Abstract
A model two-body matrix is introduced which leads to simple Brueckner-Hartree-Fock equations similar to those resulting from Skyrme forces. The main features of the present model are determined by basic nuclear matter properties. Experimental nucleon removal energies for finite closed-shell nuclei are used as a criterion for setting the single-particle energy levels in our model. This is accomplished by parametrizing the Brueckner rearrangement potential which augments the single-particle potential producing single-particle level densities in better agreement with experiment than Skyrme-potential models or density matrix expansion theories. Good fits are also obtained to total binding energies, rms radii, and electron scattering form factors of the magic nuclei , , , . Extrapolated results for the magic superheavy nucleus are presented and discussed.
NUCLEAR STRUCTURE Nuclear matter; fitted Brueckner -matrix model parameters, , , , , , ; computed, and compared with exp. , , , , electron scattering data. Oscillator basis, self-consistent BHF method.
- Received 23 February 1976
DOI:https://doi.org/10.1103/PhysRevC.14.1615
©1976 American Physical Society