  The current measurement of the Higgs mass, the ubiquitous nature of
loop-suppressed gaugino masses in gravity-mediated supersymmetry breaking,
relic dark matter density from $\sim$ TeV mass gauginos, together with the
success of supersymmetric gauge coupling unification, suggest that scalar
superpartner masses are roughly $m_{sc} \sim$ 100-1000 TeV. Higgsino masses, if
not at the Planck scale, should generically appear at the same scale. The
gaugino mass contributions from anomaly mediation, with the heavy Higgsino
threshold, generally leads to a more compressed spectrum than standard anomaly
mediation, while the presence of extra vector-like matter near $m_{sc}$
typically leads to an even more compressed spectrum. Heavy Higgsinos improve
gauge coupling unification relative to the MSSM. Heavy scalars suggest new
possibilities for flavor physics -- large flavor violations in the soft masses
are now allowed, yielding interesting levels for new FCNC's, and re-opening the
attractive possibility of a radiatively generated fermion mass hierarchy.
Gluinos and binos/winos must decay through higher dimension operators, giving a
unique handle on the presence of new physics the scale $m_{sc}$. Gluino decays
should be spectacular, for example yielding events with four tops -- at
modestly displaced vertices -- and two Higgses plus missing energy. The high
scale $m_{sc}$ can also be probed in flavor-violating gluino decays, as well as
a specific pattern of gluino branching ratios to the third generation. Finally,
with heavy Higgsinos, the dominant decay for neutral winos and binos proceeds
via the Higgs $\tilde b \to \tilde w h$. The heaviness of the Higgsinos can be
inferred from the branching ratio for the rare decay $\tilde b \to \tilde w Z$.
