Dynamical modeling of the chiral magnetic effect in heavy-ion collisions [arXiv:1412.0311] Yuji Hirono [Stony Brook Univ.] Collaborators: T. Hirano[Sophia.

Slides:

Advertisements

Similar presentations

Multi-Particle Azimuthal Correlations at RHIC !! Roy A. Lacey USB - Chem (SUNY Stony Brook ) What do they tell us about Possible Quenching?

Advertisements

Effects of Bulk Viscosity on p T -Spectra and Elliptic Flow Parameter Akihiko Monnai Department of Physics, The University of Tokyo, Japan Collaborator:

Heavy flavor mesons in strong magnetic fields Michal Šumbera Nuclear Physics Institute AS CR, Řež/Prague Based on the presentation of Peter Filip at CPOD.

Spontaneous Parity Violation in Strong Interactions Dhevan Gangadharan (UCLA) On behalf of the STAR Collaboration WWND

Chiral Anomaly and Local Polarization Effect from Quantum Transport Approach 高建华山东大学（威海） J.H. Gao, Z.T. Liang, S. Pu, Q. Wang, X.N. Wang, PRL 109, (2012)

Quantum Kinetic Theory Jian-Hua Gao Shandong University at Weihai In collaboration with Zuo-Tang Liang, Shi Pu, Qun Wang and Xin-Nian Wang PRL 109, (2012),

Winter Workshop on Nuclear Dynamics, Feb 2011 Centrality dependence of number and transverse momentum correlations in Au+Au collisions at 200 GeV Monika.

Freeze-Out in a Hybrid Model Freeze-out Workshop, Goethe-Universität Frankfurt Hannah Petersen.

/home/vkoch/Desktop/INT2010/parity_ta lk.odp 1 Have we seen Local Parity Violation at RHIC? ● Introduction ● What the present data tell us ● Alternative.

WWND, San Diego1 Scaling Characteristics of Azimuthal Anisotropy at RHIC Michael Issah SUNY Stony Brook for the PHENIX Collaboration.

Perfect Fluid: flow measurements are described by ideal hydro Problem: all fluids have some viscosity -- can we measure it? I. Radial flow fluctuations:

Perfect Fluid: flow measurements are described by ideal hydro Problem: all fluids have some viscosity -- can we measure it? I. Transverse flow fluctuations:

Charge Asymmetry Correlations Searching for Local Parity Violation Quan Wang, Purdue For STAR Collaboration.

Measurement of Charge Asymmetry Correlations in Heavy Ion Collisions Quan Wang, Purdue For STAR Collaboration 111/4/2010DNP 2010.

Effects of Bulk Viscosity at Freezeout Akihiko Monnai Department of Physics, The University of Tokyo Collaborator: Tetsufumi Hirano Nagoya Mini-Workshop.

Pavel Buividovich (Regensburg). To the memory of my Teacher, excellent Scientist, very nice and outstanding Person, Mikhail Igorevich Polikarpov.

Pavel Buividovich (Regensburg). To the memory of my Teacher, excellent Scientist, very nice and outstanding Person, Prof. Dr. Mikhail Igorevich Polikarpov.

Viscous hydrodynamics DPF 2009 Huichao Song The Ohio State University Supported by DOE 07/30/2009 July 27-July 31, Detroit, MI with shear and bulk viscosity.

Viscous Hydrodynamics for Relativistic Heavy-Ion Collisions: Riemann Solver for Quark-Gluon Plasma Kobayashi Maskawa Institute Department of Physics, Nagoya.

Heavy Ion Meeting , Inha Univ., Korea, Nov.2, 2013 Tetsufumi Hirano Sophia Univ. K.Murase, TH, arXiv: Y.Tachibana, TH, Nucl.Phys.A (2013)1023c.

Hydrodynamic Tests of Fluctuating Initial Conditions George Moschelli & Hannu Holopainen Transport Meeting 24 January 2012.

Diffusion of transverse correlations and shear viscosity in heavy ion collisions Qun Wang ( 王群 ) Univ of Sci & Tech of China ( 中国科技大学 ) With L.G.Pang,X.N.Wang,R.Xu.

Two Particle Correlations and Viscosity in Heavy Ion Collisions Monika Sharma for the Wayne State University STAR Collaboration Outline: Motivation Measurement.

Perfect Fluid: flow measurements are described by ideal hydro Problem: all fluids have some viscosity -- can we measure it? I. Radial flow fluctuations:

♥ Introductory remarks ♥ Fluctuating sources of CME background ♥ Analysis of CME experiments ( Phys. Rev. C84, (2011); ( Phys. Rev. C84,

Flow fluctuation and event plane correlation from E-by-E Hydrodynamics and Transport Model LongGang Pang 1, Victor Roy 1,, Guang-You Qin 1, & Xin-Nian.

Longitudinal de-correlation of anisotropic flow in Pb+Pb collisions Victor Roy ITP Goethe University Frankfurt In collaboration with L-G Pang, G-Y Qin,

1 Search for effects related to Chiral Magnetic Wave at STAR Gang Wang (UCLA) for STAR Collaboration.

Workshop for Particle Correlations and Femtoscopy 2011

November 18, Shanghai Anomalous Viscosity of an Expanding Quark-Gluon Plasma Masayuki ASAKAWA Department of Physics, Osaka University S. A.

Study the particle ratio fluctuations in heavy- ion collisions Limin Fan ( 樊利敏 ) Central China Normal University (CCNU) 1.

Holography of the Chiral Magnetic Effect and Background-Dependence Ingo Kirsch DESY Hamburg, Germany ` International Symposium Ahrenshoop on the Theory.

What the ridge is telling us and why its important Raju Venugopalan Brookhaven National Laboratory STAR Analysis Meeting, MIT, July 9th, 2009.

Akihiko Monnai Department of Physics, The University of Tokyo Collaborator: Tetsufumi Hirano V iscous Hydrodynamic Expansion of the Quark- Gluon Plasma.

Chiral Kinetic Theory for Quark Matter

The quest for the holy Grail: from Glasma to Plasma Raju Venugopalan CATHIE-TECHQM workshop, Dec , 2009 Color Glass Condensates Initial Singularity.

Jet Physics in ALICE Mercedes López Noriega - CERN for the ALICE Collaboration Hot Quarks 2006 Villasimius, Sardinia - Italy.

Flow fluctuation and event plane correlation from E-by-E Hydrodynamics and Transport Model Victor Roy Central China Normal University, Wuhan, China Collaborators.

Koichi Murase A, Tetsufumi Hirano B The University of Tokyo A, Sophia University B Hydrodynamic fluctuations and dissipation in an integrated dynamical.

Does HBT interferometry probe thermalization? Clément Gombeaud, Tuomas Lappi and J-Y Ollitrault IPhT Saclay WPCF 2009, CERN, October 16, 2009.

Partial thermalization, a key ingredient of the HBT Puzzle Clément Gombeaud CEA/Saclay-CNRS Quark-Matter 09, April 09.

Evolution of electromagnetic field in HIC and chiral magnetic effect V. Toneev In collaboration with V. Voronyuk, E. Bratkovskaya, W.Cassing, V. Konchakovski,

ALICE Overview Ju Hwan Kang (Yonsei) Heavy Ion Meeting June 10, 2011 Korea University, Seoul, Korea.

11/18/2003Tetsufumi Hirano (RBRC)1 Rapidity Dependence of Elliptic Flow from Hydrodynamics Tetsufumi Hirano RIKEN BNL Research Center (Collaboration with.

Masakiyo Kitazawa （ Osaka U. ） Diffusion of Non-Gaussianity in Heavy Ion Collisions MK, Asakawa, Ono, arXiv: SQM, Birmingham, 23, July 2013.

