The Anapole Moment of the Deuteron with the Argonne v18 Nucleon-Nucleon Interaction Model
Chang Ho Hyun, Bertrand Desplanques
Abstract
We calculate the deuteron anapole moment with the wave functions obtained from the Argonne v18 nucleon-nucleon interaction model. The anapole moment operators are considered at the leading order. To minimize the uncertainty due to a lack of current conservation, we calculate the matrix element of the anapole moment from the original definition. In virtue of accurate wave functions, we can obtain a more precise value of the deuteron anapole moment which contains less uncertainty than the former works. We obtain a result reduced by more than 25% in the magnitude of the deuteron anapole moment. The reduction of individual nuclear contributions is much more important however, varying from a factor 2 for the spin part to a factor 4 for the convection and associated two-body currents.
Create a lesson
Related papers
A 4D T-expanded lattice QCD equation of state with a multi-dimensional 3D-Ising-type critical contribution
Francesco Di Clemente, Prachi Garella, Johannes Jahan et al.
Shear viscosity from fluctuations in linearized relativistic hydrodynamics
Jakub Sterba, Iurii Karpenko, Marlene Nahrgang et al.
Femtoscopic parameters of pion emission sources in EPOS4 Au+Au collisions from 7.7 to 200 GeV
Yan Huang, Máté Csanád
Exact solution of adiabatic time dependent Hartree-Fock-Bogoliubov inertia for fission
C. V. Nithish Kumar, Gabriel Martínez-Pinedo, Samuel A. Giuliani et al.
Finite-Temperature Equations of State for Neutron-Star Mergers within the Quark Mean-Field Model
Shuochong Han, Xiangdong Sun, Zhenyu Zhu et al.
Contribution of incomplete fusion to the evaporation residue cross sections in the 30Si+186W reaction
Bakhodir Kayumov, Avazbek Nasirov