Quantum field theory for quark hadron matter

Similar documents
Quantum field theory for quark hadron matter

Hadronization as Mott-Anderson localization in cqm

Lecture Overview... Modern Problems in Nuclear Physics I

Three-fluid hydro based event simulation for NICA energy scan & New EoS with 1st order PT

Structure and Cooling of Compact Stars obeying Modern Constraints. David Blaschke (Wroclaw University, JINR Dubna)

arxiv: v1 [hep-ph] 25 Apr 2010

Fluctuations and QCD phase structure

The QCD Equation of State at μ B > 0 from Lattice QCD

Melting and freeze-out conditions of hadrons in a thermal medium. Juan M. Torres-Rincon

Towards a Unified Quark-Hadron Equation of State 1

Few-particle correlations in nuclear systems

Evidence of the QCD tricritical endpoint existence at NICA-FAIR energies

Clusters in Dense Matter and the Equation of State

Pions in the quark matter phase diagram

Understanding hadronization on the basis of fluctuations of conserved charges

arxiv: v1 [hep-ph] 8 Nov 2017

EXPLORING THE QCD PHASE TRANSITION AT HIGHEST BARYON

Unconfined World. Unconfined World. Quarkyonic World. Confined World O(1) Confined World O(1) Large N. Conventional Wisdom

Equation-of-State of Nuclear Matter with Light Clusters

Hadron Production in ultra relativistic nuclear collisions and the QCD phase boundary

Maximum pulsar mass and strange neutron-star cores

Theoretical Physics Developments for NICA

The Beam Energy Scan at RHIC

Fluctuations of Conserved Charges

Selected Publications Wolfram Weise. B. Selected Publications last years (since 2005) status: December 2017 A. Monographs 256.

Effects of resonance widths on EoS and particle distributions

Polyakov-loop suppression of colored states in a quark-meson-diquark plasma

Strangeness production in relativistic heavy ion collisions

Dynamical equilibration of stronglyinteracting

Azimuthal anisotropy of the identified charged hadrons in Au+Au collisions at S NN. = GeV at RHIC

Mesonic and nucleon fluctuation effects in nuclear medium

Baryon Number Fluctuations in Energy Scan Program at RHIC

arxiv: v2 [hep-ph] 15 Aug 2018

Equation of state. Pasi Huovinen Uniwersytet Wroc lawski. Collective Flows and Hydrodynamics in High Energy Nuclear Collisions

arxiv: v2 [nucl-th] 10 Oct 2017

The phase diagram of strongly interacting matter

Strangeness in Nucleus

Maria Paola Lombardo GGI Firenze March 2014

Thermal dileptons as fireball probes at SIS energies

arxiv: v2 [hep-ph] 25 Aug 2016

HOT HADRONIC MATTER. Hampton University and Jefferson Lab

Holographic QCD in Dense Medium and Nuclear Symmetry Energy

SYMMETRY BREAKING PATTERNS in QCD: CHIRAL and DECONFINEMENT Transitions

QCD Symmetries in eta and etaprime mesic nuclei

arxiv: v2 [nucl-th] 31 Aug 2012

Hagedorn States in Relativistic Heavy Ion Collisions

Clusters in Low-Density Nuclear Matter

Nuclear equation of state for supernovae and neutron stars

Mapping the Nuclear Matter Phase Diagram with STAR: Au+Al at 2.8 AGeV and Au+Au at 19.6 GeV

CHARACTERISTICS OF THE SECONDARY PARTICLES FROM INTERACTIONS AT 40 GeV/c IN DIFFERENT NUCLEAR MATTER PHASES

Probing the QCD phase diagram with dileptons a study using coarse-grained transport dynamics

DAE-HEP, IIT Guwahati Dec,2014

Photoabsorption and Photoproduction on Nuclei in the Resonance Region

Clusters in Nuclear Matter

Nuclear equation of state with realistic nuclear forces

Rapidity Dependence of Chemical Freeze out in Au Au Collisions

PHY397K - NUCLEAR PHYSICS - 2

Selected highlights from the STAR experiment at RHIC

Fluctuations of conserved charges and freeze-out conditions in heavy ion collisions

The Study of the Critical Point of QCD using Fluctuations. Gary Westfall Terry Tarnowsky Hui Wang Michigan State University

