  We present here the mass excesses, binding energies, one- and two- neutron,
one and two- proton and \alpha-particle separation energies of 6727 nuclei in
the ranges 4 \leq Z \leq 120 and 8 \leq A \leq 303 calculated in the infinite
nuclear matter model. Compared to our predictions of 1999 mass table, the
present ones are obtained using larger data base of 2003 mass table of Wapstra
and Audi and resorting to higher accuracy in the solutions of the
\eta-differential equations of the INM model. The local energy \eta's supposed
to carry signature of the characteristic properties of nuclei are found to
possess the predictive capability. In fact \eta-systematics reveal new magic
numbers in the drip-line regions giving rise to new islands of stability
supported by relativistic mean field theoretic calculations. This is a
manifestation of a new phenomenon where shell-effect overcomes the instability
due to repulsive components of the nucleon-nucleon force broadening the
stability peninsula. The two-neutron separation energy-systematics derived from
the present mass predictions reveal a general new feature for the existence of
islands of inversion in the exotic neutron rich regions of nuclear landscape,
apart from supporting the presently known islands around 31Na and 62Ti. The
five global parameters representing the properties of infinite nuclear matter,
the surface, the Coulomb and the pairing terms are retained as per our 1999
mass table. The root-mean-square deviation of the present mass-fit to 2198
known masses is 342 keV, while the mean deviation is 1.3 keV, reminiscent of no
left-over systematic effects. This is a substantive improvement over our 1999
mass table having rms deviation of 401 keV and mean deviation of 9 keV for 1884
data nuclei.
