T BB Hadronic matter Quark-Gluon Plasma Chiral symmetry broken Chiral symmetry restored LHC A-A collisions fixed x 1 st principle calculations: perturbation.

Slides:



Advertisements
Similar presentations
T BB Hadronic matter Quark-Gluon Plasma Chiral symmetry broken Chiral symmetry restored LHC A-A collisions fixed x 1 st principle calculations: perturbation.
Advertisements

Quantum Fluctuation and scaling in the Polyakov loop -Quark-Meson model Chiral models: predictions under mean field dynamics Role of Quantum and Thermal.
2+1 Flavor Polyakov-NJL Model at Finite Temperature and Nonzero Chemical Potential Wei-jie Fu, Zhao Zhang, Yu-xin Liu Peking University CCAST, March 23,
The QCD equation of state for two flavor QCD at non-zero chemical potential Shinji Ejiri (University of Tokyo) Collaborators: C. Allton, S. Hands (Swansea),
Scaling properties of the chiral phase transition in the low density region of two-flavor QCD with improved Wilson fermions WHOT-QCD Collaboration: S.
23 Jun. 2010Kenji Morita, GSI / XQCD20101 Mass shift of charmonium near QCD phase transition and its implication to relativistic heavy ion collisions Kenji.
1 Recent LGT results and their implications in Heavy Ion Phenomenology quark-gluon plasma hadron gas color superconductor Equation of state in LGT and.
QCD – from the vacuum to high temperature an analytical approach an analytical approach.
1 Charge Density Fluctuations in the presence of spinodal instabilities Quark-Gluon Plasma - symmetric phase color superconductor Universal properties.
A-A collisions fixed T LQCD LHC Quark-Gluon Plasma Chiral symmetry
Fluctuations and Correlations of Conserved Charges in QCD at Finite Temperature with Effective Models Wei-jie Fu, ITP, CAS Collaborated with Prof. Yu-xin.
Third Moments of Conserved Charges as Probes of QCD Phase Structure Masakiyo Kitazawa (Osaka Univ.) M. Asakawa, S. Ejiri and MK, PRL103, (2009).
Kenji Morita 21 May 2011Three Days on Quarkyonic Poland1 Probing deconfinement in a chiral effective model with Polyakov loop from imaginary.
1 Debye screened QGP QCD : confined Chiral Condensate Quark Potential Deconfinement and Chiral Symmetry restoration expected within QCD mm symmetryChiral.
Probability distribution of conserved charges and the QCD phase transition QCD phase boundary, its O(4) „scaling” & relation to freezeout in HIC Moments.
QCD Phase Diagram from Finite Energy Sum Rules Alejandro Ayala Instituto de Ciencias Nucleares, UNAM (In collaboration with A. Bashir, C. Domínguez, E.
1 Thermodynamics of two-flavor lattice QCD with an improved Wilson quark action at non-zero temperature and density Yu Maezawa (Univ. of Tokyo) In collaboration.
Revealing Baryon Number Fluctuations in Heavy Ion Collisions Masakiyo Kitazawa (Osaka U.) MK, M. Asakawa, arXiv: [nucl-th]
Lecture 5-6: Chiral and deconfinement transition in QCD and the properties of matter at low and high temperatures Effective field theory approach Effective.
A direct relation between confinement and chiral symmetry breaking in temporally odd-number lattice QCD Lattice 2013 July 29, 2013, Mainz Takahiro Doi.
Using Higher Moments of Fluctuations and their Ratios in the Search for the QCD Critical Point Christiana Athanasiou, MIT 4 work with: Krishna Rajagopal.
T BB Hadronic matter Quark-Gluon Plasma Chiral symmetry broken Chiral symmetry restored LHC Modelling QCD phase diagram Polyakov loop extended quark-meson.
T BB Hadronic matter Quark-Gluon Plasma Chiral symmetry broken Chiral symmetry restored LHC Modelling Statistical Operator: implementic conservation.
Imaginary Chemical potential and Determination of QCD phase diagram
T BB Hadronic matter Quark-Gluon Plasma Chiral symmetry broken Chiral symmetry restored Early universe A new view and on the QCD phase diagram Recent.
Chiral Symmetry Restoration and Deconfinement in QCD at Finite Temperature M. Loewe Pontificia Universidad Católica de Chile Montpellier, July 2012.
Higher moments of net-charge multiplicity distributions at RHIC energies in STAR Nihar R. Sahoo, VECC, India (for the STAR collaboration) 1 Nihar R. Sahoo,
Third Moments of Conserved Charges in Phase Diagram of QCD Masakiyo Kitazawa (Osaka Univ.) M. Asakawa, S. Ejiri and MK, PRL103, (2009). Baryons’10,
Study of the QCD Phase Structure through High Energy Heavy Ion Collisions Bedanga Mohanty National Institute of Science Education and Research (NISER)
The Polyakov loop and charge fluctuations and QCD critical points Deconfinement in SU(N) pure gauge theory and Polyakov loop fluctuations Modelling deconfinement.
BB Hadronic matter Quark-Gluon Plasma Chiral symmetry broken x Exploring QCD Phase Diagram in Heavy Ion Collisions Krzysztof Redlich University of Wroclaw.
0 Comparative study for non-statistical fluctuation of net- proton, baryon, and charge multiplicities Dai-mei Zhou (IOPP/CCNU) 2014 CBCOS Workshop for.
