P. Ren

TL;DR: The authors analyse the proton radii, binding energies and electric quadrupole transition rates of neutron-rich carbon isotopes at proton number six and use nuclear structure models to support the magic number Z’= 6, which can be explained by the state-of-the-art nuclear theory with chiral nucleon–nucleon and three-n nucleon forces, which are rooted in the quantum chromodynamics.

TL;DR: In this paper, a finite-range Glauber model with a global parameter set within the optical-limit approximation was developed to analyze low-energy data, which is applicable to reaction cross section measurements at incident energies from $10A$ to $2100A$ MeV.

TL;DR: In this article, the accuracy of evaluated nuclear data for Tungsten has been examined by comparing measured leakage neutron spectra with calculated ones, and it is found that the calculations with ADS-2.0 and ENDF/B-VII.1 give good agreement with the experiments in the whole energy regions at 60°, while a large discrepancy is observed at 120° in the elastic scattering peak, caused by a slight difference in the oscillation pattern of the elastic angular distribution at angles larger than 20°.

TL;DR: In this paper, the authors present experimental evidence for the smallest SO-originated magic number (subshell closure) at the proton number six in 13-20C obtained from systematic analysis of point-proton distribution radii, electromagnetic transition rates and atomic masses of light nuclei.

TL;DR: In this paper, a benchmarking of evaluated nuclear data libraries was performed for ∼14.8 MeV neutrons on Gallium targets, and the measured spectra were rather well reproduced by MCNP-4C simulations with the CENDL3.1, ENDF/B-VII, and JENDL-4.0 evaluated data libraries.