Antisymmetrized random phase approximation for quasielastic scattering in nuclear matter: Non-relativistic potentials

Abstract

Many-body techniques for the calculation of quasielastic nuclear matter response functions in the fully antisymmetrized random phase approximation on a Hartree-Fock basis are discussed in detail. The methods presented here allow for an accurate evaluation of the response functions with little numerical effort. Formulae are given for a generic non-relativistic potential parameterized in terms of meson exchanges; on the other hand, relativistic kinematical effects have been accounted for.

27 pages, 7 figures; uses revtex and epsfig; minor changes; typos in some formulae have been corrected and references have been added

References in corpus (2)

• Inclusive $(e,e^{\prime }N)$, $(e,e^{\prime }NN)$, $(e,e^{\prime }\pi )$ ... reactions in nuclei
• The longitudinal and transverse responses in the inclusive electron scattering: a functional approach

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• Dynamical response functions in correlated fermionic systems
• Continued fraction approximation for the nuclear matter response function
• RPA quasi-elastic responses in infinite and finite nuclear systems
• Quasielastic Electron Scattering from Nuclei: Random-Phase vs. Ring Approximations
• The Longitudinal and Transverse responses in inclusive electron scattering within the RPA framework