A scenario of heavy resonances, called massive Hagedorn states, is proposed which exhibits a fast (t H 1 fm/c) chemical equilibration of (strange) baryons and anti-baryons at the QCD critical temperature Tc. For relativistic heavy ion collisions this scenario predicts that hadronization is followed by a brief expansion phase during which the equilibration rate is higher than the expansion rate, so that baryons and antibaryons reach chemical equilibrium before chemical freeze-out occurs. PACS-Nr.: 12.38.M
We show that a measurement of the reaction energy dependence of relative hadron resonance yields in ...
The behavior of hadronic matter at high baryon densities is studied within Ultrarelativistic Quantum...
AbstractWe argue that hadron multiplicities in central high energy nucleus–nucleus collisions are es...
One important question in relativistic heavy ion collisions is if hadrons, specifically anti-hyperon...
Due to long chemical equilibration times of hadrons in the hadron gas phase in relativistic heavy io...
In recent years, Hagedorn states have been used to explain the equilibrium and transport properties ...
The evolution of (non-strange) antibaryon abundances in the hadronic phase of central heavy-ion coll...
Abstract. Quick chemical equilibration times of hadrons within a hadron gas are explained dynamicall...
Sufficiently fast chemical equilibration of (strange) antibaryons in an environment of nucleons, pio...
The consequences of hadro-chemical freezeout for the subsequent hadron gas evolution in central heav...
In order to fully understand the new state of matter formed in heavy ion collisions, it is vital to ...
We first review the production and the possible chemical equilibration of strange particles at CERN-...
In a dynamical model of QGP at RHIC we obtain the temporal evolution of strange phase space occupanc...
We investigate chemical and thermal freeze-out time dependencies for strange particle production for...
The production of antibaryons is calculated in a microscopic transport approach employing multiple m...
We show that a measurement of the reaction energy dependence of relative hadron resonance yields in ...
The behavior of hadronic matter at high baryon densities is studied within Ultrarelativistic Quantum...
AbstractWe argue that hadron multiplicities in central high energy nucleus–nucleus collisions are es...
One important question in relativistic heavy ion collisions is if hadrons, specifically anti-hyperon...
Due to long chemical equilibration times of hadrons in the hadron gas phase in relativistic heavy io...
In recent years, Hagedorn states have been used to explain the equilibrium and transport properties ...
The evolution of (non-strange) antibaryon abundances in the hadronic phase of central heavy-ion coll...
Abstract. Quick chemical equilibration times of hadrons within a hadron gas are explained dynamicall...
Sufficiently fast chemical equilibration of (strange) antibaryons in an environment of nucleons, pio...
The consequences of hadro-chemical freezeout for the subsequent hadron gas evolution in central heav...
In order to fully understand the new state of matter formed in heavy ion collisions, it is vital to ...
We first review the production and the possible chemical equilibration of strange particles at CERN-...
In a dynamical model of QGP at RHIC we obtain the temporal evolution of strange phase space occupanc...
We investigate chemical and thermal freeze-out time dependencies for strange particle production for...
The production of antibaryons is calculated in a microscopic transport approach employing multiple m...
We show that a measurement of the reaction energy dependence of relative hadron resonance yields in ...
The behavior of hadronic matter at high baryon densities is studied within Ultrarelativistic Quantum...
AbstractWe argue that hadron multiplicities in central high energy nucleus–nucleus collisions are es...