  Supersymmetric (SUSY) explanation of the discrepancy between the measurement
of $(g-2)_\mu$ and its SM prediction puts strong upper bounds on the chargino
and smuon masses. At the same time, lower experimental limits on the chargino
and smuon masses, combined with the Higgs mass measurement, lead to an upper
bound on the stop masses. The current LHC limits on the chargino and smuon
masses (for not too compressed spectrum) set the upper bound on the stop masses
of about 10 TeV. The discovery potential of the future lepton and hadron
colliders should lead to the discovery of SUSY if it is responsible for the
explanation of the $(g-2)_\mu$ anomaly. This conclusion follows from the fact
that the upper bound on the stop masses decreases with the increase of the
lower experimental limit on the chargino and smuon masses.
