Empirical Fit to electron-nucleus scattering

Abstract

An empirical fit to electron-nucleus scattering for $A>2$ is made based on world data. It is valid for $0<W<3.2$ GeV and $0.2<Q^2<5$ GeV${}^2$, and can be used with caution at lower $Q^2$. The fit is based on previous empirical fits to electron-proton and electron-neutron scattering, taking into account the effects of Fermi motion plus a substantial extra contribution that fills in the dip between the quasi-elastic peak and the $\Delta (1232)$ resonance.

8 figures

Cited by in corpus (7)

• Neutrino Interactions with Nucleons and Nuclei: Importance for Long-Baseline Experiments
• Precision Measurements of $A_1^n$ in the Deep Inelastic Regime
• Semi-Inclusive ${\pi }_0$ target and beam-target asymmetries from 6 GeV electron scattering with CLAS
• Comparisons and challenges of modern neutrino-scattering experiments (TENSIONS 2019 report)
• Pauli Blocking for a Relativistic Fermi Gas in Quasielastic Lepton Nucleus Scattering
• The Double Spin Asymmetry of Nitrogen in Elastic and Quasielastic Kinematics from a Solid Ammonia Dynamically Polarized Target
• Effective Spectral Function for Quasielastic Scattering on Nuclei from Deuterium to Lead