FYSH551 - Ultra-relativistic Heavy Ion Physics

Similar documents
Virtual particles - the ultimate source of any force

Jet quenching in heavy-ion collisions at the LHC. Marta Verweij CERN

Course Evaluation, Department of Theoretical Physics - FYS230 Theoretical Particle Physics, Fall 2006

The ATLAS Experiment and the CERN Large Hadron Collider. HEP101-6 March 12, 2012

High Energy Collisions with ALICE at the LHC

Ultrarelativistic Heavy-Ion Collisions

EIC Science. Rik Yoshida, EIC-Center at Jefferson Lab Abhay Deshpande, Center for Frontiers in Nuclear Physics, BNL and Stony Brook

Ultra-Relativistic Heavy Ion Physics (FYSH551), May 31, 2013 Jan Rak and Thorsten Renk

Highlights from. Part I HEPP-EPS EPS Lisbon, Portugal, July 21 st 27 th, International Europhysics Conference on High Energy Physics

Physics Quantum Field Theory I. Section 1: Course Logistics and Introduction

Frontier Particle Accelerators

Phenomenology of Heavy-Ion Collisions

Heavy-Ion Physics Lecture 1: QCD and the Quark-Gluon Plasma

The Quark-Gluon Plasma and the ALICE Experiment

Confronting Theory with Experiment at the LHC

Course Evaluation, FYTN04 Theoretical Particle. Particle Physics, Fall 12, Department of Astronomy and Theoretical Physics

PHY397K - NUCLEAR PHYSICS - 2

The Physics of Particles and Forces David Wilson

The ATLAS Experiment and the CERN Large Hadron Collider

42 Particle Physics Phenomenology

LHC Physics Potential vs. Energy: Considerations for the 2011 Run

FYS 3510 Subatomic physics with applications in astrophysics. Nuclear and Particle Physics: An Introduction

The ATLAS Experiment and the CERN Large Hadron Collider

Quark model. Jan 30, 2006 Lecture 8 1

Discovery of the W and Z 0 Bosons

SYMMETRIES & CONSERVATIONS LAWS. Stephen Haywood (RAL) Tel Symmetries & Conservation Laws Lecture 0, page1

The Strong Interaction and LHC phenomenology

Theoretical outlook. D. Kharzeev

PH5211: High Energy Physics. Prafulla Kumar Behera Room: HSB-304B

I. Antoniadis CERN. IAS CERN Novice Workshop, NTU, 7 Feb 2014

Contents. Preface to the First Edition Preface to the Second Edition

Detecting. Particles

Constraining the QCD equation of state in hadron colliders

Introduction to High Energy Nuclear Collisions I (QCD at high gluon density) Jamal Jalilian-Marian Baruch College, City University of New York

The Electron-Ion Collider: Exploring the science of Nuclear Femtography

Big Bang to Little Bang ---- Study of Quark-Gluon Plasma. Tapan Nayak July 5, 2013

Heavy Ions at the LHC: Selected Predictions. Georg Wolschin. Institut für Theoretische Physik der Universität, Heidelberg, Germany

Lecture 3 Cross Section Measurements. Ingredients to a Cross Section

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

Event Generator Physics 2

PHENIX measurements of bottom and charm quark production

Beyond Standard Models Higgsless Models. Zahra Sheikhbahaee

Particle Physics. Dr Victoria Martin, Spring Semester 2012 Lecture 10: QCD at Colliders

LHC Physics. Christopher S. Hill University of Bristol. Warwick Week 12 th - 16 th April, 2010

The Structure of the Proton in the Higgs Boson Era

Zhong-Bo Kang Los Alamos National Laboratory

Particle Theory Beyond the Standard Model. Ann Nelson University of Washington August 9, 2010

Measurement of W-boson production in p-pb collisions at the LHC with ALICE

Course Evaluation, FYTN04 Theoretical Particle. Particle Physics, Fall 11, Department of Astronomy and Theoretical Physics

Detecting. Particles

Chapter 32 Lecture Notes

The direct photon puzzle

SIGNALS FOR TOP QUARK ANOMALOUS CHROMOMAGNETIC MOMENTS AT COLLIDERS

Analyzing CMS events

The Exchange Model. Lecture 2. Quantum Particles Experimental Signatures The Exchange Model Feynman Diagrams. Eram Rizvi

Open heavy-flavour production in pp, p Pb and Pb Pb collisions in ALICE

Higgs Boson Production at the LHC

Exploring quark-gluon plasma in relativistic heavy-ion collisions

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

QGP event at STAR. Patrick Scott

A Comparative Study of Quark-Gluon Plasma at the Core of a Neutron Star and in the Very Early Universe. Frikkie de Bruyn

FYST17 Lecture 6 LHC Physics II

What s So Small to You is So Large to Me

Soft physics results from the PHENIX experiment

Paul Newman Birmingham University. Can we add ep and ea collisions to the existing LHC pp, AA and pa programme?

Searching For p+ p+ Rapidity Dependent Correlations in Ultra-relativistic Quantum Molecular Data. Abstract

The LHC p+pb run from the nuclear PDF perspective

Quarkonia physics in Heavy Ion Collisions. Hugo Pereira Da Costa CEA/IRFU Rencontres LHC France Friday, April

PHYSICS 564 Introduction to Particle Physics I

Study of event shape in pp collisions at LHC energies using the PYTHIA model

TOTEM Update BSM? Fredrik Oljemark (Helsinki Univ. & HIP) On behalf of the TOTEM Collaboration Jyväskylä, TOTEM p. 1

Experimental Aspects of Deep-Inelastic Scattering. Kinematics, Techniques and Detectors

Lecture 03. The Standard Model of Particle Physics. Part II The Higgs Boson Properties of the SM

Standard Model of Particle Physics SS 2012

PoS(Confinement X)171

Introduction to Relativistic Heavy Ion Physics

Dijet Asymmetry in Pb+Pb Collisions at S NN = 2.76 TeV Using the ALICE Experiment

QCD in Heavy-ion collisions

Introduction to Particle Physics 1

Introduction to Relativistic Heavy Ion Physics

The non-linear regime of quantum chromodynamics in the context of relativistic heavy-ion collisions

Introduction to perturbative QCD and factorization

Gluon and Gluon-Selfinteraction

Toward an Understanding of Hadron-Hadron. Collisions From Feynman-Field to the LHC

Overview on the Future Electron-Ion Collider Projects

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

High Energy Frontier Recent Results from the LHC: Heavy Ions I

The Particle World. This talk: What is our Universe made of? Where does it come from? Why does it behave the way it does?

Decay rates and Cross section. Ashfaq Ahmad National Centre for Physics

Entropy Rate of Thermal Diffusion

BRIEF INTRODUCTION TO HERA PHYSICS

colliding ultra-relativistic nuclei at the LHC results and perspectives

Photon production in the bottom-up thermalization of heavy-ion collisions

Heavy Ion Collision Measurements at the LHC Using the CMS Detector

Background Subtraction Methods on Recoil Jets from Proton-Proton Collisions

A fantastic experiment

Particle Physics Lectures Outline

Physics (PHYS) Courses. Physics (PHYS) 1

Paul Newman Birmingham University Lepton-hadron collider based on the high lumi LHC Can we add ep and ea collisions to the existing LHC pp, AA and pa

The God particle at last? Astronomy Ireland, Oct 8 th, 2012

Transcription:

FYSH551 - Ultra-relativistic Heavy Ion Physics Lecture notes Jan Rak Jyväskylä University, HIP, Finland March 8, 2015 Jan Rak (Jyväskylä University, HIP, Finland) FYSH551 - Ultra-relativistic Heavy Ion Physics March 8, 2015 1 / 22

Lectures organization FYSH551 - Ultra-relativistic Heavy Ion Physics, 7 ECTS Lectures: 20 sessions (40h) Exercises: 10 sessions Grading: Final exam 75% Exercises 25% All material in: https://trac.cc.jyu.fi/projects/alice/wiki/jan Jan Rak (Jyväskylä University, HIP, Finland) FYSH551 - Ultra-relativistic Heavy Ion Physics March 8, 2015 2 / 22

