In the nucleon resonance region, R=sigma_L/sigma_T is on average about 25% larger for carbon-bound nucleons than for deuterium, indicating distinct nuclear modifications for F1, F2, and FL.
Measurements of F_{2} and R=\sigma_{L}/\sigma_{T} on Nuclear Targets in the Nucleon Resonance Region
1 Pith paper cite this work. Polarity classification is still indexing.
abstract
Jefferson Lab Experiment E04-001 used the Rosenbluth technique to measure R=\sigma_{L}/\sigma_{T} and F_{2} on nuclear targets. This experiment was part of a multilab effort to investigate quark-hadron duality and the electromagnetic and weak structure of the nuclei in the nucleon resonance region. In addition to the studies of quark-hadron duality in electron scattering on nuclear targets, these data will be used as input form factors in future analysis of neutrino data which investigate quark-hadron duality of the nucleon and nuclear axial structure functions. An important goal of this experiment is to provide precise data which to allow a reduction in uncertainties in neutrino oscillation parameters for neutrino oscillation experiments (K2K, MINOS). This inclusive experiment was completed in July 2007 at Jefferson Lab where the Hall C High Momentum Spectrometer detected the scattered electron. Measurements were done in the nuclear resonance region (1 < W^{2} < 4 GeV^{2}) spanning the four-momentum transfer range 0.5 < Q^{2} < 4.5 (GeV^{2}). Data was collected from four nuclear targets: C, Al, Fe and Cu.
citation-role summary
citation-polarity summary
fields
nucl-ex 1years
2025 1verdicts
CONDITIONAL 1roles
background 1polarities
unclear 1representative citing papers
citing papers explorer
-
Investigation of Medium Modifications to $^{12}$C Structure Functions in the Resonance Region
In the nucleon resonance region, R=sigma_L/sigma_T is on average about 25% larger for carbon-bound nucleons than for deuterium, indicating distinct nuclear modifications for F1, F2, and FL.