  We analyze, in leading and next to leading order of BFKL, a possible
influence of Beyond the Standard Model (BSM) effects on the structure of the
discrete pomeron states. We show that the eigenvalues of the states which
contribute significantly to the gluon density in the observable region are
substantially modified by BSM effects irrespective of the assumptions about the
infrared boundary conditions. We also develop a physically motivated heuristic
model of the infrared boundary condition which determines the gluon structure
function and argue, using this model, that the analysis of the present and
future low-$x$ data could allow the detection of a supersymmetry scale in the
multi-TeV range.
