Role of centrifugal potential in the study of fusion-evaporation analysis of 58Ni-induced reaction

Heavy-ion nuclear reactions have been used as a spectroscopic approach to explore nuclear dynamic behavior and to understand how nuclear structure, incident beam energy, deformations, and other nuclear features work. In this research work, the fusion-evaporation dynamics of 122Ba* formed in 58Ni induced reaction is investigated at energies Ec.m.=86.92 MeV and 104.31 MeV, spanning the currentCoulomb barrier. The dynamics of nuclear fusion reactions are investigated by employing the couple channel method and by including the energy dependence in Woods Saxon potential (EDWSP) model. The EDWSP computations are contrasted with no-coupling computations generated by employing coupled channel code CCFULL in order to evaluate the degree of fusion enhancement. The decay mechanism of 122Ba* is carried out by employing the Dynamical Cluster-decay model (DCM). The role of centrifugal potential in the fragmentation of 122Ba* has also been analyzed by introducing two different versions of the moment of inertia namely, the sticking moment of inertia and non-sticking moment of inertia, and consequently its effect on fragmentation structure and barrier characteristics is analyzed.