  We consider a supersymmetric model that uses partial compositeness to explain
the fermion mass hierarchy and predict the sfermion mass spectrum. The Higgs
and third-generation matter superfields are elementary, while the first two
matter generations are composite. Linear mixing between elementary superfields
and supersymmetric operators with large anomalous dimensions is responsible for
simultaneously generating the fermion and sfermion mass hierarchies. After
supersymmetry is broken by the strong dynamics, partial compositeness causes
the first- and second-generation sfermions to be split from the much lighter
gauginos and third-generation sfermions. This occurs even though the tree-level
soft masses of the elementary fields are subject to large radiative corrections
from the composite sector, which we calculate in the gravitational dual theory
using the AdS/CFT correspondence. The sfermion mass scale is constrained by the
observed 125 GeV Higgs boson, leading to stop masses and gauginos around 10-100
TeV and the first two generation sfermion masses around 100-1000 TeV. This
gives rise to a splitlike supersymmetric model that explains the fermion mass
hierarchy while simultaneously predicting an inverted sfermion mass spectrum
consistent with LHC and flavor constraints. Finally, the lightest
supersymmetric particle is a gravitino in the keV to TeV range, which can play
the role of dark matter.
