Glauber predictions for oxygen and neon collisions at energies available at the LHC
arXiv:2507.05853 · doi:10.1103/mkp8-zgxh
Abstract
The Glauber model is a widely used framework for describing the initial conditions in high-energy nuclear collisions. TGlauberMC is a Monte Carlo implementation of this model that enables detailed, event-by-event calculations across various collision systems. In this work, I present an updated version of TGlauberMC (3.3), which incorporates recent theoretical developments and improved parameterizations, especially relevant for small collision systems. I focus on the oxygen-oxygen (OO), neon-neon (NeNe), and proton-oxygen (pO) collisions at the Large Hadron Collider (LHC) in July 2025, where precise modelling of nuclear geometry and fluctuations is essential. The updated version includes revised nuclear density profiles and an enhanced treatment of nucleon substructure. Geometrical cross sections for all relevant collision systems are calculated and initial-state observables are explored to provide predictions for particle production trends at =5.36 TeV. In particular, a prediction for the centrality dependence of mid-rapidity multiplicity in OO and NeNe collisions is obtained. The updated code is publicly available to support the heavy-ion community with a robust and flexible tool for studying strongly interacting matter in small and intermediate-sized nuclear systems.
40 pages, 17 captioned figures, 6 tables, the source code for TGlauberMC (version 3.3.2) is available at https://tglaubermc.hepforge.org/downloads/
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Cited by in corpus (3)
- Observation of long-range collective flow in OO and NeNe collisions and implications for nuclear structure studies
- Diffractive vector meson photo-production in oxygen-oxygen and neon-neon ultraperipheral collisions at energies available at the CERN Large Hadron Collider
- System-size dependence of charged-particle suppression in ultrarelativistic nucleus-nucleus collisions