  We consider the supersymmetric inverse seesaw mechanism for neutrino mass
generation within the context of a low energy effective theory where
supersymmetry is broken geometrically in an extra dimensional theory. It is
shown that the effective scale characterizing the resulting compact
supersymmetric spectrum can be as low as 500-600 GeV for moderate values of
$\tan\beta$. The potentially large neutrino Yukawa couplings, naturally present
in inverse seesaw schemes, enhance the Higgs mass and allow the super-partners
to be lighter than in compact supersymmetry without neutrino masses. The
inverse seesaw structure also implies a novel spectrum profile and couplings,
in which the lightest supersymmetric particle can be an admixture of isodoublet
and isosinglet sneutrinos. Dedicated collider as well as dark matter studies
should take into account such specific features.
