The structure of stationary, axisymmetric
advection-dominated accretion disk (ADAF) around rotating
black hole, using non-standard model, was examined.
In this model, the transport efficiency of the angular momentum
α was dependent on the magnetic Prandtl number
α ∝ Pm
. The full relativistic shear stress recently obtained
by a new manner, was used. By considering black hole spin
and Prandtl number instantaneously, the structure of ADAFs
was changed in inner and outer region of the disk. It was discovered
that the accretion flow was denser and hotter in the
inner region, due to the black hole spin, and in the outer
region, due to the presence of Prandtl parameter. Inasmuch
as the rotation of the black hole affected the transport efficiency
of angular momentum in parts of the disk very close
to the even horizon, then in these regions, the viscosity depended
on the rotation of black hole. Also, it was discovered
that the effect of the black hole spin on the structure of the
disk was related to the presence of Prandtl parameter.