Buch, Englisch, 336 Seiten, Format (B × H): 176 mm x 252 mm, Gewicht: 595 g
A Guide to Hep Research
Buch, Englisch, 336 Seiten, Format (B × H): 176 mm x 252 mm, Gewicht: 595 g
ISBN: 978-1-394-35098-8
Verlag: Wiley
Bridge coursework to research with foundational lattice QCD knowledge
Advanced undergraduate physics students transitioning to research projects often lack the specialized knowledge needed for theoretical particle physics work. High Energy Physics Essentials: A Guide to HEP Research addresses this gap directly. Written by an award-winning physics educator and research mentor, this book provides the foundational concepts students need to engage in supervised lattice QCD research early in their academic careers.
The book reviews special relativity, electrodynamics, and quantum electrodynamics before introducing fundamental quantum chromodynamics concepts. Students learn the theory underpinning the standard model of elementary particle physics, including quarks as building blocks of protons, neutrons, and pions. Each chapter includes ten to twenty problems that reinforce material and provide practical experience solving theoretical physics problems.
Readers will also find: - Comprehensive coverage spanning special and general relativity, quantum mechanics, electrodynamics, quantum field theory, and essential group theory foundations
- Independent study structure allowing students to prepare for research projects without requiring additional coursework or direct supervision
- Practical problem sets in each chapter providing hands-on experience with the mathematical challenges inherent in theoretical particle physics
- Clear pathways from standard coursework to active participation in supervised lattice quantum chromodynamics research projects
- Guidance for supervisors seeking to close knowledge gaps when students transition from classroom learning to research environments
Designed for advanced undergraduate physics students or even early graduate students preparing for research projects, this book also serves physicists and lecturers supervising student researchers. By equipping students with skills and confidence for theoretical particle physics research, it streamlines the transition from coursework to productive research participation.
Autoren/Hrsg.
Weitere Infos & Material
1. Introduction
The Standard Model
Quantum Electrodynamics
Quantum Chromodynamics and Quarks
“Natural” Units
Problems
2. From Modern Physics to Four-Vectors
Lorentz Transformations
Moving to Four-Vectors
Other Vectors and Beyond
Euclidean Space
Problems
3. From Modern Physics to Quantum Field Theory
Waves or Particles?
Wavefunctions and States
Relativistic Quantum Mechanics
Spin
Chirality
Path Integral
Representing the States – Dirac Notation
Examples
Problems
4. From Electromagnetics to Quantum Electrodynamics
Maxwell’s Equations
Exercises
E&M in Relativistic Notation
Exercises
5. A Quick Peek at Probabilities
6. Symmetries and Group Theory
Group theory
Examples
Representations vs. Elements
Exercises
Symmetry Transformations as Group Operations
Rotations
Unitary Groups
Lorentz Group
Dirac Bilinears
Exercises
Gauge invariance
7. From Newton’s Laws to Lagrangians
Classical Physics from a Lagrangian Approach
Field theory
Dirac Equation to QED
Exercises
8. Feynman Rules
9. Gaussian integrals
Gaussian integrals with Ordinary Real Numbers
Gaussian integrals with Ordinary Complex Numbers
Other Important integrals
10. Lattice QCD
Discretizing Space, Time, and Derivatives
Exercises
Gauge invariance on the Lattice
Generating Configurations
Exercises
Fermions on the Lattice
Sea Quarks & the Quark Determinant
Valence Quarks & the Pion Correlator
Species Doubling
Exercises
Scale Setting