Dhevan Gangadharan (for the STAR Collaboration) Postdoctoral Researcher at CERN--Ohio State University.

Heavy-Ion Physics - Hydrodynamic Approach Introduction Hydrodynamic aspect Observables explained Recombination model Summary 전남대 이강석 HIM

Charge-dependent correlations from event-by-event anomalous hydrodynamics [arXiv: ] Yuji Hirono [Stony Brook Univ.] Collaborators: T. Hirano [Sophia.

Glasma, minijets, strings  long range  correlations  Venugopalan Ask: how does viscous flow modify these correlations? Viscosity, Flow and the Ridge.

Implications for LHC pA Run from RHIC Results CGC Glasma Initial Singularity Thermalized sQGP Hadron Gas sQGP Asymptotic.

Heavy quark energy loss in hot and dense nuclear matter Shanshan Cao In Collaboration with G.Y. Qin, S.A. Bass and B. Mueller Duke University.

Viscous Hydrodynamic Evolution for the CGC at RHIC and LHC Akihiko Monnai Department of Physics, The University of Tokyo Collaborator: Tetsufumi Hirano.

3 rd Joint Meeting of the Nuclear Physics Divisions of the APS and the JPS October 15 th 2009, Hawaii USA Akihiko Monnai Department of Physics, The University.

Dhevan Gangadharan UCLA STAR Collaboration DNP meeting 10/25/08 1.

Koichi Murase, The University of Tokyo, Sophia University Relativistic fluctuating hydrodynamics 2016/2/18, ATHIC 2016, New Delhi, India 2016/2/181.

Workshop on Flow and heavy flavour in high energy heavy-Ion collisions Inha University, 2015/2/26.

1 Roy A. Lacey, Stony Brook University; ICFP 2012, June, Crete, Greece Essential Question  Do recent measurements at RHIC & the LHC, give new insights.

PHENIX. Motivation Collaboration PHENIX Roy A. Lacey (SUNY Stony Brook) PHENIX Collaboration I N T E R N A T I O N A L W O R K S H O P O N T H E P H.

Anomalous parity violation, chiral magnetic effect and holography Ingo Kirsch DESY Hamburg, Germany ` DESY Theory Workshop 2011 Cosmology meets Particle.

Fluctuations, Instabilities and Collective Dynamics L. P. Csernai 1 and H. Stöcker 2 1 Institute of Physics and Technology, University of Bergen, Allegaten.

Akihiko Monnai Department of Physics, The University of Tokyo Collaborator: Tetsufumi Hirano V iscous Hydrodynamic Evolution with Non-Boost Invariant Flow.

I. Correlations: PHOBOS Data, Flux Tubes and Causality II. Ridge: Transverse Flow, Blast Wave Long Range Correlations and Hydrodynamic Expansion Sean Gavin.

Chiral Magnetic Effect and Holography Ingo Kirsch DESY Hamburg, Germany ` X th Quark Confinement and the Hadron Spectrum, TUM Department of Physics, 7-12.

Chiral Magnet Effect, where are we?

Collective Excitations in QCD Plasma

Pier Oddone, Erice, September 2010

Recent Development in RELATIVISTIC HYDRODYNAMIC MODEL

Effects of Bulk Viscosity at Freezeout

Analisi del flow con il metodo dei coefficienti di Fourier

Stony Brook University

Presentation transcript:

Dynamical modeling of the chiral magnetic effect in heavy-ion collisions [arXiv: ] Yuji Hirono [Stony Brook Univ.] Collaborators: T. Hirano[Sophia U], D. E. Kharzeev [SBU/BNL] 1

2 Anomalous transport in heavy-ion collisions? [STAR, PRL2009, PRC2010] [ALICE, PRL2013]

[STAR, PRL2009, PRC2010] 3 Anomalous transport in heavy-ion collisions? [ALICE, PRL2013] Outline 1. Physical meaning of obs. 2. EbE anomalous hydro 3. Results

