  We attempt to reconcile seemingly conflicting experimental results on the
Higgs boson mass, the anomalous magnetic moment of the muon, null results in
search for supersymmetry at the LHC within the 8\TeV data and results from
$B$-physics, all within the context of supersymmetric grand unified theories.
Specifically, we consider a supergravity grand unification model with
non-universal gaugino masses where we take the $\mathrm{SU}(3)_C$ gaugino field
to be much heavier than the other gaugino and sfermion fields at the
unification scale. This construction naturally leads to a large mass splitting
between the slepton and squark masses, due to the mass splitting between the
electroweak gauginos and the gluino. The heavy Higgs bosons and Higgsinos also
follow the gluino toward large masses. We carry out a Bayesian Monte Carlo
analysis of the parametric space and find that it can simultaneously explain
the large Higgs mass, and the anomalous magnetic moment of the muon, while
producing a negligible correction to the Standard Model prediction for
$\mathcal{B}r(B^0_s\to\mu^+\mu^-)$. We also find that the model leads to an
excess in the Higgs diphoton decay rate. A brief discussion of the possibility
of detection of the light particles is given. Also discussed are the
implications of the model for dark matter.
