  One way to suppress flavor changing neutral currents or CP violating
processes in supersymmetry is to make at least some of the first two
generations' scalars superheavy (above ~20 TeV). We summarize the motivations
and challenges, theoretically and phenomenologically, for superheavy
supersymmetry. We then argue for more viable alternatives on the superheavy
theme and are led to models where the heavy spectrum follows a pattern of
masses similar to what arises from gauge-mediation or with a "hybrid" spectrum
of light and heavy masses based on each particle's transformation under a
global SU(5). In the end, despite the differences between the competing ideas,
a self-consistent natural theory with superheavy masses seems to prefer
low-energy supersymmetry breaking with possible correlations among the light
sparticle masses. The resulting light gravitino and its couplings to matter
could also impact the discovery capabilities and analyses of these models at
colliders. In addition, we comment on how the presence of superheavy states may
influence the light spectrum, and how this may help efforts to distinguish
between theories post-discovery.
