Nuclear $\text{C}(e,e^{\prime }p)$ Transparencies in a Relativistic Glauber Model

Abstract

In light of the recent Jefferson Laboratory (JLab) data for the nuclear ${}^{12}\text{C}(e,e^{\prime }p)$ transparencies, calculations, obtained in a relativistic multiple scattering Glauber approximation, are discussed. The shell-separated ${}^{12}$C transparencies are shown and it is concluded that the $p$-shell nucleons are 75\% more transparent than the $s$-shell ones. The presented comparisons between the calculations made here and the current ${}^{12}\text{C}(e,e^{\prime }p)$ data show no clear indication for the onset of color transparency when implemented within the color diffusion model with standard parameters.

5 pages, 2 figures. Matches published version in Special Issue "The Future of Color Transparency, Hadronization and Short-Range Nucleon-Nucleon Correlation Studies". Based on a talk given at the workshop "The Future of Color Transparency and Hadronization Studies at Jefferson Lab and Beyond"

References in corpus (3)

• Measurement of Nuclear Transparency for the A(e,e' pi^+) Reaction
• Ruling out color transparency in quasi-elastic ${}^{12}$C(e,e'p) up to $Q^2$ of 14.2 (GeV/c)${}^2$
• u-Channel Color Transparency Observables

Cited by in corpus (1)

• Searching for an Enhanced Signal of the onset of Color Transparency in Baryons with D(e,e'p)n scattering