Topics Content: Introduction to Ultrarelativistic Heavy Ion Physics in theory and experiment. The course provides an overview over key aspects of modern high-energy heavy ion physics at the Relativistic Heavy Ion Collider (RHIC) and the CERN Large Hadron Collider (LHC) and presents both the theoretical and the experimental perspective. Jan Rak (Jyväskylä University, HIP, Finland) FYSH551 - Ultra-relativistic Heavy Ion Physics March 8, 2015 3 / 22

Topics Topics to be discussed: 1 Notes on Quantum Mechanics and open questions in physics 2 Notes on Quantum Field Theory, QCD and the asymptotic freedom. 3 Running coupling constant. 4 Notes on Lorentz transformation. 5 Parton Model and the high-pt physics. 6 Quark Gluon Plasma (QGP), QCD thermodynamics. 7 QCD hydrodynamics, flow velocity, Energy-momentum tensor. 8 Heavy Ion experiments. 9 Nuclear geometry, basic observables. 10 Collective phenomena, flow. 11 Probing QGP at LHC - high-p T particles and jets. 12 Basics of C++ and ROOT analysis frame. 13 Selected notes on accelerator physics, Luminosity, beam optics, LHC machine. 14 Selected notes on the statistical method and the data analysis. 15 Selected notes on particle interactions with matter, particle detection techniques. Jan Rak (Jyväskylä University, HIP, Finland) FYSH551 - Ultra-relativistic Heavy Ion Physics March 8, 2015 4 / 22

Material Material: 1 J. Rak, M. Tannenbaum High-p T physics in the LHC era, Cambridge Uni. Press, 2013. 2 D. Green, The Physics of Particle detectors, Cambridge University Press 2000. 3 F. James, Statistical Methods in Experimental Physics, World Scientific, 2007. 4 Y. Dokshitzer Basics of perturbative QCD, 1991, http://www.lpthe.jussieu.fr/~yuri 5 W. Florkowski, Phenomenology of ultra-relativistic heavy-ion collisions, World Scientific, 2010. 6 F. Halzen, A.D. Martin, Quarks & leptons, John Wiley & Sons, 1984 7 M. E. Peskin, D. V. Schroeder, An Introduction to Quantum Field Theory, Addison-Wesley, 1995. 8 R. Keith Ellis, W. James Stirling and Bryan R. Webber, QCD and collider physics, Cambridge University Press, 1996. 9 Dan Green, High Pt Physics at Hadron Colliders, Cambridge University Press, 2005. 10 Kohsuke Yagi, Tetsuo Hatsuda, Yasuo Miake, Quark-Gluon Plasma,Cambridge University Press, 2005. 11 L. Czernay, Relativistic Heavy Ion Physics, World Scientific, 1991. 12 Cheuk-Yin, Wong, Introduction to High-Energy Heavy-Ion collisions, World Scientific Pub Co Inc, 1994. 13 Ramona Vogt, Ultrarelativistic Heavy-Ion Collisions, Elsevier, 2007. 14 D.H. Perkins, Introduction to High Energy Physics, Addison-Wesley, 1987. 15 A. Zee, Quantum Field Theory in a Nutshell, Princeton University Press, 2003. Jan Rak (Jyväskylä University, HIP, Finland) FYSH551 - Ultra-relativistic Heavy Ion Physics March 8, 2015 5 / 22

The most important material :-) Jan Rak (Jyväskylä University, HIP, Finland) FYSH551 - Ultra-relativistic Heavy Ion Physics March 8, 2015 6 / 22

Lectures goal People often ignore history. Who reads papers older than 2000? 2010? People often assume that they can learn physics from Monte Carlo. People often assume that they can learn anything from Monte Carlo. People often ignore the REAL message the reality is telling us. Let me be bit provocative :-) The goal is to get you familiar with URHI physics and method frequently used the the field and prepare potentially interested candidates for an easy integration into the international collaboration/community. Jan Rak (Jyväskylä University, HIP, Finland) FYSH551 - Ultra-relativistic Heavy Ion Physics March 8, 2015 7 / 22

Questions to think about The scientist is free, and must be free to ask any question, to doubt any assertion, to seek for any evidence, to correct any errors. Robert Oppenheimer Why HE physics? What is the purpose and benefit for the society, people, your friends and your mother? Why do you want to accomplish, what are the goals you wanna reach in your career? Where is the force coming from? Where is the attractive force coming from? Why the two point-like objects (quark) could ever scatter? Jan Rak (Jyväskylä University, HIP, Finland) FYSH551 - Ultra-relativistic Heavy Ion Physics March 8, 2015 8 / 22

