FYSS4302 Particle Physics, part B (4 cr)
Description
PART B: STANDARD MODEL OF PARTICLE PHYSICS
Foundations of classical field theory
Basics of group theory, especially groups U(1), SU(2) and SU(3)
Lagrange density, Euler-Lagrange equations of motion
Gauge symmetry in classical electrodynamics
Relativistic quantum mechanics: Klein-Gordon and Dirac equations
Quantum Electrodynamics
Quantum Chromodynamics
Electroweak unification theory
Spontaneous symmetry breaking and the Higgs mechanism
Application of Feynman rules to the calculation of cross sections at leading order in the perturbation theory
CKM matrix and quark mixing
Experimental methods in particle physics
Learning outcomes
After completion of the course, the student
Understands the structure of quantum electrodynamics, quantum chromodynamics and the electroweak unification theory based on gauge symmetries, and is familiar with the phenomenology of these theories
Knows the basics of group theory
Understands how elementary particles acquire their masses through the Higgs mechanism
Can describe scattering processes mathematically with the help of Feynman diagrams and Feynman rules
Knows the basics of experimental methods in particle physics
Description of prerequisites
FYSA2030 and FYSA2032 Quantum Mechanics A and B
FYSA2004 Modern Physics, part B (special relativity)
FYSS4301 Particle Physics, part A
Study materials
Lecture notes by Kari J. Eskola or by the lecturer
Literature
- B.R. Martin and G. Shaw: Particle Physics (Wiley), ISBN 0471 97285
- F. Halzen and A.D. Martin: Quarks & leptons, An introductory course in modern particle physics (Wiley), ISBN 0-471-88741-2
Completion methods
Method 1
Method 2
Participation in teaching (4 cr)
Lectures and exercises + final exam.
Lecture notes by Kari J. Eskola or by the lecturer
Teaching
10/28–12/10/2024 Lectures
1/17–1/17/2025 Exam
3/7–3/7/2025 Exam
Independent study (4 cr)
Independent studying, exercises, final exam.
Lecture notes by Kari J. Eskola or by the lecturer