Title -- Contents -- Preface -- Acknowledgments -- Color Plates -- Part One Electroweak Dynamics -- 1 The Standard Model -- 1.1 Introduction -- 1.2 Weak Charge and SU(2) × U(1) Symmetry -- 1.3 Spontaneous Symmetry Breaking -- 1.3.1 An Intuitive Picture of Spontaneous Symmetry Breaking -- 1.3.2 Higgs Mechanism -- 1.3.3 Unitary Gauge -- 1.3.4 Mass Generation -- 1.4 Gauge Interactions -- 1.5 Higgs Interactions -- 1.6 Feynman Rules of Electroweak Theory -- 1.7 Roles of the Higgs in Gauge Theory -- 2 Neutral Current -- 2.1 Discovery of the Neutral Current -- 2.2 v-e Scattering -- 2.3 νN -> ν + X -- 2.4 Parity Violation in the Electromagnetic Processes -- 2.4.1 Atomic Process -- 2.4.2 Polarized e-D Scattering -- 2.5 Electroweak Unification at High Q2 -- 2.6 Asymmetry in the e-e+ -> ll,cc,bb -- 2.7 Asymmetry in q + q -> l + l -- 3 W -- 3.1 Discovery of W, Z -- 3.2 Basic Formulas -- 3.2.1 Decay Width -- 3.2.2 Hadronic Production of W,Z -- 3.3 Properties of W -- 3.3.1 Asymmetry of Decay Leptons from W,Z -- 3.3.2 Spin of W,Z -- 3.3.3 Mass of W -- 3.3.4 Decay Width of W -- 3.3.5 Triple Gauge Coupling -- 4 Physics at Z Resonance -- 4.1 Born Approximation -- 4.2 Improved Born Approximation -- 4.3 Experimental Arrangements -- 4.3.1 Detectors -- 4.3.2 Luminosity Monitor -- 4.3.3 Energy Determination -- 4.3.4 Heavy Quark Tagging -- 4.4 Observations -- 4.4.1 Event Characteristics -- 4.4.2 Mass, Widths and Branching Ratios -- 4.4.3 Invisible Width -- 4.4.4 Asymmetries -- 4.5 Weinberg Angle and ρ Parameter -- 5 Precision Tests of the Electroweak Theory -- 5.1 Input Parameters -- 5.2 Renormalization -- 5.2.1 Prescription -- 5.2.2 Self-Energy of Gauge Bosons -- 5.3 µ Decay -- 5.3.1 Δr, ρ, Δα -- 5.3.2 Running Electromagnetic Constant -- 5.3.3 Residual Corrections and Numerical Evaluation -- 5.4 Improved Born Approximation -- 5.4.1 γ-Z Mixing -- 5.4.2 α or GF?.

5.4.3 Vertex Correction -- 5.5 Effective Weinberg Angle -- 5.6 Weinberg Angle in the MS Scheme -- 5.7 Beyond the Standard Model -- 6 Cabibbo-Kobayashi-Maskawa Matrix -- 6.1 Origin of the CKM Matrix -- 6.2 CKM Matrix Elements -- 6.3 The Unitarity Triangle -- 6.4 Formalism of the Two Neutral Meson System -- 6.4.1 Mass Matrix, Mixing and CP Parameters -- 6.4.2 CP Parameters of the K Meson -- 6.4.3 Mixing in the B0-B0 System -- 6.4.4 D0-D0 Mixing -- 6.5 Theoretical Evaluation of the Mass Matrix -- 6.5.1 Mass Matrix of the K Meson -- 6.5.2 Mass Matrix of the B Meson -- 6.6 CP Violation in the B Sector -- 6.6.1 Indirect CP Violation -- 6.6.2 Direct CP Violation -- 6.6.3 CP Violation in Interference -- 6.6.4 Coherent B0B0 Production -- 6.7 Extraction of the CKM Phases -- 6.7.1 Using B0-B Mixing -- 6.7.2 Penguin Pollution -- 6.7.3 Experiments at the B-factory -- 6.8 Test of Unitarity -- 6.8.1 Rare Decays of the K Meson -- 6.8.2 Global Fit of the Unitarity Triangle -- 6.9 CP Violation beyond the Standard Model -- Part Two QCD Dynamics -- 7 QCD -- 7.1 Fundamentals of QCD -- 7.1.1 Lagrangian -- 7.1.2 The Feynman Rules -- 7.1.3 Gauge Invariance and the Gluon Self-Coupling -- 7.1.4 Strength of the Color Charge -- 7.1.5 QCD Vacuum -- 7.2 Renormalization Group Equation -- 7.2.1 Running Coupling Constant -- 7.2.2 Asymptotic Freedom -- 7.2.3 Scale Dependence of Observables -- 7.2.4 Running Mass -- 7.2.5 Quark Masses -- 7.3 Gluon Emission -- 7.3.1 Emission Probability -- 7.3.2 Collinear and Infrared Divergence -- 7.3.3 Leading Logarithmic Approximation -- 7.3.4 Transverse Kick -- 8 Deep Inelastic Scattering -- 8.1 Introduction -- 8.2 The Parton Model Revisited -- 8.2.1 Structure Functions -- 8.2.2 Equivalent Photons -- 8.3 QCD Corrections -- 8.3.1 Virtual Compton Scattering -- 8.3.2 Factorization -- 8.3.3 Power Expansion of the Evolution Equation.

