FYSS4301 Particle Physics, part A (5 cr)
Description
PART 1: PHENOMENOLOGY AND MATHEMATICAL METHODS IN PARTICLE PHYSICS
Particle physics terminology
Particle content of the Standard Model, interactions between elementary particles
Feynman diagrams
Relativistic description of collision kinematics
Cross section and decay width
Quantum numbers and conservation laws for elementary particles
Space-time symmetries and conserved quantities: translation and momentum, rotation and angular momentum, reflection and parity, charge conjugation and C-parity
Isospin symmetry, quantum numbers for hadrons and their excited states
Quark model description of hadrons: color and color confinement
Learning outcomes
After completion of the course, the student
Is familiar with the structure of matter, knows the elementary particles and their mutual interactions
- Can describe elementary-particle interactions with Feynman diagrams
Can apply special relativity in the particle physics context
Understands the experimental and mathematical definitions of cross section and decay width
Understands the significance and consequences of symmetries in quantum-mechanical systems, especially in particle collision and decay processes
Description of prerequisites
FYSA2030 and FYSA2032 Quantum Mechanics A and B
FYSA2004 Modern Physics, part B (special relativity)
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 (5 cr)
Lectures and exercises + final exam.
Lecture notes by Kari J. Eskola or by the lecturer
Teaching
9/2–11/1/2024 Lectures
12/5–12/5/2024 Exam
2/14–2/14/2025 Exam
Independent study (5 cr)
Independent studying, exercises, final exam.
Lecture notes by Kari J. Eskola or by the lecturer