CGC/saturation approach for soft interactions at high energy: a two channel model
arXiv:1502.05202 · doi:10.1140/epjc/s10052-015-3399-4
Abstract
In this paper we continue the development of a model for strong interactions at high energy, based on two ingredients: CGC/saturation approach and the BFKL Pomeron. In our approach, the unknown mechanism of confinement of quarks and gluons, is characterized by several numerical parameters, which are extracted from the experimental data. We demonstrate that the two channel model, successfully describes the experimental data, including both the value of the elastic slope and the energy behavior of the single diffraction cross section. We show that the disagreement with experimental data of our previous single channel eikonal model [6] stems from the simplified approach used for the hadron structure, and is not related to our principal theoretical input, based on the CGC/saturation approach.
20 pp., 20 figure in eps files
References in corpus (8)
- Gluon saturation and inclusive hadron production at LHC
- A QCD motivated model for soft interactions at high energies
- Gluon saturation and energy dependence of hadron multiplicity in pp and AA collisions at the LHC
- Hadron multiplicity in pp and AA collisions at LHC from the Color Glass Condensate
- The BFKL Pomeron Calculus in zero transverse dimensions: summation of Pomeron loops and generating functional for the multiparticle production processes
- N=4 SYM and QCD motivated approach to soft interactions at high energies
- Multiparticle production in the mean field approximation of high density QCD
- Non-linear equation: energy conservation and impact parameter dependence
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- Perturbative QCD and beyond: azimuthal angle correlations in deuteron-deuteron scattering from Bose-Einstein correlations
- CGC/saturation approach for high energy soft interactions: `soft' Pomeron structure and in hadron and nucleus collisions from Bose-Einstein correlation
- A CGC/saturation approach for angular correlations in proton-proton scattering