Jonas de Woul Telephone: 08-55378174
Henrik Melbéus Telephone: 08-55378176
Sofia Sivertsson Telephone: 08-55378176
After completion of the course you should be able to:
know and describe the standard model of particle physics.
compute decay rates and cross-sections with help of relativistic kinematics.
use symmetries to restrict the form of the S-matrix, for example, isospin, discrete symmetries, and spacetime symmetries.
give an account of and describe the static properties of the hadrons from the quark model.
know the basic principles of the electroweak theory.
have knowledge about how deep inelastic scattering shows the existence of quarks in the nucleons.
know about basic neutrino physics and describe neutrino oscillations.
Introductory survey. Conservation laws. Basic reaction theory. Feynman
diagrams. Lorentz invariance. One particle states. Binary
reactions. Determination of mass. Scattering theory (the S-matrix,
decay rate, scattering
cross-section). Symmetries. Time-reversal. Space-reflection. Charge
conjugation. The tensor method for determination of spin and parity of
particles. Isospin. Strangeness. The quark model. Color. Hadron
spectroscopy. Quarkonium. Electroweak interaction of quarks. The Higgs
mechanism. Deep inelastic scattering. Neutrino physics. Neutrino
Hand in assignments (INL1; 4.5 hp) and an oral exam (TEN1; 3 hp).
The examination of the course will be a combination of homework problems and an oral examination. There will be three sets of homework problems during the course. These will be distributed and should be handed in according to the following scheme: