Recent results obtained by applying the method of self-consistent Green's functions to nuclei
and nuclear matter are reviewed. Particular attention is given to the description of …

The independent-particle model explains many features of atomic nuclei and other fermion
systems. The low-energy states of nearly closed-shell systems can be interpreted as having …

We employ the local-density approximation to derive the spectral function P (k, E) of finite
nuclei. For various densities of nuclear matter we calculate P (k, E), and split it into the single …

The shell model and the optical model play a central role in the description of nuclear
structure and of nuclear reactions. In both models, the average nucleon-nucleus interaction …

A survey is given of results of electron-induced quasi-elastic proton knockout experiments.
We present results of experimental investigations of the (e, e′ p) reaction-mechanism …

This document is one of a series of white papers from the USQCD Collaboration. Here, we
discuss opportunities for Lattice QCD in neutrino-oscillation physics, which inevitably entails …

Proton-induced knockout reactions provide a direct means of studying the single particle or
cluster structures of target nuclei. In addition, these knockout reactions are expected to play …

The factorization scheme, based on the impulse approximation and the spectral function
formalism, has been recently generalized to allow the description of electromagnetic nuclear …

The E12-14-012 experiment, performed in Jefferson Lab Hall A, has measured the (e, e′ p)
cross section in parallel kinematics using a natural argon target. Here, we report the full …

Nucleon knockout by electron scattering provides a powerful probe of the electromagnetic
properties of nucleons and of the momentum distributions in nuclei. Since the nucleus is …