conservation of magnetic topology | p. 14 |
Conditions for magnetic reconnection | p. 17 |
Conservation of magnetic helicity in reconnection | p. 21 |
Current sheets | p. 29 |
Resistive MHD | p. 30 |
The MHD equations | p. 30 |
Equilibrium and linear modes | p. 32 |
Conservation laws | p. 37 |
Reduced MHD models | p. 38 |
Resistive current sheets | p. 43 |
Current-sheet formation | p. 43 |
Basic properties of resistive current sheets | p. 52 |
Refined theory of the current-sheet structure | p. 55 |
Driven current-sheet reconnection | p. 59 |
Syrovatskii's theory of current sheets | p. 60 |
Dynamic structure of Y-points | p. 66 |
Scaling laws of stationary current-sheet reconnection | p. 69 |
Petschek's slow-shock model | p. 75 |
Resistive instabilities | p. 81 |
The resistive tearing mode | p. 82 |
Linear tearing instability | p. 85 |
Small-amplitude nonlinear behavior | p. 88 |
Saturation of the tearing mode | p. 91 |
Effect of dynamic resistivity | p. 95 |
Neoclassical tearing mode | p. 96 |
The double tearing mode | p. 99 |
The resistive kink mode | p. 103 |
Resistive kink instability | p. 104 |
Small-amplitude nonlinear evolution | p. 106 |
Final state of the resistive kink mode | p. 112 |
Coalescence instability | p. 114 |
Pressure-driven instabilities | p. 118 |
Interchange and ballooning modes | p. 118 |
Nonlinear evolution of pressure-driven modes | p. 125 |
Finite pressure effects on tearing modes | p. 128 |
Shear flow instability | p. 129 |
Shear flow instability in neutral fluids | p. 130 |
Effect of magnetic field on the Kelvin-Helmholtz instability | p. 133 |
Instability of a magnetized jet | p. 135 |
Instability of a resistive current sheet | p. 137 |
Threshold condition for tearing instability | p. 137 |
Plasmoids | p. 142 |
Dynamo theory | p. 145 |
Kinematic dynamo theory | p. 148 |
Nonexistence theorems and special dynamo solutions | p. 149 |
The rope dynamo | p. 151 |
Mean-field electrodynamics | p. 153 |
[alpha superscript 2]- and [alpha Omega]-dynamos | p. 155 |
Free dynamo modes | p. 159 |
Mean-field MHD dynamo theory | p. 161 |
Nonlinear quenching processes and magnetic buoyancy | p. 161 |
The solar dynamo | p. 164 |
MHD theory of thermal convection | p. 168 |
Thermal convection in a rotating sphere | p. 168 |
The self-consistent MHD dynamo | p. 173 |
The geodynamo | p. 179 |
MHD turbulence | p. 182 |
Homogeneous MHD turbulence | p. 182 |
Selective decay and energy decay laws | p. 184 |
Spatial scaling properties | p. 189 |
Homogenous turbulent dynamo | p. 197 |
Noncollisional reconnection processes | p. 199 |
Two-fluid theory | p. 201 |
High-[beta] whistler-mediated reconnection | p. 206 |
The EMHD approximation | p. 207 |
Properties of the reconnection region | p. 208 |
Coalescence of EMHD flux bundles | p. 212 |
Electron Kelvin--Helmholtz instability of the current layer | p. 215 |
Ion-controlled reconnection dynamics | p. 218 |
Low-[beta] noncollisional reconnection | p. 221 |
The four-field and three-field models | p. 221 |
Linear stability theory | p. 224 |
Nonlinear noncollisional kink mode | p. 229 |
Electron inertia-dominated reconnection | p. 229 |
Kinetic Alfven-wave-mediated reconnection | p. 232 |
Influence of diamagnetic effects | p. 237 |
Criterion for fast reconnection | p. 239 |
Sawtooth oscillation in tokamak plasmas | p. 241 |
Basic experimental observations | p. 241 |
The safety factor profile | p. 244 |
Stabilization and onset of sawtooth oscillations | p. 246 |
Observations of the collapse dynamics | p. 248 |
Theoretical interpretation of the sawtooth collapse | p. 250 |
Laboratory reconnection experiments | p. 252 |
The UCLA magnetic reconnection experiment | p. 253 |
The PPPL magnetic reconnection experiment | p. 254 |
The Tokyo University reconnection experiment | p. 256 |
Microscopic theory of magnetic reconnection | p. 258 |
Vlasov theory and microinstabilities | p. 259 |
Linear Vlasov theory | p. 260 |
Quasi-linear theory | p. 265 |
Mode coupling, resonance broadening, and particle trapping | p. 268 |
Turbulent transport coefficients | p. 272 |
Ion-sound instability | p. 274 |
Linear stability characteristics | p. 274 |
Nonlinear saturation and long-time behavior | p. 278 |
Lower-hybrid-drift instability (LHDI) | p. 285 |
Whistler anisotropy instability | p. 292 |
The collisionless tearing mode | p. 296 |
Linear stability theory | p. 298 |
Nonlinear saturation | p. 301 |
The ion tearing mode | p. 304 |
Particle simulation of collisionless reconnection | p. 307 |
Particle simulation methods | p. 307 |
Collisionless electron dynamics | p. 310 |
Collisionless ion dynamics | p. 312 |
GEM Magnetic Reconnection Challenge | p. 316 |
Three-dimensional simulations | p. 318 |
Magnetospheric substorms | p. 320 |
The structure of the magnetosphere | p. 321 |
The solar wind | p. 321 |
Magnetopause and bow shock | p. 325 |
The internal structure of the magnetosphere | p. 329 |
Magnetospheric convection | p. 333 |
Magnetopause reconnection | p. 336 |
Magnetospheric substorms | p. 339 |
Substorm-related observations | p. 340 |
MHD modeling of substorms | p. 343 |
Collisionless reconnection in the magnetotail | p. 350 |
Nonreconnective substorm model | p. 351 |
Particle acceleration by magnetotail reconnection | p. 353 |
Epilogue | p. 357 |
Bibliography | p. 359 |
Index | p. 381 |
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