  We study the breaking of supersymmetry in five-dimensional (5d) warped
spaces, using the Randall-Sundrum model as a prototype. In particular, we
present a supersymmetry-breaking mechanism which has a geometrical origin, and
consists of imposing different boundary conditions between the fermions and
bosons living in the 5d bulk. The scale of supersymmetry breaking is
exponentially small due to the warp factor of the AdS metric. We apply this
mechanism to a supersymmetric standard model where supersymmetry breaking is
transmitted through the AdS bulk to matter fields confined on the Planck-brane.
This leads to a predictable superparticle mass spectrum where the gravitino
mass is $10^{-3}$eV and scalar particles receive masses at the one-loop level
via bulk gauge interactions. We calculate the mass spectrum in full detail
using the 5d AdS propagators. The AdS/CFT correspondence suggests that our 5d
warped model is dual to the ordinary 4d MSSM with a strongly coupled CFT sector
responsible for the breaking of supersymmetry.
