  The evolution of magnetized quark gluon plasma (QGP) in the framework of
magneto-hydrodynamics is the focus of our study. We are investigating the
temporal and spatial evolution of QGP using a second order viscous hydrodynamic
framework. The fluid is considered to be magnetized and subjected to the
influence of a magnetic field that is generated during the early stages of
relativistic heavy ion collisions.We assume boost invariance along the beam
line, which is represented by the $z$ coordinate, and fluid expansion in the
$x$ direction. Additionally, we assume that the magnetic field is perpendicular
to the reaction plane, which corresponds to the $y$ direction. The fluid is
considered to have infinite electrical conductivity. To analyze this system, we
solve the coupled Maxwell and conservation equations. By doing so, we are able
to determine the time and space dependence of the energy density, velocity, and
magnetic field in the transverse plane of the viscous magnetized hot plasma.
Furthermore, we obtain the spectrum of hadrons and compare it with experimental
data.
