Collisional tearing in a field-reversed sheet pinch assuming nonparallel propagation

Physics

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Collisional Plasmas, Earth Magnetosphere, Magnetohydrodynamic Stability, Plasma Pinch, Reverse Field Pinch, Tearing Modes (Plasmas), Collisionless Plasmas, Magnetic Effects, Magnetic Field Configurations, Perturbation Theory, Plasma Equilibrium, Plasma Waves, Wave Propagation

Scientific paper

Linear tearing in a collisional reversed-field sheet pinch is examined assuming that the wave vector k is not parallel to the equilibrium magnetic field. Equilibrium and magnetic geometry are defined, and a set of perturbed moment equations is derived assuming quasi-parallel propagation. It is shown that the usual expression for collisional growth is recovered, assuming that k sub y = 0. It is shown that the y component of momentum balance requires the generation of nonzero dJ sub x well away from the null, and an interial coupling when z not equal to 0. The effects of k sub y not equal to 0 on the growth rate are discussed.

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