Missing baryonic resonances in the Hagedorn spectrum

The Quark-Gluon Plasma and the ALICE Experiment

SMR/ International Workshop on QCD at Cosmic Energies III. 28 May - 1 June, Lecture Notes. E. Zabrodin University of Oslo Oslo, Norway

Insights (?) from lattice QCD at finite baryo-chemical potential (title given to me)

Kinetics of the chiral phase transition

Phenomenology of Heavy-Ion Collisions

arxiv: v1 [nucl-th] 21 Nov 2018

Deconfinement at high temperatures and moderately high baryon densities Péter Petreczky

Nuclear Equation of State for High Density Matter. Matthias Hempel, Basel University NuPECC meeting Basel,

Hadron Resonance Gas Model

The Flavors of the Quark-Gluon Plasma

Fluctuations of conserved charges and freeze-out conditions in heavy ion collisions

EQUATION OF STATE AND FLUCTUATIONS FROM THE LATTICE Claudia Ratti University of Houston (USA)

Comparing Initial Conditions in a (3+1)d Boltzmann + Hydrodynamics Transport Approach

The phase diagram of strongly interacting matter

arxiv:nucl-th/ v1 24 Jan 1999

Lecture Overview... Modern Problems in Nuclear Physics I

Investigation of high energy nuclear collisions using Q-entropy

Nuclear equation of state for supernovae and neutron stars

Dileptons in NN and AA collisions

arxiv: v2 [physics.hist-ph] 7 May 2008

Dense QCD and Compact Stars

Physics 492 Lecture 28

Thermodynamics. Quark-Gluon Plasma

Bulk matter formed in Pb Pb collisions at the LHC

M.Yu. Barabanov, A.S. Vodopyanov, A.I. Zinchenko

SUNY Stony Brook August 16, Wolfram Weise. with. Thomas Hell Simon Rössner Claudia Ratti

COOLING OF NEUTRON STARS WITH COLOR SUPERCONDUCTING QUARK CORES

QGP Thermodynamics and Phase Transitions. Mahnaz Q. Haseeb Department of Physics CIIT, Islamabad

The evidences of missing resonances from THERMINATOR. Viktor Begun

Mini-Workshop Bled 2016 QUARKS, HADRONS, MATTER

Thermal Models in High Energy Physics - Life After Life

PHASE TRANSITIONS. A. Budzanowski

arxiv: v1 [hep-lat] 26 Dec 2009

The Dilepton Probe from SIS to RHIC

arxiv: v1 [hep-ph] 18 Feb 2016

Ultra-relativistic nuclear collisions and Production of Hot Fireballs at SPS/RHIC

Hyperon equation of state for core-collapse simulations based on the variational many-body theory Hajime Togashi Outline

J/Ψ-suppression in the hadron resonance gas

Cold and dense QCD matter

Transcription:

Quantum field theory for quark hadron matter David.Blaschke@gmail.com (Wroclaw University & JINR Dubna & MEPhI Moscow) 1. Mott dissociation of pions in a Polyakov - NJL model 2. Thermodynamics of Mott-HRG and lattice QCD data 3. Mott-Anderson localization model for chemical freeze-out National Research Nuclear University (MEPhI), Moscow, February 18, 2016

Mott Dissociation of Hadrons in Hadron Matter

Mott Dissociation of Hadrons in Hadron Matter

Mott Dissociation of Hadrons in Hadron Matter Possible application: parton fraction in the EoS at the hadronization transition L. Turko et al. Effective degrees of freedom in QCD, EPJ Web Conf. 71 (2014) 00134 Compare: M. Nahrgang et al. Influence of hadronicbound states above Tc, PRC 89 (2014) 014004

Mott Dissociation of Mesons in Quark Matter D. Blaschke, M. Buballa, A. Dubinin, G. Roepke, D. Zablocki, Ann. Phys. 348, 228 (2014)

Mott Dissociation of Mesons in Quark Matter

Mott Dissociation of Mesons in Quark Matter

Mott Dissociation of Mesons in Quark Matter

Mott Dissociation of Mesons in Quark Matter

Mott Dissociation of Mesons in Quark Matter D. Blaschke, A. Dubinin, Yu. Kalinovsky, Acta Phys. Pol. Suppl. 7 (2014) XXXI. Max Born Symposium, Wroclaw (2013)

