  Large extra dimensions lower the Planck scale to values soon accessible.
Motivated by string theory, the models of large extra dimensions predict a vast
number of new effects in the energy range of the lowered Planck scale, among
them the production of TeV-mass black holes. But not only is the Planck scale
the energy scale at which effects of modified gravity become important. String
theory as well as noncommutative quantum mechanics suggest that the Planck
length acts a a minimal length in nature, providing a natural ultraviolet
cutoff and a limit to the possible resolution of spacetime. The minimal length
effects thus become important in the same energy range in which the black holes
are expected to form.
  In this paper we examine the influence of the minimal length on the expected
production rate of the black holes.
