  In this work the excited energy levels, reduced transition probabilities,
$B(E2)\uparrow$, intrinsic quadrupole moments and deformation parameters have
been calculated for $^{62-68}$Zn isotopes with neutrons (N=32,34,36 and 38 ).
Nushellx code has been applied for all energy states of (fp-shell) nuclei.
Shell-model calculations for the zinc isotopes have been carried out with
active particles distributed in the lp$_{3/2}$, 0f$_{5/2}$ and lp$_{1/2}$
orbits outside doubly-magic closed "56Ni"core nucleus. By using (f5p) model
space and (f5pvh) interaction, the theoretical results have been obtained and
compared with the available experimental results. The excited energies values,
electric transition probability B(E2), intrinsic quadrupole moment (Q$_0$) and
deformation parameters ($\beta_2$) have been appeared at complete agreement
with the experimental values. As well as, the energy levels have been confirmed
and determined for the angular momentum and parity of experimental values which
have not been well established and determined experimentally. On the other
hand, it has been predicted some of the new energy levels and electric
transition probabilities for the $^{62-68}$Zn isotopes under this study which
were previously unknown in experimental information.
