  A degenerate sfermionic particle spectrum can escape constraints from flavor
physics, and at the same time evade the limits from the direct searches if the
degeneracy extends to the gaugino-higgsino sector. Inspired by this, we
consider a scenario where all the soft terms have an approximately common mass
scale at $M_{\text{SUSY}}$, with splittings $\lesssim \mathcal{O}(10\%)$. As a
result, the third generation sfermions have large to maximal (left-right)
mixing, the same being the case with charginos and some sectors of the
neutralino mass matrix. We study this scenario in the light of discovery of the
Higgs boson with mass $\sim$ 125 GeV. We consider constraints from $B$-physics,
the anomalous magnetic moment of the muon and the dark matter relic density. We
find that a supersymmetric spectrum as light as 600 GeV could be consistent
with all current data and also account for the observed anomalous magnetic
moment of the muon within $2\sigma$. The neutralino relic density is generally
too small to saturate the measured cold dark matter relic density. Direct
detection limits from XENON100 and LUX put severe constraints on this scenario
which will be conclusively probed by XENONnT experiment.
