  Discarding the prejudice about fine tuning, we propose a novel and efficient
approach to identify relevant regions of fundamental parameter space in
supersymmetric models with some amount of fine tuning. The essential idea is
the mapping of experimental constraints at a low energy scale, rather than the
parameter sets, to those of the fundamental parameter space. Applying this
method to the non-universal Higgs masses model, we identify a new interesting
superparticle mass pattern where some of the first two generation squarks are
light whilst the stops are kept heavy as 6TeV. Furthermore, as another
application of this method, we show that the discrepancy of the muon anomalous
magnetic dipole moment can be filled by a supersymmetric contribution within
the 1 {\sigma} level of the experimental and theoretical errors, which was
overlooked by the previous studies due to the required terrible fine tuning.
