Relativistic magnetohydrodynamics (RMHD) provides an extremely useful description of the
low-energy long-wavelength phenomena in a variety of physical systems from quark–gluon …

We employ first-principles quantum field theoretical methods to investigate the longitudinal
and transverse electrical conductivities of a strongly magnetized hot quantum …

We compute the electrical conductivity of the strongly interacting medium in the presence of
strong magnetic background fields, e B= 4, 9 GeV 2, and for different values of the …

We calculate the transport coefficient of hadronic matter in the presence of temperature and
magnetic field using the linear sigma model. In the relaxation time approximation, we …

We have estimated parallel and perpendicular components of electrical conductivity and
shear viscosity of quark matter at finite magnetic field and temperature by using their one …

We investigate electrical charge transport in hot magnetized plasma using first-principles
quantum field theoretical methods. By employing Kubo's linear response theory, we express …

This study aims to develop second-order relativistic viscous magnetohydrodynamics (MHD)
derived from kinetic theory within an extended relaxation time approximation …

We have investigated the influence of the Coriolis force on the electrical conductivity of
hadronic matter formed in relativistic nuclear collisions, employing the hadron resonance …

We have gone through a detailed calculation of the two-point correlation function of vector
currents at finite density and magnetic field by employing the real time formalism of finite …

Electric charge transport of hadronic matter at finite temperature and magnetic field is
studied within the linear σ model. Anisotropic transport coefficients associated with the …