  The first order hydrodynamic evolution equations for the shear stress tensor,
the bulk viscous pressure and the charge current have been studied for a system
of quarks and gluons, with a non-vanishing quark chemical potential and finite
quark mass. The first order transport coefficients have been obtained by
solving an effective Boltzmann equation for the grand-canonical ensemble of
quasiquarks and quasigluons. We adopted temperature dependent effective
fugacity for the quasiparticles to encode the hot QCD medium effects. The
non-trivial energy dispersion of the quasiparticles induces mean field
contributions to the transport coefficients whose origin could be directly
related to the realization of conservation laws from the effective kinetic
theory. Both the QCD equation of state and chemical potential are seen to have
a significant impact on the quark-gluon plasma evolution. The shear and bulk
viscous corrections to the entropy-four current have been investigated in the
framework of the effective kinetic theory. The effect of viscous corrections to
the entropy density have been quantified in the case of one dimensional
boost-invariant expansion of the system. Further, the first order viscous
corrections to the time evolution of temperature along with the description of
pressure anisotropy and Reynolds number of the system have been explored for
the longitudinal boost-invariant expansion.volution of temperature along with
the description of pressure anisotropy of the system have also been explored.
