  Time-dependent Hartree-Fock approach in three dimensions is employed to study
the multi-nucleon transfer reaction $^{132}$Sn + $^{208}$Pb at various incident
energies above the Coulomb barrier. Probabilities for different transfer
channels are calculated by using particle-number projection method. The results
indicate that neutron stripping (transfer from the projectile to the target)
and proton pick-up (transfer from the target to the projectile) are favored.
Deexcitation of the primary fragments are treated by using the state-of-art
statistical code GEMINI++. Primary and final production cross sections of the
target-like fragments (with $Z=77$ to $Z=87$) are investigated. The results
reveal that fission decay of heavy nuclei plays an important role in the
deexcitation process of nuclei with $Z>82$. It is also found that the final
production cross sections of neutron-rich (deficient) nuclei slightly
(strongly) depend on the incident energy.
