  We present a SUSY SU(5)xT' unified flavour model with type I see-saw
mechanism of neutrino mass generation, which predicts the reactor neutrino
angle to be \theta_{13} = 0.14 close to the recent results from the Daya Bay
and RENO experiments. The model predicts also values of the solar and
atmospheric neutrino mixing angles, which are compatible with the existing
data. The T' breaking leads to tri-bimaximal mixing in the neutrino sector,
which is perturbed by sizeable corrections from the charged lepton sector. The
model exhibits geometrical CP violation, where all complex phases have their
origin from the complex Clebsch-Gordan coefficients of T'. The values of the
Dirac and Majorana CP violating phases are predicted. For the Dirac phase in
the standard parametrisation of the neutrino mixing matrix we get a value close
to 90 degrees \delta = \pi/2 - 0.45 \theta^c = 84.3 degrees, \theta^c being the
Cabibbo angle. The neutrino mass spectrum can be with normal ordering (2 cases)
or inverted ordering. In each case the values of the three light neutrino
masses are predicted with relatively small uncertainties, which allows to get
also unambiguous predictions for the neutrino-less double beta decay effective
Majorana mass.
