  \item[Background] Multinucleon transfer reaction at low-energy collisions is
considered to be a promising method for the production of new exotic nuclei,
which are difficult to be produced by other methods. The theoretical studies
are required to provide reliable predictions for the experiments and promote
the understanding of the microscopic mechanism in multinucleon transfer
reactions. \item[Purpose] We provide a predictive approach for production cross
sections, and testify how and to what extent the microscopic approach works
well in multinucleon transfer reaction. \item[Methods] We employ the approach
TDHF+GEMINI, which combines the microscopic time-dependent Hartree-Fock (TDHF)
with the state-of-art statistical model GEMINI++, to take into account both the
multinucleon transfer dynamics and the secondary deexcitation process. The
properties of primary products in multinucleon transfer process, such as
transfer probabilities and primary cross sections, are extracted from TDHF
dynamics by using the particle-number projection method. Production cross
sections for secondary products are evaluated by using the statistical model
GEMINI++. \item[Results] We investigate the influence of colliding energies and
deformation orientations of target and projectile nuclei on multinucleon
transfer dynamics in the reaction $^{58}$Ni+$^{124}$Sn...... \item[Conclusions]
The microscopic approach TDHF+GEMINI reasonably reproduces the experimental
data at energies close to the Coulomb barrier and well accounts for the
multinucleon transfer mechanism. The present studies clearly reveal the
applicability of TDHF+GEMINI method in multinucleon transfer reactions, which
thus deserves as a promising tool to predict the properties of new reactions.
