Statistical Atom with Angular Momentum
Andrew M. Sessler, Henry M. Foley
Abstract
Andrew M. Sessler, Henry M. Foley
Abstract
By means of a variational principle, the method of Thomas and Fermi is extended, in a semiclassical manner, to atoms with a net total angular momentum. The resulting equation for the potential, which is valid for large angular momentum, is solved for small angular momentum, yielding approximate charge and current distributions for atoms in $P$ and $D$ states. Orbital magnetic hyperfine structure, and electric quadrupole hfs are calculated as a function of atomic number, and it is shown that the first is in approximate agreement with experiment.
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By means of a variational principle, the method of Thomas and Fermi is extended, in a semiclassical manner, to atoms with a net total angular momentum. The resulting equation for the potential, which is valid for large angular momentum, is solved for small angular momentum, yielding approximate charge and current distributions for atoms in $P$ and $D$ states. Orbital magnetic hyperfine structure, and electric quadrupole hfs are calculated as a function of atomic number, and it is shown that the first is in approximate agreement with experiment.
Key concepts: Physics, Angular momentum, Total angular momentum quantum number, Angular momentum coupling, Hyperfine structure, Semiclassical physics, Hydrogen-like atom, Azimuthal quantum number