8.3.4 Cascade Branching of the Partons -- 8.4 DGLAP Evolution Equation -- 8.4.1 Gluon Distribution Function -- 8.4.2 Regularization of the Splitting Function -- 8.4.3 Factorization Scheme -- 8.5 Solutions to the DGLAP Equation -- 8.5.1 Method of Moments -- 8.5.2 Double Logarithm -- 8.5.3 Monte Carlo Generators -- 8.6 Drell-Yan Process -- 8.6.1 Factorization in Hadron Scattering -- 9 Jets and Fragmentations -- 9.1 Partons and Jets -- 9.1.1 Fragmentation Function -- 9.1.2 Jet Shape Variables -- 9.1.3 Applications of Jet Variables -- 9.1.4 Jet Separation -- 9.2 Parton Shower Model -- 9.3 Hadronization Models -- 9.3.1 Independent Fragmentation Model -- 9.3.2 String Model -- 9.3.3 Cluster Model -- 9.3.4 Model Tests -- 9.4 Test of the Asymptotic Freedom -- 9.4.1 Inclusive Reactions -- 9.4.2 Jet Event Shapes -- 9.4.3 Summary of the Running as ?s(Q2) -- 10 Gluons -- 10.1 Gauge Structure of QCD -- 10.1.1 Spin of the Gluon -- 10.1.2 Self-Coupling of the Gluon -- 10.1.3 Symmetry of QCD -- 10.2 Color Coherence -- 10.2.1 Angular Ordering -- 10.2.2 String Effect x -- 10.3 Fragmentation at Small x -- 10.3.1 DGLAP Equation with Angular Ordering -- 10.3.2 αs Dependence and N = 1 Pole in the Anomalous Moment -- 10.3.3 Multiplicity Distribution -- 10.3.4 Humpback Distribution: MLLA -- 10.4 Gluon Fragmentation Function -- 10.5 Gluon Jets vs. Quark Jets -- 11 Jets in Hadron Reactions -- 11.1 Introduction -- 11.2 Jet Production with Large pT -- 11.3 2 -> 2 Reaction -- 11.3.1 Kinematics and Cross Section -- 11.3.2 Jet Productions Compared with pQCD -- 11.4 Jet Clustering in Hadronic Reactions -- 11.4.1 Cone Algorithm -- 11.4.2 kT Algorithm -- 11.5 Reproducibility of the Cross Section -- 11.5.1 Scale Dependence -- 11.5.2 Parton Distribution Function -- 11.6 Multijet Productions -- 11.7 Substructure of the Partons? -- 11.8 Vector Particle Production.

11.8.1 Direct Photon Production -- 11.8.2 W : pT Distribution -- 11.9 Heavy Quark Production -- 11.9.1 Cross Sections -- 11.9.2 Comparisons with Experiments -- 11.9.3 Top Quark Production -- Appendix A Gamma Matrix Traces and Cross Sections -- Appendix B Feynman Rules for the Electroweak Theory -- Appendix C Radiative Corrections to the Gauge Boson Self-Energy -- Appendix D 't Hooft's Gauge -- Appendix E Fierz Transformation -- Appendix F Collins-Soper Frame -- Appendix G Multipole Expansion of the Vertex Function -- Appendix H SU(N) -- Appendix I Unitarity Relation -- Appendix J σ Model and the Chiral Perturbation Theory -- Appendix K Splitting Function -- Appendix L Answers to the Problems -- References -- Index.