What is the High Energy Particle Physics about Three Kingdoms of Reality Jan Rak (Jyväskylä University, HIP, Finland) FYSH551 - Ultra-relativistic Heavy Ion Physics March 8, 2015 9 / 22

What is the High Energy Particle Physics about Quantum physics Copenhagen interpretation - wavefunction collapse Quantum decoherence Many-worlds interpretation De Broglie-Bohm Objective collapse... Quantum Field Theory Standard Model - EW sector Phase transition - QCD Relativity Connection between QM and gravity? Jan Rak (Jyväskylä University, HIP, Finland) FYSH551 - Ultra-relativistic Heavy Ion Physics March 8, 2015 10 / 22

Top scientific mysteries for the 21st century http://discovermagazine.com/2002/feb/cover Jan Rak (Jyväskylä University, HIP, Finland) FYSH551 - Ultra-relativistic Heavy Ion Physics March 8, 2015 11 / 22

Top scientific mysteries for the 21st century Jan Rak (Jyväskylä University, HIP, Finland) FYSH551 - Ultra-relativistic Heavy Ion Physics March 8, 2015 12 / 22

Top scientific mysteries for the 21st century Jan Rak (Jyväskylä University, HIP, Finland) FYSH551 - Ultra-relativistic Heavy Ion Physics March 8, 2015 13 / 22

Top scientific mysteries for the 21st century Jan Rak (Jyväskylä University, HIP, Finland) FYSH551 - Ultra-relativistic Heavy Ion Physics March 8, 2015 14 / 22

Top scientific mysteries for the 21st century Jan Rak (Jyväskylä University, HIP, Finland) FYSH551 - Ultra-relativistic Heavy Ion Physics March 8, 2015 15 / 22

Top scientific mysteries for the 21st century Jan Rak (Jyväskylä University, HIP, Finland) FYSH551 - Ultra-relativistic Heavy Ion Physics March 8, 2015 16 / 22

Top scientific mysteries for the 21st century Jan Rak (Jyväskylä University, HIP, Finland) FYSH551 - Ultra-relativistic Heavy Ion Physics March 8, 2015 17 / 22

Top scientific mysteries for the 21st century Jan Rak (Jyväskylä University, HIP, Finland) FYSH551 - Ultra-relativistic Heavy Ion Physics March 8, 2015 18 / 22

Top scientific mysteries for the 21st century Jan Rak (Jyväskylä University, HIP, Finland) FYSH551 - Ultra-relativistic Heavy Ion Physics March 8, 2015 19 / 22

Top scientific mysteries for the 21st century Jan Rak (Jyväskylä University, HIP, Finland) FYSH551 - Ultra-relativistic Heavy Ion Physics March 8, 2015 20 / 22

My billion dollars questions What is the Quantum Mechanics teaching us about the Objective Reality? Particle-wave duality. How do we understand it? Just single or double slit experiment tells it all. Entanglement and non-locality in Quantum mechanics. Delay Choice experiment. Quantum tunneling Interaction free measurement. Quantum Zeno effect: take the decaying atom observing it and finding it undecayed resets the system to a definitive state, and the Schrödinger-equatlon evolution towards "decayed" must start again from scratch. The corollary is that If you keep measuring often enough. the system will never be able to decay. Casimir effect - nothing comes from nothing (more about this in the next lecture.) Aharonov Bohm effect Jan Rak (Jyväskylä University, HIP, Finland) FYSH551 - Ultra-relativistic Heavy Ion Physics March 8, 2015 21 / 22

Thanks for your attention! Slides for this talk will be available at: https://trac.cc.jyu.fi/projects/alice/wiki/jan/lectures15urhi FYSH551 - Ultra-relativistic Heavy Ion Physics Lecture notes Jan Rak Jyväskylä University, HIP, Finland March 8, 2015 Jan Rak (Jyväskylä University, HIP, Finland) FYSH551 - Ultra-relativistic Heavy Ion Physics March 8, 2015 22 / 22