  We analyze a simple Split Supersymmetry scenario where fermion masses come
from anomaly mediation, yielding m_s ~ 1000 TeV, m_{3/2} ~ 100 TeV, and m_f ~ 1
TeV. We consider non-thermal dark matter production in the presence of moduli,
and we find that the decay chains of moduli to LSPs and moduli to gravitinos to
LSPs generate dark matter more efficiently than perturbative freeze-out,
allowing for a light, LHC visible spectrum. These decaying moduli can also
weaken cosmological constraints on the axion decay constant. With squark masses
of order 1000 TeV, LHC gluinos will decay millimeters from their primary
vertices, resulting in a striking experimental signature, and the suppression
of Flavor Changing Neutral Currents is almost sufficient to allow arbitrary
mixing in squark mass matrices.
