  We analyze lepton flavour violation (LFV), as well as generation of the
observed baryon-antibaryon asymmetry of the Universe (BAU) within a generalized
minimal lepton flavour violation (MLFV) framework where we allow for CP
violation both at low and high energies. The generation of BAU is obtained
through radiative resonant leptogenesis (RRL), where starting with three
exactly degenerate right-handed neutrinos at Lambda_GUT, we demonstrate
explicitly within the SM and the MSSM that the splittings between their masses
at the see-saw scale M_nu, generated by renormalization group effects, are
sufficient for a successful leptogenesis for M_nu even as low as 10^6 GeV. The
inclusion of flavour effects plays an important role in this result and can
lead to the observed BAU even in the absence of CP violation beyond the PMNS
phases. The absence of a stringent lower bound on M_nu in this type of
leptogenesis allows to easily satisfy present and near future upper bounds on
mu -> e gamma and other charged lepton flavour violating (LFV) processes even
for Lambda_LFV = O(1 TeV). We find, that the MLFV framework in the presence of
heavy right-handed neutrinos and leptogenesis is not as predictive as MFV in
the quark sector and point out that without a specific MLFV model, there is a
rich spectrum of possibilities for charged LFV processes and for their
correlation with low energy neutrino physics and the LHC physics, even if the
constraint from the observed BAU is taken into account. While certain
qualitative features of our analysis confirm findings of Cirigliano et al., at
the quantitative level we find phenomenologically important differences. We
explain the origin of these differences.