In eq.(1), represent the MFA values of the sigma fields, G S,  P the corresponding coupling constants (see Ref.[3] for details), and is the MFA Polyakov.
Chiral phase transition and chemical freeze out Chiral phase transition and chemical freeze out.
Quantum Fluctuation and scaling in the Polyakov loop -Quark-Meson model Chiral models: predictions under mean field dynamics Role of Quantum and Thermal.
Lattice QCD at high temperature Péter Petreczky Physics Department and RIKEN-BNL EFT in Particle and Nuclear Physics, KITPC, Beijing August 19, 2009 Introduction.
Scaling study of the chiral phase transition in two-flavor QCD for the improved Wilson quarks at finite density H. Ohno for WHOT-QCD Collaboration The.
Review of recent highlights in lattice calculations at finite temperature and finite density Péter Petreczky Symmetries of QCD at T>0 : chiral and deconfinement.
Color neutrality effects in the phase diagram of the PNJL model A. Gabriela Grunfeld Tandar Lab. – Buenos Aires - Argentina In collaboration with D. Blaschke.
Probing QCD Phase Diagram with Fluctuations of conserved charges Krzysztof Redlich University of Wroclaw & EMMI/GSI QCD phase boundary and its O(4) „scaling”
1 QCD Thermodynamics at High Temperature Peter Petreczky Large Scale Computing and Storage Requirements for Nuclear Physics (NP), Bethesda MD, April 29-30,
Search for the QCD Critical Point Gary D. Westfall Michigan State University For the STAR Collaboration Gary Westfall for STAR – Erice,
Study of chemical potential effects on hadron mass by lattice QCD Pushkina Irina* Hadron Physics & Lattice QCD, Japan 2004 Three main points What do we.
Kenji Morita 24 June, XXX-th International Workshop on High Energy Physics “Particle and Astroparticle Physics, Gravitation and Cosmology: Predictions,
WHOT-QCD Collaboration Yu Maezawa (RIKEN) in collaboration with S. Aoki, K. Kanaya, N. Ishii, N. Ukita, T. Umeda (Univ. of Tsukuba) T. Hatsuda (Univ. of.
Kenji Morita 24 June, XXX-th International Workshop on High Energy Physics “Particle and Astroparticle Physics, Gravitation and Cosmology: Predictions,
@ CPOD2011 Wuhan November 2011 Department of Physics, Osaka University Masayuki Asakawa Baryon Number Cumulants and Proton Number Cumulants in Relativistic.
1 Chemical freezeout curve from heavy ion data coincides with freezeout T at RHIC and SPC J. Stachel & P. Braun- Munzinger.
Holographic QCD in the medium
Lattice QCD at finite density
Masakiyo Kitazawa ( Osaka U. ) Diffusion of Non-Gaussianity in Heavy Ion Collisions MK, Asakawa, Ono, arXiv: SQM, Birmingham, 23, July 2013.
Search for QCD Critical Point at RHIC Bedanga Mohanty National Institute of Science Education and Research (NISER) Outline:  Phase diagram of QCD  Observables.
Kenji Morita 16 Nov Baryon Number Probability Distribution in Quark-Meson Model Based on Functional Renormalization Group Approach.
BB Hadronic matter Quark-Gluon Plasma Chiral symmetry broken x Exploring QCD Phase Diagram in Heavy Ion Collisions Krzysztof Redlich University of Wroclaw.
The QCD phase diagram and fluctuations Deconfinement in the SU(N) pure gauge theory and Polyakov loop fluctuations Polyakov loop fluctuations in the presence.
Lattice QCD and the strongly interacting matter Péter Petreczky Physics Department Zimányi School 2012 and Ortvay Colloquium, December 6, 2012, ELTE, Budapest.
PHENIX Results from the RHIC Beam Energy Scan Brett Fadem for the PHENIX Collaboration Winter Workshop on Nuclear Dynamics 2016.
Axel Drees, University Stony Brook, PHY 551 S2003 Heavy Ion Physics at Collider Energies I.Introduction to heavy ion physics II.Experimental approach and.
1 NJL model at finite temperature and chemical potential in dimensional regularization T. Fujihara, T. Inagaki, D. Kimura : Hiroshima Univ.. Alexander.
Deconfinement and chiral transition in finite temperature lattice QCD Péter Petreczky Deconfinement and chiral symmetry restoration are expected to happen.
@ Brookhaven National Laboratory April 2008 QCD Critical Point and Its Effects on Physical Observables Schematic Consideration Masayuki ASAKAWA Department.
T BB Hadronic matter Quark-Gluon Plasma Chiral symmetry broken Chiral symmetry restored Early universe From Chiral Models to Lattice Gauge Theory and.
T BB Hadronic matter Quark-Gluon Plasma Chiral symmetry broken Chiral symmetry restored LHC Modelling QCD phase diagram Polyakov loop extended quark-meson.
Lattice QCD at finite temperature Péter Petreczky
Thermodynamics of QCD in lattice simulation with improved Wilson quark action at finite temperature and density WHOT-QCD Collaboration Yu Maezawa (Univ.
Speaker: Takahiro Doi (Kyoto University)
Deconfinement and Equation of State in QCD
Properties of the Quark-Gluon Plasma
A possible approach to the CEP location
第十八届全国中高能核物理大会 Fluctuations and correlations of conserved charges in the flavor low energy effective model Rui Wen
Presentation transcript:

