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Generalized Pseudo-Potentials for Higher Partial Wave Scattering

Published

Author(s)

R Stock, A Silberfarb, I H. Deutsch, E L. Bolda

Abstract

We derive a generalized zero-range pseudo-potential applicable to all partial wave solutions to the Schrodinger equation based on a delta-shell potential in the limit that the shell radius approaches zero. This properly models all higher order multipole moments not accounted for with a monopolar delta-function at the origin, as used in the familiar Fermi pseudo-potential for s-wave scattering. By further making the strength of the potential energy-dependent, we derive self-consistent solutions for the entire energy spectrum of the realistic potential. We apply this to study two particles in an isotropic harmonic trap interacting through a central potential and derive analytic expressions for the energy eigenstates and eigenvalues.
Citation
Physical Review Letters

Keywords

Fermi Pseudopotential, harmonic atom trap, partial wave, spectrum

Citation

Stock, R. , Silberfarb, A. , Deutsch, I. and Bolda, E. (2021), Generalized Pseudo-Potentials for Higher Partial Wave Scattering, Physical Review Letters (Accessed November 4, 2025)

Issues

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Created October 12, 2021
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