Colm T. Whelan, R.K. Nesbet, et al.
Journal of Electron Spectroscopy and Related Phenomena
A variational formulation of Brueckner's theory has been used to solve Bethe-Goldstone equations and to compute electronic pair-correlation energies for the atoms listed in the title. One-electron effective correlation energies, needed for open-shell atomic states, are also computed. An approximate Hartree-Fock function is used for the reference state in each case. Individual pair-correlation energies are computed to an expected accuracy of 0.001 Hartree a.u. The total correlation energies range from 98.5 to 100.3% of the empirical correlation energy. For comparison with many-particle perturbation theory, definitions of the hierarchy of nth-order Bethe-Goldstone equations and of the concepts of gross and net mean-value increments used in this work are restated in terms of linked Goldstone diagrams. © 1968 The American Physical Society.
Colm T. Whelan, R.K. Nesbet, et al.
Journal of Electron Spectroscopy and Related Phenomena
J. Bruinsma, R.K. Nesbet
Chemical Physics Letters
Nazakat Ullah, R.K. Nesbet
Physical Review
R.K. Nesbet, P.M. Grant
Physical Review Letters