T BB Hadronic matter Quark-Gluon Plasma Chiral symmetry broken Chiral symmetry restored LHC A-A collisions fixed x 1 st principle calculations: perturbation theory pQCD LGT QCD Phase diagram and its verification in HIC Krzysztof Redlich University of Wroclaw Collaboration: P. Braun-Munzinger, B. Friman, F. Karsch, K. Morita, C. Sasaki & V. Skokov Chiral transition and O(4) pseudo-critical line in LGT Probing O(4) criticality with Charge fluctuations theoretical expectations and STAR data Deconfinement in SU(N) pure gauge theory and in QCD from LGT Collaboration: B. Friman, O. Kaczmarek,, F. Karsch, K. Morita, Pok. Man Lo, C. Sasaki & V. Skokov

QCD phase diagram and the O(4) criticality In QCD the quark masses are finite: the diagram has to be modified Expected phase diagram in the chiral limit, for massless u and d quarks: Pisarki & Wilczek conjecture TCP: Rajagopal, Shuryak, Stephanov Y. Hatta & Y. Ikeda TCP

The phase diagram at finite quark masses The u,d quark masses are small Is there a remnant of the O(4) criticality at the QCD crossover line? CP Asakawa-Yazaki Stephanov et al., Hatta & Ikeda At the CP: Divergence of Fluctuations, Correlation Length and Specific Heat

The phase diagram at finite quark masses Can the QCD crossover line appear in the O(4) critical region? YES, It has been confirmed in LQCD calculations TCP CP LQCD results: BNL-Bielefeld Critical region Phys. Rev. D83, (2011 ) Phys. Rev. D80, (2009)

