  The most important consequence of Pomeron being a pole is the factorization
property. However, due to Pomeron intercept being greater than 1, the
extrapolated single diffraction dissociation cross section based on a classical
triple-Pomeron formula is too large leading to a potential unitarity violation
at Tevatron energies, which has been referred to as "Dino's paradox". We review
our resolution which involves a proper implementation of final-state screening
correction, with "flavoring" for Pomeron as the primary dynamical mechanism for
setting the relevant energy scale. In this approach, factorization remains
intact, and unambiguous predictions for double Pomeron exchange, doubly
diffraction dissociation, etc., both at Tevatron and at LHC energies, can be
made.
