  We interpret the recent discovery of a 125 GeV Higgs-like state in the
context of a two Higgs doublets model with a heavy 4th sequential generation of
fermions, in which one Higgs doublet couples only to the 4th generation
fermions, while the second doublet couples to the lighter fermions of the
1st-3rd families. This model is designed to accommodate the apparent heaviness
of the 4th generation fermions and to effectively address the low-energy
phenomenology of a dynamical electroweak symmetry breaking scenario. The
physical Higgs states of the model are, therefore, viewed as composites
primarily of the 4th generation fermions. We find that the lightest Higgs, h,
is a good candidate for the recently discovered 125 GeV spin-zero particle,
when tan\beta ~ O(1), for typical 4th generation fermion masses of M_{4G} = 400
-600 GeV, and with a large t - t' mixing in the right-handed quarks sector.
This, in turn, leads to BR(t' -> t h) ~ O(1), which drastically changes the t'
decay pattern. We also find that, based on the current Higgs data, this two
Higgs doublet model generically predicts an enhanced production rate (compared
to the SM) in the pp -> h -> tau tau channel and a reduced VV -> h -> gamma
gamma and pp -> V -> Vh -> Vbb ones. Finally, the heavier CP-even Higgs is
excluded by the current data up to m_H ~ 500 GeV, while the pseudoscalar state,
A, can be as light as 130 GeV. These heavier Higgs states and the expected
deviations from the SM in some of the Higgs production channels can be further
excluded or discovered with more data.