O(4) scaling and magnetic equation of state Phase transition encoded in the magnetic equation of state pseudo-critical line F. Karsch et al universal scaling function common for all models belonging to the O(4) universality class: known from spin models J. Engels & F. Karsch (2012) QCD chiral crossover transition in the critical region of the O(4) 2 nd order O(4)/O(2)

6 Due to expected O(4) scaling in QCD the free energy: Consider generalized susceptibilities of net-quark number Since for, are well described by the search for deviations (in particular for larger n) from HRG to quantify the contributions of, i.e. the O(4) criticality F. Karsch & K. R. Phys.Lett. B695 (2011) 136 B. Friman, et al.. Phys.Lett. B708 (2012) 179, Nucl.Phys. A880 (2012) 48 Quark fluctuations and O(4) universality class with HRG

7 Only 3-parameters needed to fix all particle yields Tests of equlibration of 1 st “moments”: particle yields resonance dominance: Rolf Hagedorn, Hadron Resonance Gas (HRG) partition funct ion Breit-Wigner res. particle yield thermal density BR thermal density of resonances

Thermal yields and parameters and their energy dependence in HIC Thermal origin of particle yields in HIC is well justified A. Andronic, P. Braun-Munzinger & J. Stachel, Nucl. Phys. (06) Phys.Rev. C73 (2006) J. Cleymans et al. P. Braun-Munzinger et al. QM^12

Particle yields and their ratio, as well as LGT results (F. Karsch, A. Tawfik, S. Ejiri & K.R.) well described by the HRG. A. Andronic et al., Nucl.Phys.A837:65-86,2010. Budapest-Wupperta l Chemical freezeout defines a lower bound for the QCD phase boundary HotQCD Coll.

Quark-meson model w/ FRG approach Effective potential is obtained by solving the exact flow equation (Wetterich eq.) with the approximations resulting in the O(4) critical exponents - Full propagators with k < q < L qq Integrating from k = L to k = 0 gives a full quantum effective potential Put W k =0 ( s min ) into the integral formula for P(N) B. Stokic, B. Friman & K.R. G L =S classical B.J. Schaefer & J. Wambach,;

Deviations of the ratios of odd and even order cumulants from their asymptotic, low T-value: are increasing with and the cumulant order Properties essential in HIC to discriminate the phase change by measuring baryon number fluctuations ! Ratios of cumulants at finite density: PQM +FRG HRG B. Friman, F. Karsch, V. Skokov &K.R. Eur.Phys.J. C71 (2011) 1694 HRG

STAR data on the first four moments of net baryon number Deviations from the HRG Data qualitatively consistent with the change of these ratios due to the contribution of the O(4) singular part to the free energy HRG STAR DATA Phys. Rev. Lett in print

Deviations of the ratios from their asymptotic, HRG values, are increasing with the order of the cumulants Ratio of higher order cumulants in PQM model B. Friman, V. Skokov &K.R. Phys. Rev. C83 (2011) Negative ratio! HRG

Theoretical predictions and STAR data 14 Deviation from HRG if freeze-out curve close to Phase Boundary/Cross over line Lattice QCD Polyakov loop extended Quark Meson Model STAR Data STAR Preliminary L. Chen, QM 12 Strong deviatins of data from the HRG model (regular part of QCD partition function) results: Remnant of O(4) criticality ?

Polyakov loop on the lattice needs renormalization Introduce Polyakov loop: Renormalized ultraviolet divergence Usually one takes as an order parameter 15 HotQCD Coll.

To probe deconfinement : consider fluctuations Fluctuations of modulus of the Polyakov loop However, the Polyakov loop Thus, one can consider fluctuations of the real and the imaginary part of the Polyakov loop. SU(3) pure gauge: LGT data HotQCD Coll.

Compare different Susceptibilities: Systematic differences/simi- larities of the Polyakov lopp susceptibilities Consider their ratios!

