  The purpose of this paper is to investigate the use of the TDHF method with
different Skryme force interactions for the prediction of the M1 strength
function associated with $^{52}$Cr, in particular due to the tensor part of the
Skyrme force.$^{52}$Cr was chosen due to the recent interest experimentally in
this nucleus and the clear data avaliable for comparison.
  The method used involves applying an instantaneous boost to the wavefunction
at the beginning of the dynamical calculations in order to initiate a broadband
excitation of the nucleus, following which a Fourier analysis is made.
  The results of the TDHF simulation found broad agreement with experiment for
the range of energies which excite an M1 transition for a variety of forces.
The tensor terms appear to be important in qualitatively changing the details
of the strength distribution in the main part of the strength function between
around 8 and 12 MeV.
