Electrical conductivity of hot relativistic plasma in a strong magnetic field
arXiv:2404.01388 · doi:10.1103/PhysRevD.110.096009
Abstract
We employ first-principles quantum field theoretical methods to investigate the longitudinal and transverse electrical conductivities of a strongly magnetized hot quantum electrodynamics (QED) plasma at the leading order in coupling. The analysis employs the fermion damping rate in the Landau-level representation, calculated with full kinematics and exact amplitudes of one-to-two and two-to-one QED processes. In the relativistic regime, both conductivities exhibit an approximate scaling behavior described by , where are functions of the dimensionless ratio (with denoting temperature and magnetic field strength). We argue that the mechanisms for the transverse and longitudinal conductivities differ significantly, leading to a strong suppression of the former in comparison to the latter.
7 pages, 1 figure; v3: final version accepted for publication in Phys. Rev. D
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