The Hagedorn temperature, TH is determined from the number of hadronic resonances including all mesons and baryons. This leads to a stable result TH = 174 MeV consistent with the critical and the chemical freeze-out temperatures at zero chemical potential. We use this result to calculate the speed of sound and other thermodynamic quantities in the resonance hadron gas model for a wide range of baryon chemical potentials following the chemical freeze-out curve. We compare some of our results to those obtained previously in other papers
We present an analysis of fluctuations of conserved charges, as baryon number B and electric charge ...
Karsch F, Redlich K, Tawfik A. Thermodynamics at non-zero baryon number density: a comparison of lat...
The relaxation times of particle numbers in hot hadronic matter with vanishing baryon number are est...
The Hagedorn temperature, T_H is determined from the number of hadronic resonances including all mes...
Abstract. Quick chemical equilibration times of hadrons within a hadron gas are explained dynamicall...
Abstract. We show how the measured particle ratios at RHIC can be used to provide non-trivial inform...
In recent years, Hagedorn states have been used to explain the equilibrium and transport properties ...
We examine the stability of hadron resonance gas models by extending them to include undiscovered re...
Blanchard P, Fortunato S, Satz H. The Hagedorn temperature and partition thermodynamics. EUROPEAN PH...
Castorina P, Cleymans J, Miller DE, Satz H. The speed of sound in hadronic matter. EUROPEAN PHYSICAL...
We review the resonance gas formalism of hadron thermodynamics and recall that an exponential increa...
In this work, we have studied the isothermal compressibility (κT) as a function of temperature, bary...
One important question in relativistic heavy ion collisions is if hadrons, specifically anti-hyperon...
The physical processes behind the production of light nuclei in heavy ion collisions are unclear. Th...
One of important consequences of Hagedorn statistical bootstrap model is the prediction of limiting ...
We present an analysis of fluctuations of conserved charges, as baryon number B and electric charge ...
Karsch F, Redlich K, Tawfik A. Thermodynamics at non-zero baryon number density: a comparison of lat...
The relaxation times of particle numbers in hot hadronic matter with vanishing baryon number are est...
The Hagedorn temperature, T_H is determined from the number of hadronic resonances including all mes...
Abstract. Quick chemical equilibration times of hadrons within a hadron gas are explained dynamicall...
Abstract. We show how the measured particle ratios at RHIC can be used to provide non-trivial inform...
In recent years, Hagedorn states have been used to explain the equilibrium and transport properties ...
We examine the stability of hadron resonance gas models by extending them to include undiscovered re...
Blanchard P, Fortunato S, Satz H. The Hagedorn temperature and partition thermodynamics. EUROPEAN PH...
Castorina P, Cleymans J, Miller DE, Satz H. The speed of sound in hadronic matter. EUROPEAN PHYSICAL...
We review the resonance gas formalism of hadron thermodynamics and recall that an exponential increa...
In this work, we have studied the isothermal compressibility (κT) as a function of temperature, bary...
One important question in relativistic heavy ion collisions is if hadrons, specifically anti-hyperon...
The physical processes behind the production of light nuclei in heavy ion collisions are unclear. Th...
One of important consequences of Hagedorn statistical bootstrap model is the prediction of limiting ...
We present an analysis of fluctuations of conserved charges, as baryon number B and electric charge ...
Karsch F, Redlich K, Tawfik A. Thermodynamics at non-zero baryon number density: a comparison of lat...
The relaxation times of particle numbers in hot hadronic matter with vanishing baryon number are est...