Finite temperature QCD crossover at non-zero chemical potential: A Dyson–Schwinger approach

We study QCD at finite temperature and non-zero chemical potential to derive the critical temperature at the chiral phase transition (crossover). We solve a set of Dyson–Schwinger partial differential equations using the exact solution for the Yang–Mills quantum field theory based on elliptical functions. We derive a Nambu-Jona–Lasino (NJL) model of the quarks and obtain a very good agreement with recent lattice computations regarding the dependence of the critical temperature on the strong coupling scale. The solution depends on a single scale parameter, as typical for the theory and already known from studies about asymptotic freedom. The study is analytically derived from QCD.

Authors

Publication Details

Journal
Nuclear Physics B
Published
2025-05-29
DOI
https://doi.org/10.1016/j.nuclphysb.2025.116972
Primary Topic
High-Energy Particle Collisions Research
Type
article
Field-Weighted Citation Impact
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article

Finite temperature QCD crossover at non-zero chemical potential: A Dyson–Schwinger approach

Anish Ghoshal, Arpan Chatterjee, Marco Frasca, S. Groote
Nuclear Physics B
High-Energy Particle Collisions Research
article

Finite temperature QCD crossover at non-zero chemical potential: A Dyson–Schwinger approach

Anish Ghoshal, Arpan Chatterjee, Marco Frasca, S. Groote
article en

Abstract

We study QCD at finite temperature and non-zero chemical potential to derive the critical temperature at the chiral phase transition (crossover). We solve a set of Dyson–Schwinger partial differential equations using the exact solution for the Yang–Mills quantum field theory based on elliptical functions. We derive a Nambu-Jona–Lasino (NJL) model of the quarks and obtain a very good agreement with recent lattice computations regarding the dependence of the critical temperature on the strong coupling scale. The solution depends on a single scale parameter, as typical for the theory and already known from studies about asymptotic freedom. The study is analytically derived from QCD.

Nuclear Physics BVol. 1017
Openalex Percentile: Top 94%
High-Energy Particle Collisions Research
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