Physical Review Letters · 1995 · 85 citations · 10 references
Natural SciencesPhysicsFusion EngineeringNuclear PhysicsPlasma PhysicsFusion PlasmasMagnetic Confinement FusionMagnetized PlasmaMagnetohydrodynamicsNonlinear Plasma DynamicsPlasma SimulationBallooning InstabilityDisruption PhysicsDisruptions In TokamaksMagnetic Flux SurfacesStability Of Magnetic IslandsTokamak PhysicsTokamak PlasmasTokamak Stability
Three-dimensional magnetohydrodynamic simulations of high-\ensuremath{\beta} plasmas show that toroidally localized high- $n$ ballooning modes can be driven unstable by the local pressure steepening that arises from the evolution of low- $n$ modes. Nonlinearly, the high- $n$ mode becomes even more localized and produces a strong local pressure bulge that destroys the flux surfaces resulting in a thermal quench. The flux surfaces then recover temporarily but now contain large magnetic islands. This scenario is supported by experimental data.
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