A Regge Model for Nucleon-Nucleon Spin Dependent Amplitudes

Abstract

There are currently no models readily available that provide nucleon-nucleon spin dependent scattering amplitudes at high energies ($s\ge 6$ $Ge{V}^2$). This work aims to provide a model for calculating these high energy scattering amplitudes. The foundation of the model is Regge theory since it allows for a relativistic description and full spin dependence. We present our parameterization of the amplitudes, and show comparisons of our solutions to the data set we have collected. Overall the model works as intended, and provides an adequate description of the scattering amplitudes.

References in corpus (2)

• Updated analysis of NN elastic scattering to 3 GeV
• A new calculation for D(e,e'p)n at GeV energies

Cited by in corpus (12)

• Possible studies at the first stage of the NICA collider operation with polarized and unpolarized proton and deuteron beams
• Conceptual design of the Spin Physics Detector
• Momentum distributions for ${}^2$H$(e,e^{\prime }p)$
• ${}^2$H$(e,e^{\prime }p)$ observables using a Regge model parameterization of final state interactions
• Coarse graining of NN inelastic interactions up to 3 GeV:Repulsive vs Structural core
• Coincidence charged-current neutrino-induced deuteron disintegration
• Parity violation in proton-deuteron scattering
• The ${}^3$He$(e,e^{\prime }p{)}^2$H and ${}^4$He$(e,e^{\prime }p{)}^3$H reactions at high momentum transfer
• Factorization Breaking of $A_d^T$ for polarized deuteron targets in a relativistic framework
• Off-shell extrapolation of Regge-model NN scattering amplitudes describing final state interactions in ${}^{2}H(e,e^{\prime }p)$
• Nucleon-Nucleon Spin Dependent Scattering Amplitudes to Describe Final State Interactions in Electromagnetic and Electroweak Nuclear Processes
• Neutral-Current Neutrino Scattering from the Deuteron