Elastic proton-proton scattering from ISR to LHC energies, focusing on the dip region
T.Csorgo, R. J. Glauber, F. Nemes

TL;DR
This paper analyzes elastic proton-proton scattering across ISR to LHC energies using a quark-diquark model, revealing that the total cross-section increase is linked to quark-diquark separation and proposing relations to predict the dip position in the differential cross-section.
Contribution
It introduces a generalized quark-diquark model and phenomenological relations connecting total cross-section, particle sizes, and dip position, aiding future predictions.
Findings
Total cross-section increase linked to quark-diquark separation.
Derived model-independent relation: t(dip) * sigma(tot) ~ const.
Predicted dip positions for future collider energies.
Abstract
The differential cross-section of elastic proton-proton collisions is studied at ISR and LHC energies, utilizing a quark-diquark model, that generalizes earlier models of Bialas and Bzdak, and, in addition, a model of Glauber and Velasco. These studies suggest that the increase of the total pp cross-section is mainly due to an increase of the separation of the quark and the diquark with increasing energies. Within the investigated class of models, two simple and model-independent phenomenological relations were found, that connect the total pp scattering cross-section to the effective quark, diquark size and their average separation, on one hand, and to the position of the dip of the differential cross-section, on the other hand. The latter t(dip) sigma(tot) ~ const relation can be used to predict t(dip), the position of the dip of elastic pp scattering for future colliding energies,…
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Taxonomy
TopicsHigh-Energy Particle Collisions Research · Quantum Chromodynamics and Particle Interactions · Particle physics theoretical and experimental studies
