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Numerical solution of nonlinear electron kinetic equation in self-similar variables

  • I. F. POTAPENKO (a1) and S. I. KRASHENINNIKOV (a2)

Abstract

We present numerical solution of a fully nonlinear electron kinetic equation in self-similar variables, which on the one hand has all features of a ‘standard’ hydrodynamics (ratios of the electron mean free path to the scale length γ ≡ λC/L 1), and on the other hand has no restriction on the smallness of the parameter γ. The self-similar variable approach reduces dimensionality of the space-dependent kinetic equation, thereby providing numerical analysis of the electron heat transport in the velocity space. The electron distribution structure and its super thermal power-law tail are examined.

PACS number(s): 52.25.Dg, 52.65.Ff, 52.50.-b

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Numerical solution of nonlinear electron kinetic equation in self-similar variables

  • I. F. POTAPENKO (a1) and S. I. KRASHENINNIKOV (a2)

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