Random phase approximation for light nuclei based on fully relativistic Hartree-Fock calculations
P. G. Blunden, P. McCorquodale
Abstract
P. G. Blunden, P. McCorquodale
Abstract
The particle-hole spectra of light nuclei are examined in the self-consistent random phase approximation based on fully relativistic Hartree and Hartree-Fock models for the nuclear ground state. The particle-hole interaction is completely prescribed by the ground-state calculation. It includes \ensuremath{\sigma}, \ensuremath{\omega}, \ensuremath{\rho}, and \ensuremath{\pi} meson exchanges, with \ensuremath{\sigma} and \ensuremath{\omega} parameters adjusted to fit the bulk properties of nuclear matter. Differences between Hartree (no exchange) and Hartree-Fock (with exchange) predictions for the spectra are discussed.
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The particle-hole spectra of light nuclei are examined in the self-consistent random phase approximation based on fully relativistic Hartree and Hartree-Fock models for the nuclear ground state. The particle-hole interaction is completely prescribed by the ground-state calculation. It includes \ensuremath{\sigma}, \ensuremath{\omega}, \ensuremath{\rho}, and \ensuremath{\pi} meson exchanges, with \ensuremath{\sigma} and \ensuremath{\omega} parameters adjusted to fit the bulk properties of nuclear matter. Differences between Hartree (no exchange) and Hartree-Fock (with exchange) predictions for the spectra are discussed.
Key concepts: Hartree–Fock method, Physics, Random phase approximation, Hartree, Ground state, Sigma, Meson, Omega