An overview of (selected) recent results in finite-temperature lattice QCD
arXiv:1303.6294 · doi:10.1088/1742-6596/446/1/012011
Abstract
I discuss recent results on lattice QCD calculations with the main emphasis on the thermodynamics of the crossover region, restoration of the chiral symmetry and fluctuations of conserved charges as indicator of deconfinement, that may also be used to determine the chemical freeze-out conditions in heavy-ion collision experiments.
Talk presented at Hot Quarks 2012, to be published in the proceedings, 6 pages, 8 figures
References in corpus (9)
- The order of the quantum chromodynamics transition predicted by the standard model of particle physics
- QCD quark condensate in external magnetic fields
- The transition temperature in QCD
- Freeze-out Conditions in Heavy Ion Collisions from QCD Thermodynamics
- Charmonium properties in hot quenched lattice QCD
- The chiral transition and U(1)_A symmetry restoration from lattice QCD using Domain Wall Fermions
- QCD thermodynamics with continuum extrapolated Wilson fermions I
- QCD thermodynamics with dynamical overlap fermions
- The Polyakov loop and the hadron resonance gas model
Cited by in corpus (12)
- Bottomonium suppression in an open quantum system using the quantum trajectories method
- Bottomonium production in heavy-ion collisions using quantum trajectories: Differential observables and momentum anisotropy
- Inverse magneto-rotational catalysis and the phase diagram of a rotating hot and magnetized quark matter
- Bottomonium suppression and elliptic flow from real-time quantum evolution
- Lattice study on QCD-like theory with exact center symmetry
- Chiral Symmetry Breaking on the Lattice
- Bulk observables at 5.02 TeV using quasiparticle anisotropic hydrodynamics
- QTRAJ 1.0: A Lindblad equation solver for heavy-quarkonium dynamics
- Heavy quarkonium suppression beyond the adiabatic limit
- Temperature Dependence of the Axion Mass in a Scenario Where the Restoration of Chiral Symmetry Drives the Restoration of the Symmetry
- Current Status of Nuclear Physics Research
- Bottomonium observables in an open quantum system using the quantum trajectories method