UID:
edocfu_9959234721202883
Format:
1 online resource (540 p.)
ISBN:
1-281-90619-0
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9786611906191
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981-270-449-3
Content:
The SEWM2002 workshop, like the ones before, brought together theoretical physicists working on thermal field theory and, more generally, on (resummation) techniques for deriving effective actions based on QCD and the electroweak standard model of elementary particle physics, but describing nonstandard situations. The focus was on the temperature/chemical potential phase diagram of QCD, considered both analytically and with lattice gauge theory, equilibrium and nonequilibrium thermo field theory, and on heavy ion physics. Other related topics were "small x physics" in QCD, electroweak baryogen
Note:
Description based upon print version of record.
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Preface; Organizers; List of Participants; CONTENTS; Main Talksa; The Phase Diagram of QCD; Quark-Gluon Plasma Phenomenology; Minibang in the Laboratory: Heavy Ion Collisions at the SPS and Outlook for LHC J. Stachel (Contribution not received); Thermal and Nonequilibrium QFT; Small x-Physics; Cosmology; Contributed Talks; The Phase Diagram of QCD; Quark-Gluon Plasma Phenomenology; Thermal and Nonequilibrium QFT; Small x-Physics; Cosmology; Lattice QCD at Non-Vanishing Density: Phase Diagram, Equation of State F. Csikor, G. I. Egri, Z, Fodor, S. D. Katz, K. K. Szabd and A . I. Tdth
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1. Introduction2. Overlap improving multi-parameter reweighting; 3. The endpoint of nf = 2 + 1 QCD; 4. Equation of state at non-vanishing T and; 5. Conclusion; Acknowledgements; References; Lattice Studies of QCD Thermodynamics E. Laermann; 1. Introduction; 2. Critical temperature and the phase transition; 3. Equation of state; 4. Thermal hadron correlations; 5. Summary; References; What Mediates the Longest Correlation Length in the QCD Plasma? O. Philipsen; 1. Introduction; 2. A non-local gluon operator; 3. Discussion and interpretation; 4. A numerical check
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5. The gluon propagator and static mesons6. The magnetic mass; 7. Conclusions; References; Effective Lagrangians for Polyakov Loops and Quarkless Baryons R. D. Pisarski; 1. Introduction; 2. Polyakov Loops; 3. Two Colors; 4. Three Colors; Acknowledgements; References; New Results for Spin-One Color Superconductors A. Schmitt, Q. Wang and D. H. Rischke; 1. Introduction; 2. Color-Superconducting Gap and Transition Temperature; 3. Electromagnetic Meissner effect; Acknowledgment; References; Anomaly Matching and Low Energy Theories at High Matter Density F. Sannino; 1. Introduction
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2. Color Superconductivity and the QCD Phase Diagram2.1. Color Flavor Locked Phase; 2.2. 2 SC General Features; 3. Anomaly Matching Conditions; 4. 2SC Effective Low Energy Theory; 4.1. The 5 massive Gluons; 4.2. ... and don't relax yet !; 5. The SUc(2) Glueball Lagrangian; 6. Conclusions; Acknowledgments; References; Complex Action Problems in Models for QCD at Finite Density U.- J. Wiese; 1. Introduction; 2. A Potts Model for Dense QCD; 3. Models of Pions and Baryons at Non-zero Chemical Potential; 4. Conclusions; Acknowledgements; References
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RHIC and the Search for High Energy Density Matter L. McLerran1. High Density Matter: The Frontier of High Energy Nuclear Physics; 1.1. The Goals of RHIC; 1.2. The Quark Gluon Plasma; 1.2.1. What as the Quark Gluon Plasma?; 1.2.2. The Quark Gluon Plasma and Fundamental Physics Issues; 1.3. The Color Glass Condensate; 1.3.1. What is the Color Glass Condensate?; 1.3.2. Why is the Color Glass Condensate Important?; 2. How Do Heavy Ion Collisions at RHIC Address the Scientific Issues?; 3. What We Have Learned from RHIC; 3.1. The Energy Density is Big; Acknowledgements; References
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Jet Tomography in Heavy Ion Collisions U. A. Wiedemann
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English
Additional Edition:
ISBN 981-238-333-6
Language:
English
