Para- and diamagnetic contributions to magnetic shielding constants of relativistic hydrogenlike atoms in some low-lying discrete energy eigenstates
Patrycja Stefa\'nska

TL;DR
This paper provides detailed numerical data on para- and diamagnetic contributions to magnetic shielding constants in relativistic hydrogenlike atoms across various energy states and nuclear charges, using analytical formulas and comparing with existing results.
Contribution
The authors derived and tabulated numerical values for magnetic shielding contributions in relativistic hydrogenic atoms for multiple states and nuclear charges, including comparisons with previous studies.
Findings
Numerical values of $\sigma_{d}/\sigma$ and $\sigma_{p}/\sigma$ for various states and Z.
Total magnetic shielding constants for selected states and different fine-structure constants.
Comparison of results with previous literature for some atomic states.
Abstract
We present tabulated data for numerical calculations of relative para- and diamagentic contributions to the magnetic shielding constant () of the Dirac one-electron atoms with a pointlike, spinless and motionless nuclei of charge . Exploiting the analytical formulas for the diamagnetic () and paramagnetic () terms of , valid for an arbitrary discrete energy state, recently derived by us with the aid of the Gordon decomposition technique, we have found the numerical values of and for the ground state and for the first two sets of excited states (i.e.: , , , , , , , and ) of the relativistic hydrogenic ions with the nuclear charge number from the range . The comparisons of our results with those…
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Taxonomy
TopicsAtomic and Molecular Physics · Cold Atom Physics and Bose-Einstein Condensates · Quantum, superfluid, helium dynamics