Temperature T [GeV]

Mott Dissociation of Mesons in Quark Matter J. Huefner, S.P. Klevansky, P. Zhuang, H. Voss, Ann. Phys. 234, 225 (1994) P. Zhuang, J. Huefner, S.P. Klevansky, NPA 576, 525 (1994)

Mott Dissociation of Mesons in Quark Matter J. Huefner, S.P. Klevansky, P. Zhuang, H. Voss, Ann. Phys. 234, 225 (1994) P. Zhuang, J. Huefner, S.P. Klevansky, NPA 576, 525 (1994) Problem: No Quark Confinement!

D.B., Agnieszka Wergieluk, Ludwik Turko

Agnieszka Wergieluk, Aleksandr Dubinin, Pok Man Lo,.., Larry McLerran,...

Mesons & Diquarks in PNJL Quark Matter

Mesons & Diquarks in PNJL Quark Matter Three color antitriplet diquark channels DA, A=2, 5, 7; correspondingly, chemical potentials are:

Mesons & Diquarks in PNJL Quark Matter D.B., A. Dubinin, M. Buballa, Phys. Rev. D 91 (2015) 125040

D.B., A. Dubinin, M. Buballa, Phys. Rev. D 91 (2015) 125040

Hadron Resonance Gas with Mott Dissociation D. Blaschke, A. Dubinin, in preparation

Hadron Resonance Gas with Mott Dissociation D. Blaschke, A. Dubinin, in preparation Pion channel in PNJL Effective model for in-medium hadron phase shifts Pion in effective model

Hadron Resonance Gas with Mott Dissociation D. Blaschke, A. Dubinin, in preparation

Hadron Resonance Gas with Mott Dissociation D. Blaschke, A. Dubinin, in preparation

Hadron Resonance Gas with Mott Dissociation D. Blaschke, A. Dubinin, in preparation

Mott Dissociation of Mesons and Diquarks in Quark Matter DB, M. Buballa, A. Dubinin, in preparation

Mott Dissociation of Hadrons in Hadron Matter in a χqm DB, A. Dubinin, in preparation: Schematic Beth-Uhlenbeck model with generic phase shifts r e v p y m i l re y r a n i

Mott-Anderson localization model for chemical freeze-out DB, J. Berdermann, J. Cleymans, K. Redlich, Phys. Part. Nucl. Lett. 8 (2011) 811 The basic idea: Localization of (certain) multiquark states ( cluster ) = hadronization; Reverse process = delocalization by quark exchange between hadrons Freeze-out criterion: Povh-Huefner law, PRC 46 (1992) 990 Hippe & Klevansky, PRC 52 (1995) 2172

Summary Outlook

Solving the Puzzles of Compact Star Interiors David Blaschke (University of Wroclaw, Poland & JINR Dubna, Russia) 1. The Puzzles: - Hyperon puzzle - Reconfinement - Masquerade 2. The Solution: Baryon finite size (compositeness) Excluded volume Appr. (EVA) 3. The Mechanism: Quark Pauli Blocking 4. Outlook: - High-Mass Twins (next talk) - Supernova explosion mechanism

Solving the Puzzles of Compact Star Interiors David Blaschke (University of Wroclaw, Poland & JINR Dubna, Russia) 1. The Puzzles: - Hyperon puzzle - Reconfinement - Masquerade 2. The Solution: Baryon finite size (compositeness) Excluded volume Appr. (EVA) 3. The Mechanism: Quark Pauli Blocking 4. Outlook: - High-Mass Twins (next talk) - Supernova explosion mechanism

Solving the Puzzles of Compact Star Interiors David Blaschke (University of Wroclaw, Poland & JINR Dubna, Russia) 1. The Puzzles: - Hyperon puzzle - Reconfinement - Masquerade 2. The Solution: Baryon finite size (compositeness) Excluded volume Appr. (EVA) 3. The Mechanism: Quark Pauli Blocking 4. Outlook: - High-Mass Twins (next talk) - Supernova explosion mechanism

