Inclusive $\alpha$ Production for $^{6}$Li+$^{51}$V System
Abstract
Measurement of angular distributions and energy spectra of and deuterons through breakup, transfer and incomplete fusion processes to dis-entangle their relative contributions and to investigate relative importance of breakup-fusion compared to transfer. Inclusive production cross-sections have been measured for Li + V system near Coulomb barrier energies. Theoretical calculations for estimation of various reaction channels contributing to production have been performed with finite range coupled reaction method using \textsc{FRESCO} code. The cross-sections from non-capture breakup (NCBU) ( + \textit{d}) and 1\textit{n}, 1\textit{p}, and 1\textit{d} transfer channels, compound nuclear decay channel and incomplete fusion (ICF) leading to production were estimated to get the cumulative production cross-sections. Contributions from breakup, transfer and incomplete fusion channels could reproduce the integral direct production cross-sections and their angular distributions quite well. The direct production cross-sections are in agreement with other targets. The production cross-sections are higher compared to the deuteron production. Kinematic analysis of the energy spectra of particles and deuterons suggest that particle spectra is dominated by breakp-fusion and deuteron spectra have contribution of breakup and transfer reactions. A systematic study of direct production with various targets follow a universal behavior on average but noticeable differences are observed for different targets. A ratio of and deuteron yields for a wide mass range of targets shows a saturation above barrier and an increasing production of particles relative to deuteron around Coulomb barrier.
Keywords
Cite
@article{arxiv.2106.16030,
title = {Inclusive $\alpha$ Production for $^{6}$Li+$^{51}$V System},
author = {C. Joshi and H. Kumawat and V. V. Parkar and D. Dutta and S. V. Suryanarayana and V. Jha and R. K. Singh and N. L. Singh and S. Kailas},
journal= {arXiv preprint arXiv:2106.16030},
year = {2022}
}
Comments
10 pages, 11 figures