  We present results of global three-dimensional (3D) magnetohydrodynamic (MHD)
simulations of the accretion onto a magnetized star where both the magnetic and
rotational axes of the star are tilted about the rotational axis of the disc.
We observed that initially, the inner parts of the disc are warped due to the
magnetic interaction between the external regions of the magnetosphere and the
inner disc. Subsequently, larger parts of the disc become tilted and precess
about the rotational axis of the star. After a few precessional periods, the
disc becomes almost aligned with the equatorial plane of the star. This
alignment may result from the winding of the magnetic field lines about the
rotational axis of the star and the formation of a new magnetic configuration,
where the magnetic pressure force acts to align the disc. Another possible
explanation of this alignment is the magnetic Bardeen-Petterson effect where a
part of the disc, precessing about the rotational axis of the star, settles in
the equatorial plane due to the precessional and viscous torques in the disc.
