TY - JOUR
T1 - Differential Cross Sections for Neutron Elastic and Inelastic Scattering on 23Na
AU - Vanhoy, J. R.
AU - Hicks, S. F.
AU - Chakraborty, A.
AU - Champine, B. R.
AU - Combs, B.
AU - Crider, B. P.
AU - Kersting, L. J.
AU - Kumar, A.
AU - Lueck, C. J.
AU - McDonough, P. J.
AU - McEllistrem, M. T.
AU - Peters, E. E.
AU - Prados-Estévez, F. M.
AU - Sidwell, L.
AU - Sigillito, A.
AU - Watts, D. W.
AU - Yates, S. W.
PY - 2014
Y1 - 2014
N2 - Measurements of neutron elastic and inelastic scattering from 23Na have been performed for sixteen incident neutron energies above 1.5 MeV with the 7-MV University of Kentucky Accelerator using the 3H(p,n) reaction as the neutron source. These measurements were complemented by γ-ray excitation functions using the (n,n'γ) reaction. The time-of-flight technique is employed for background reduction in both neutron and γ- ray measurements and for determining the energy of the scattered neutrons. Cross section determinations support fuel cycle and structural materials research and development. Previous reaction model evaluations [1] relied primarily on total cross sections and four (n,n 0) and (n,n1) angular distributions in the En = 5 to 9 MeV range. The inclusion of more inelastic channels at lower neutron energies provides additional information on direct couplings between elastic and inelastic scattering as a function of angular momentum transfer. Reaction model calculations examining direct collective and statistical properties were performed.
AB - Measurements of neutron elastic and inelastic scattering from 23Na have been performed for sixteen incident neutron energies above 1.5 MeV with the 7-MV University of Kentucky Accelerator using the 3H(p,n) reaction as the neutron source. These measurements were complemented by γ-ray excitation functions using the (n,n'γ) reaction. The time-of-flight technique is employed for background reduction in both neutron and γ- ray measurements and for determining the energy of the scattered neutrons. Cross section determinations support fuel cycle and structural materials research and development. Previous reaction model evaluations [1] relied primarily on total cross sections and four (n,n 0) and (n,n1) angular distributions in the En = 5 to 9 MeV range. The inclusion of more inelastic channels at lower neutron energies provides additional information on direct couplings between elastic and inelastic scattering as a function of angular momentum transfer. Reaction model calculations examining direct collective and statistical properties were performed.
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U2 - 10.1051/epjconf/20146603091
DO - 10.1051/epjconf/20146603091
M3 - Conference article
AN - SCOPUS:84898757837
SN - 2101-6275
VL - 66
JO - EPJ Web of Conferences
JF - EPJ Web of Conferences
M1 - 03091
T2 - 2013 International Nuclear Physics Conference, INPC 2013
Y2 - 2 June 2013 through 7 June 2013
ER -