Charge dependent correlations [STAR] 4

5

6 B

7 B

8

9

10 Anomalous transport in heavy-ion collisions? [STAR, PRL2009, PRC2010] [ALICE, PRL2013] □Event-by-event anomalous hydro □Initial random

Event-by-event anomalous hydrodynamic model 11 Anomalous hydro evolution Freeze-out Correlations Initial state An initial cond. Particle data for 1 event

Non-dissipative anomalous fluid in 3+1D no viscosity/Ohmic conductivity Background electromagnetic fields Anomalous hydrodynamics equations 12

Equation of state - conformal massless quarks & gluons Anomalous hydrodynamics equations 13 Constitutive equations CME CSE [Son & Surowka (2009)] [Kalaydzhyan & Kirsch (2011)]

MC Sampling of particles Isothermal hypersurface Linux cluster at Sophia Univ cores - A few days per 100k events Linux cluster at Sophia Univ cores - A few days per 100k events Can be written as 1D integral! [ PPNP70, 108[arxiv: ] ] K. Murase [U-Tokyo]

15 Anomalous transport in heavy-ion collisions? [STAR, PRL2009, PRC2010] [ALICE, PRL2013] □Event-by-event anomalous hydro □Initial random ✓

Sources of axial charges Color flux tubes Electromagnetic field QCD sphalerons 16 Spatially random Random & Coherent Diffusive & fluctuation

17

18

19

20

: # of pairs : # of ( ) Axial charges from color flux tubes 21

Axial charges from color flux tubes 22

Axial charges from color flux tubes 23 Sign of

Axial charges from color flux tubes 24 Sign of

estimated by anomaly equation 25

26 - RHIC energy - b=7.2fm(20-30%) - B

27 - RHIC energy - b=7.2fm(20-30%) - 27 B

28 Anomalous transport in heavy-ion collisions? [STAR, PRL2009, PRC2010] [ALICE, PRL2013] □Event-by-event anomalous hydro □Initial random ✓ ✓

Correlations 29 same-charge opposite-charge

Correlations:, 30 - b=7.2(20-30%) - RHIC energy - 100k events -

Why fluctuation also become larger? 31

Correlations:, 32 - b=7.2(20-30%) - RHIC energy - 100k events - Anti-correlation btw. &___

(same) vs centrality 33

(opposite) vs centrality 34

Background effects Transverse momentum conservation Local charge conservation Cluster particle correlations 35 [ S. Pratt, S. Schlichting, S. Gavin, PRC(2011) ] [ S. Schlichting and S. Pratt, PRC(2011) ] [ F. Wang, PRC(2010) ] [ A. Bzdak, V. Koch, J. Liao, PRC(2011) ] In our current simulations, multi-particle correlations are not imposed Cooper-Frye formula → single-particle distributions [ Y. Hori, S. Schlichting, et al [ ] ]

36 Anomalous transport in heavy-ion collisions? [STAR, PRL2009, PRC2010] [ALICE, PRL2013] □Event-by-event anomalous hydro □Initial random ✓ ✓ Outlook pt & eta dependence / parameter dependence (√s, tau_B, …) Back reaction/Dissipations/CVE/realistic EOS/… Better experimental observables

Possible improvements 37 Anomalous hydro evolution Freeze-out Correlations Initial state - n5 profile based on CGC - Charge separation in glasma - More realistic EOS with mu & mu5 dep. - Chiral vortical effect - Backreaction to EM field - Dissipational effects - viscosity - conductivity - Multi-particle corr. - Differential analysis - eta, pt - Parameter dep. - Cmu5, B, √s - New obs. insensitive to background

Backup slides 38

Background magnetic fields 39

vs centrality 40

Electromagnetic fields 41

Harmonics Azimuthal angle distribution of observed particles Represents the shape the flow 42 “triangle”“elliptic” “directed”

Charge dependent correlations [STAR] 43

MC-Glauber initial condition 44