  Using the most recent results of CMS and ATLAS, we study the Higgs decays to
$\gamma\gamma$ and $Z\gamma$ in the scenario where the two CP even Higgs
predicted by the type II seesaw model (HTM) are close to mass degenerate with a
mass near $125$ GeV. We analyse the effects of the Higgs potential parameters
constrained by the full set of perturbative unitarity, boundedness from below
(BFB) as well as from precision electroweak measurements on these decay modes.
Our analysis demonstrates that the observed excess in the diphoton Higgs decay
channel can be interpreted in our scenario within a delineated region
controlled by $\lambda_{1}$ and $\lambda_{4}$ coupling. We also find a
deviation in the Higgs decay to $Z\gamma$ with respect to the Standard Model
prediction and the largest enhancement is found for a ratio $R_{Z\gamma}$ of
the order $1.6$. Furthermore we show that consistency with current ATLAS data
on the diphoton decay channel favours a light doubly charged Higgs with mass in
the range $92 - 180$~GeV. Finally, we find that the $\gamma\gamma$ and $Z
\gamma$ Higgs decay modes are generally correlated and the magnitude of
correlation is sensitive to the sign of the $\lambda_{1}$ parameter.