Solving the Puzzles of Compact Star Interiors David Blaschke (University of Wroclaw, Poland & JINR Dubna, Russia) 1. The Puzzles: - Hyperon puzzle - Reconfinement - Masquerade 2. The Solution: Baryon finite size (compositeness) Excluded volume Appr. (EVA) 3. The Mechanism: Quark Pauli Blocking 4. Outlook: - High-Mass Twins (next talk) - Supernova explosion mechanism

29 member countries!! (MP1304) New! Kick-off: Brussels, November 25, 2013

Strangeness in Quark Matter 2015 Dubna, 6.-11. July 2015 Official Logo: Email: sqm@jinr.ru Website: http://sqm.jinr.ru Satellite Meetings: Summer School Dense Matter, Dubna, June 29 July 11, 2015 Roundtable Physics at NICA, Dubna, 5. July 2015

Cluster virial expansion for quark/nuclear matter David Blaschke (University of Wroclaw, Poland & JINR Dubna, Russia) 1. Introduction: - cluster expansion & virial corr. - nuclear matter vs. quark matter 2. Clusters in nuclear matter: - NSE = nuclear statistical equil. - Mott transition, virial corr. - F - derivable formulation? 3. Clusters in quark matter: - HRG = hadron resonance gas - Mott transition, PNJL, virial c. 4. Outlook: - unified quark-nuclear matter - supernova explosion modeling?

Introduction: Cluster expansion and virial corrections Nuclear Matter: Quark matter: Low density: Low density: n = nfree + ΣA na + ncorr n = nfree+ Σ nm,b + ncorr High density: High density: n = nfree + ΣA na + ncorr n = nfree + Σ nm,b + ncorr

Clusters in nuclear matter: different concepts

Clusters in nuclear matter: different concepts

Strategy: successive improvement

Thermodynamical relationships

Nuclear statistical equilibrium (NSE)

Nuclear statistical equilibrium (NSE)

Nuclear statistical equilibrium (NSE)

Nuclear statistical equilibrium (NSE)

Virial Equation of State (VEoS)

Virial Equation of State (VEoS)

Virial Equation of State (VEoS)

Virial Equation of State (VEoS)

Virial Equation of State (VEoS)

Generalized Beth-Uhlenbeck Approach

Generalized Beth-Uhlenbeck Approach

Generalized Beth-Uhlenbeck Approach

Generalized Beth-Uhlenbeck Approach

Generalized Beth-Uhlenbeck Approach

Generalized Beth-Uhlenbeck Approach

Generalized Relativistic Density Functional

Generalized Relativistic Density Functional

Generalized Relativistic Density Functional

Generalized Relativistic Density Functional

Formation and Dissociation of Clusters

Formation and Dissociation of Clusters

Formation and Dissociation of Clusters

Formation and Dissociation of Clusters

Formation and Dissociation of Clusters

Formation and Dissociation of Clusters

Thermodynamical Properties

Thermodynamical Properties

Thermodynamical Properties

Thermodynamical Properties

Thermodynamical Properties

Thermodynamical Properties

Thermodynamical Properties

Thermodynamical Properties

Thermodynamical Properties

Thermodynamical Properties

Symmetry Energy

Symmetry Energy

Symmetry Energy

Symmetry Energy

Symmetry Energy

Symmetry Energy

Symmetry Energy

Summary so far

Quantum Statistics & Cluster Virial Expansion

Quantum Statistics & Cluster Virial Expansion

Quantum Statistics & Cluster Virial Expansion

Quantum Statistics & Cluster Virial Expansion

Quantum Statistics & Cluster Virial Expansion

Quantum Statistics & Cluster Virial Expansion

Quantum Statistics & Cluster Virial Expansion

Φ-derivable formulation of cluster virial expansions

Φ-derivable formulation of cluster virial expansions

Φ-derivable formulation of cluster virial expansions

Φ-derivable formulation of cluster virial expansions

Φ-derivable formulation of cluster virial expansions

Φ-derivable formulation of cluster virial expansions More to come

Mott Dissociation of Nucleons as Quark Clusters

Mott Dissociation of Nucleons as Quark Clusters

Mott Dissociation of Nucleons as Quark Clusters

Mott Dissociation of Nucleons as Quark Clusters

Mott Dissociation of Nucleons as Quark Clusters

Mott Dissociation of Nucleons as Quark Clusters

Mott Dissociation of Nucleons as Quark Clusters

Mott Dissociation of Nucleons as Quark Clusters