Testing of Proximity Potentials in Different Mass Regions
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Abstract
This work deals with the proximity potential which is an important aspect for
the study of nuclear interaction. Various types of proximity potential have been
investigated over the years. In our present work, we choose five such potentials as
they cover wide barrier characteristics. These potentials are studied in the different
mass regions for the fusion cross section using Wong formula to check their
effectiveness.Chapter-1 consist of introductory part of nuclear reaction, low energy heavy –ion
reaction, nucleus-nucleus interaction potential and the proximity formalism. To study
the effect of nuclear potential the mass regions are described. Beside this, the role of
deformation and orientation has been discussed.
Chapter-2 give the details of the methodology used. In this chapter, firstly various
proximity potentials are explained. Further, Wong model is described which is used to
calculate the fusion cross section.
Chapter-3 presents the calculation and results. The interaction potential is calculated
using five nuclear proximity potentials for spherical choice of nuclei and then effect
of deformation and orientations is shown on these potentials. Afterwards, fusion
excitation functions are calculated for two sets of reactions from four different mass
regions of the periodic table, as defined in Chapter 1, with and without the effect of
deformation and orientation in order to investigate that which nuclear potential works
well in the considered mass regionsregions are described. Beside this, the role of
deformation and orientation has been discussed.
Chapter-2 give the details of the methodology used. In this chapter, firstly various
proximity potentials are explained. Further, Wong model is described which is used to
calculate the fusion cross section.
Chapter-3 presents the calculation and results. The interaction potential is calculated
using five nuclear proximity potentials for spherical choice of nuclei and then effect
of deformation and orientations is shown on these potentials. Afterwards, fusion
excitation functions are calculated for two sets of reactions from four different mass
regions of the periodic table, as defined in Chapter 1, with and without the effect of
deformation and orientation in order to investigate that which nuclear potential works
well in the considered mass regions.
