  Long lived gluinos are the trademark of split supersymmetry. They form
R-hadrons that, when charged, efficiently lose energy in matter via ionisation.
Independent of R-spectroscopy and initial hadronization, a fraction of
R-hadrons become charged while traversing a detector. This results in a large
number of stopped gluinos at present and future detectors. For a 300 GeV
gluino, $10^6$ will stop each year in LHC detectors, while several hundred stop
in detectors during Run II at the Tevatron. The subsequent decays of stopped
gluinos produce distinctive depositions of energy in calorimeters with no
activity in either the tracker or the muon chamber. The gluino lifetime can be
determined by looking for events where both gluinos stop and subsequently
decay.
