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In the present study, a systematic analysis is made on H and He mirror nuclei. The elastic and inelastic scattering angular distributions of the H and He from Ne and Mg at 33 MeV are investigated within the double folding potential based on the Optical Model. The exchange effect related to nonlocality is taken into account in a form of a correction factor to the real potential and the resulted one is known as local equivalent double folding potential. The imaginary potential has taken to be Woods–Saxon volume shaped. The results are contrasted with each other as well as with the experimental data to give evidence about the importance of these studied items. Also, the reaction cross sections and nuclear deformation parameters are given. [ABSTRACT FROM AUTHOR]

At 275MeV energy, the efficiency of analysing the newly measured angular distributions for 18O ions elastically scattered from 40Ca, 76Se and 116Sn targets is examined using double and cluster folding models. Two choices for the imaginary potential part, phenomenological squared Woods Saxon (WS) and (double or cluster) folded forms, were implemented in the calculations. Different 18O density distributions, including its cluster structure (14C + α), were put forward for preparing the folding potentials of the considered systems. Furthermore, we investigated the impact of other channels coupling using two distinct methods: incorporating a dynamic polarization surface potential into non-renormalized cluster folded potentials, and employing the continuum discrete coupled channels (CDCC) approach. To facilitate comparison, we also utilized the phenomenological optical model with real WS and imaginary squared WS potentials. The theoretical results demonstrated significant agreement with the experimental data, providing strong evidence for the efficacy of the methodologies under investigation. [ABSTRACT FROM AUTHOR]

The quasi-elastic () reactions in the energy range from 20 to 135 MeV are studied. This range has been evidently featured by altering the interaction potential with incident energy. A response of energy was introduced to the target nucleus density as well as to the nuclear potential. A good improvement has been attained in the majority of calculations by using the density dependent single folding (DD–SF) model. The resultant equations are able to answer the question how the density of the target is dependent on the energy of the incident projectile. [ABSTRACT FROM AUTHOR]

For the C system, a thorough analysis of the elastic scattering sensitivity to various Coulomb potentials was conducted, and the results were all estimated using a phenomenological optical model. This analysis produced a respectable depiction of the data in addition to nuclear ones at 132 MeV. In relation to the experimental findings, the Coulomb possible ambiguities were addressed. For the well-being of culmination, generating Coulomb potential three different methods and crossing point technique are used to resolve the ambiguity of choosing Coulomb reduced radius. [ABSTRACT FROM AUTHOR]

The sensitivity of the 9C + 208Pb elastic scattering reaction at Elab = 227 MeV (three times the barrier energy) towards the yielded potential combinations (9C density distributions + effective nucleon–nucleon interactions), bringing about a decent portrayal of the data, was estimated all through the optical double folding model. The merits and demerits of these combinations with regard to experimental data were handled, other than the comparability of results to those acquired by others. For the well-being of culmination, the S-matrix elements modulus, notch perturbation test and alteration of potential parameters are all used to highlight and reiterate some noteworthy aspects of the examined scattering reaction. [ABSTRACT FROM AUTHOR]