Ratios of the Polyakov loop fluctuations as an excellent probe for deconfinement In the deconfined phase Indeed, in the real sector of Z(3) Expand modulus and find: Pok Man Lo, B. Friman, O. Kaczmarek, C. Sasaki & K.R., PRD (2013) Expand the modulus, get in the leading order thus

Ratios of the Polyakov loop fluctuations as an excellent probe for deconfinement In the confined phase Indeed, in the Z(3) symmetric phase, the probability distribution is Gaussian to the first approximation, with the partition function consequently Expand modulus and find: Pok Man Lo, B. Friman, O. Kaczmarek, C. Sasaki & K.R., PRD (2013) In the SU(2) case is in agreement with MC resul ts Thus and

Ratio Imaginary/Real of Polyakov loop fluctuations In the confined phase for any symmetry breaking operator its average vanishes, thus and thus In deconfined phase the ratio of and its value is model dependent Pok Man Lo, B. Friman, O. Kaczmarek, C. Sasaki & K.R., PRD (2013)

Ratio Imaginary/Real and gluon screening In the confined phase WHOT QCD Coll. (Y. Maezawa et al.) and WHOT-coll. identified as the magnetic and electric mass: Since Phys. Rev. D (2010) WHOT QCD Coll: 2-flavors of improved Wilson quarks

String tension from the PL susceptibilities Common mass scale for In confined phase a natural choose for M string tension Pok Man Lo, et al. ( in preparation ) O. Kaczmarek, et al. 99

Polyakov loop and fluctuations in QCD Smooth behavior for the Polyakov loop and fluctuations difficult to determine where is “deconfinement” The inflection point at HOT QCD Coll

The influence of fermions on the Polyakov loop susceptibility ratio Z(3) symmetry broken, however ratios still showing deconfinement Dynamical quarks imply smoothening of the susceptibilities ratio, between the limiting values as in the SU(3) pure gauge theory Pok Man Lo, B. Friman, O. Kaczmarek, C. Sasaki & K.R. Change of the slope in the narrow temperature range signals color deconfinement this work

Probing deconfinement in QCD Kurtosis measures the squared of the baryon number carried by leading particles in a medium S. Ejiri, F. Karsch & K.R. (06) Pok Man Lo, B. Friman, (013) O. Kaczmarek, C. Sasaki & K.R. S. Ejiri, F. Karsch & K.R. (06) lattice with p4 fermion action S. Ejiri, F. Karsch & K.R. (06) HRG factorization of pressure:

Kurtosis of net quark number density in PQM model V. Skokov, B. Friman &K.R. For the assymptotic value due to „ confinement” properties Smooth change with a very weak dependence on the pion mass For

Probing deconfinement in QCD The change of the slope of the ratio of the Polyakov loop susceptibilities appears at the same T where the kurtosis drops from its HRG asymptotic value In the presence of quarks there is “remnant” of Z(N) symmetry in the ratio, indicating deconfi- nement of quarks Pok Man Lo, B. Friman, (013) O. Kaczmarek, C. Sasaki & K.R. S. Ejiri, F. Karsch & K.R. (06) lattice with p4 fermion action

Probing deconfinement in QCD Change of the slope of the ratio of the Polyakov loop susceptibilities appears at the same T where the kurtosis drops from its HRG asymptotic value In the presence of quarks there is “remnant” of Z(N) symmetry in the ratio, indicating deconfi- nement Still the lattice finite size effects need to be studied Pok Man Lo, B. Friman, O. Kaczmarek, C. Sasaki & K.R. S. Ejiri, F. Karsch & K.R. (06) Ch. Schmidt This paper T[MeV]

Polyakov loop susceptibility ratios still away from the continuum limit: The renormalization of the Polyakov loop susceptibilities is still not well described: Still strong dependence on in the presence of quarks. Ch. Schmidt et al.

Conclusions: Chiral transition in QCD belong to the O(4) universality class Ratios the Net-charge susceptibilities are excellent probes of the O(4) chiral crossover in QCD Systematics of the net-proton number fluctuations and their probability distributions measured by STAR are qualitatively consistent with the expectation, that they are influenced by the O(4) criticality. Ratios of different Polyakov loop susceptibilities are excellent and novel probe of deconfinement in QCD There is a coincident between deconfinement and O(4) chiral crossover in QCD at small baryon density