electronic factors of the and hyperfine structure constants for the states in Sn I
arXiv:2007.11419 · doi:10.1103/PhysRevA.103.022815
Abstract
Large-scale calculations of the electric field gradient, which constitutes the electronic contribution to the electric quadrupole hyperfine constant , were performed for the excited states of tin, using three independent computational strategies of the variational multiconfiguration Dirac-Hartree-Fock method and a fourth approach based on the configuration interaction Dirac-Fock-Sturm theory. For the state, the final value of MHz/b differs by from the one recently used by Yordanov [Communications Physics , 107 (2020)] to extract the nuclear quadrupole moments, , for tin isotopes in the range Sn from collinear laser spectroscopy measurements. Efforts were made to provide a realistic theoretical uncertainty for the final value of the state based on statistical principles and on correlation with the magnetic dipole hyperfine constant .
arXiv comment47 pages, 4 figures
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