The influence of strange quarks on QCD phase diagram and chemical freeze-out: Results from the hadron resonance gas model
arXiv:hep-ph/0410329 · doi:10.1088/0954-3899/31/6/068
Abstract
We confront the lattice results on QCD phase diagram for two and three flavors with the hadron resonance gas model. Taking into account the truncations in the Taylor-expansion of energy density done on the lattice at finite chemical potential , we find that the hadron resonance gas model under the condition of constant describes very well the lattice phase diagram. We also calculate the chemical freeze-out curve according to the entropy density . The -values are taken from lattice QCD simulations with two and three flavors. We find that this condition is excellent in reproducing the experimentally estimated parameters of the chemical freeze-out.
5 pages, 3 figures and 1 table Talk given at VIIIth international conference on ''Strangeness in Quark Matter'' (SQM 2004), Cape Town, South Africa, Sep. 15-20 2004
References in corpus (1)
Cited by in corpus (45)
- Comparison of Chemical Freeze-Out Criteria in Heavy-Ion Collisions
- Status of Chemical Freeze-Out
- Equilibrium Statistical-Thermal Models in High-Energy Physics
- Description of Hot and Dense Hadron Gas Properties in a New Excluded-Volume model
- Antiproton-to-Proton Ratios for ALICE Heavy-Ion Collisions
- Strange hadron production in heavy ion collisions from SPS to RHIC
- Conditions driving chemical freeze-out
- Constant Trace Anomaly as a Universal Condition for the Chemical Freeze-Out
- Quark-Antiquark Condensates in the Hadronic Phase
- Polyakov linear SU(3) sigma model: features of higher order moments in dense and thermal hadronic medium
- Phase Space and Dynamical Fluctuations of Kaon--to--Pion Ratios
- Particle production in Ultra-relativistic Heavy-Ion Collisions : A Statistical-Thermal Model Review
- QCD thermodynamics and magnetization in nonzero magnetic field
- Degree of Chemical Non-equilibrium in Central Au-Au Collisions at RHIC energies
- Transverse Energy per Charged Particle and Freeze-Out Criteria in Heavy-Ion Collisions
- On the Higher Moments of Particle Multiplicity, Chemical Freeze-Out and QCD Critical Endpoint
- Matter-Antimatter Asymmetry in the Large Hadron Collider
- SU(3) Polyakov Linear-Sigma Model With Finite Isospin Asymmetry: QCD Phase Diagram
- Charged Particle and Photon Multiplicity, and Transverse Energy Production in High-Energy Heavy-Ion Collisions
- Chemical Freeze-Out and Higher Order Multiplicity Moments
- Event-by-Event Fluctuations of Particle Ratios in Heavy-Ion Collisions
- Chemical freezeout parameters within generic nonextensive statistics
- Lattice QCD thermodynamics and RHIC-BES particle production within generic nonextensive statistics
- Fluctuations of Particle Yield Ratios in Heavy-Ion Collisions
- Saturation of Transverse Energy per Charged Hadron and Freeze-Out Criteria in Heavy-Ion Collisions
- Chiral condensate thermal evolution at finite baryon chemical potential within Chiral Perturbation Theory
- On the Thermodynamic Geometry of Hot QCD
- Hadronic Equation of State and Speed of Sound in Thermal and Dense Medium
- Transverse Momentum Spectra of Pions at LHC Energies
- Saturation of and Freeze-Out Criteria in Heavy-Ion Collisions
- On SU(3) effective models and chiral phase-transition
- Deconfinement and freezeout boundaries in equilibrium thermal models
- On dynamical net-charge fluctuations within a hadron resonance gas approach
- Strangeness production in high-energy collisions and Hawking-Unruh radiation
- Bulk viscosity in strong and electroweak matter
- Particle Yields and Ratios within Equilibrium and Non-Equilibrium Statistics
- Confinement Horizon and QCD Entropy
- Equation of State in Non-Zero Magnetic Field
- Analogy of QCD hadronization and Hawking-Unruh radiation at NICA
- Transverse Energy per Charged Particle in Heavy-Ion Collisions: Role of Collective Flow
- Strangeness chemical potential from the baryons relative to the kaons particle ratios
- Unruh thermalization, gluon condensation and freeze-out
- Universal descriptions of chemical freeze-out based on pressure and specific heat
- Vorticity-induced modifications of chemical freeze-out in heavy-ion collisions
- Derivation of Meson Masses in SU(3) and SU(4) Extended Linear-Sigma Model at Finite Temperature