  An intense transient magnetic field is produced in high energy heavy-ion
collisions mostly due to the spectator protons inside the two colliding
nucleus. The magnetic field introduces anisotropy in the medium and hence the
isotropic scalar transport coefficients become anisotropic and split into
multiple components. Here we calculate the anisotropic transport coefficients
shear, bulk viscosity, electrical conductivity, and the thermal diffusion
coefficients for a multicomponent Hadron- Resonance-Gas (HRG) model for a
non-zero magnetic field by using the Boltzmann transport equation in a
relaxation time approximation (RTA). The anisotropic transport coefficient
component along the magnetic field remains unaffected by the magnetic field,
while perpendicular dissipation is governed by the interplay of the collisional
relaxation time and the magnetic time scale, which is inverse of the cyclotron
frequency. We calculate the anisotropic transport coefficients as a function of
temperature and magnetic field using the HRG model. The neutral hadrons are
unaffected by the Lorentz force and do not contribute to the anisotropic
transports, we estimate within the HRG model the relative contribution of
isotropic and anisotropic transports as a function of magnetic field and
temperature. We also give an estimation of these anisotropic transport
coefficients for the hadronic gas at finite baryon chemical potential.
