We argue that the chemical freeze-out in heavy ion collisions at high baryon density is not associated to a phase transition or rapid crossover. We employ the linear nucleon-meson model with parameters fixed by the zero-temperature properties of nuclear matter close to the liquid-gas quantum phase transition. For the parameter region of interest this yields a reliable picture of the thermodynamic and chiral properties at non-zero temperature. The chemical freeze-out observed in low-energy experiments occurs when baryon densities fall below a critical value of about 15 percent of nuclear density. This region in the phase diagram is far away from any phase transition or rapid crossover
One of the most remarkable results to emerge from heavy-ion collisions over the past two decades is ...
We construct a realistic equation of state for QCD matter at vanishing net-baryon density, which is ...
We review J. Zimanyi's key contributions to the theoretical understanding of dynamical freeze-out in...
Bazavov A, Ding H, Hegde P, et al. Freeze-Out Conditions in Heavy Ion Collisions from QCD Thermodyna...
We propose that it is the entropy density, which characterizes the chemical freeze-out of hadrons in...
Recent results on baryon production in relativistic heavy ion collisions show that a revision of the...
We argue that hadron multiplicities in central high energy nucleus-nucleus collisions are establishe...
International audienceBased on transport equations we argue that the chiral dynamics in heavy-ion co...
We argue that hadron multiplicities in central high energy nucleus-nucleus collisions are establishe...
We study the identified particle ratios produced at mid-rapidity (y<0.5) in heavy-ion collisions, al...
We discuss the relevance of higher order cumulants of net baryon number fluctuations for the analysi...
It is demonstrated that there exists a direct correlation between chemical freeze-out point and the ...
Relative hadron abundances from high-energy heavy-ion collisions reveal substantial inhomogeneities ...
AbstractWe argue that hadron multiplicities in central high energy nucleus–nucleus collisions are es...
We investigate the chemical freeze-out in heavy-ion collisions (HICs) and the impact of the hadronic...
One of the most remarkable results to emerge from heavy-ion collisions over the past two decades is ...
We construct a realistic equation of state for QCD matter at vanishing net-baryon density, which is ...
We review J. Zimanyi's key contributions to the theoretical understanding of dynamical freeze-out in...
Bazavov A, Ding H, Hegde P, et al. Freeze-Out Conditions in Heavy Ion Collisions from QCD Thermodyna...
We propose that it is the entropy density, which characterizes the chemical freeze-out of hadrons in...
Recent results on baryon production in relativistic heavy ion collisions show that a revision of the...
We argue that hadron multiplicities in central high energy nucleus-nucleus collisions are establishe...
International audienceBased on transport equations we argue that the chiral dynamics in heavy-ion co...
We argue that hadron multiplicities in central high energy nucleus-nucleus collisions are establishe...
We study the identified particle ratios produced at mid-rapidity (y<0.5) in heavy-ion collisions, al...
We discuss the relevance of higher order cumulants of net baryon number fluctuations for the analysi...
It is demonstrated that there exists a direct correlation between chemical freeze-out point and the ...
Relative hadron abundances from high-energy heavy-ion collisions reveal substantial inhomogeneities ...
AbstractWe argue that hadron multiplicities in central high energy nucleus–nucleus collisions are es...
We investigate the chemical freeze-out in heavy-ion collisions (HICs) and the impact of the hadronic...
One of the most remarkable results to emerge from heavy-ion collisions over the past two decades is ...
We construct a realistic equation of state for QCD matter at vanishing net-baryon density, which is ...
We review J. Zimanyi's key contributions to the theoretical understanding of dynamical freeze-out in...