This is a part III course in the Cambridge mathematical tripos. Please advise me of any mistakes etc by email.
These notes are heavily based on the ones written and evolved by previous
lecturers: Ian Drummond, Hugh Osborn, Jonathan Evans, Simon Dalley and Robert
Thorne.
Lectures
Handout 1: conventions
and material assumed from other courses
A. Introduction: Motivation, structure of the course, fields of the Standard Model, Chirality, Abelian gauge fields and unitarity, non-Abelian gauge theory.
B. PCT: Parity, charge conjugation, time reversal all on scalar, vector and fermionic fields. CPT theorem, neutrino masses.
C. Spontaneous symmetry breaking: problems with short range interactions, spontaneous breaking of: discrete symmetries, continuous global symmetries, Goldstone's theorem - classical and quantum, abelian Higgs mechanism, non-abelian Higgs mechanism, renormalisability and unitarity of higgsed theory.
D. Electroweak Gauge Theory: spontaneous breakdown of SU(2)xU(1), physical degrees of freedom, massive vector bosons, lepton representations, lepton mass, family replication, quark representations, CKM matrix, lepton mixing
E. Weak Interactions: cross sections and decay rates, effective lagrangian, leptonic decays, semi-leptonic decays, non-leptonic decays, CP violation
F. Quantum Chromodynamics: renormalisation and running coupling, e+e- -> hadrons, deep inelastic scattering: kinematics, factorisation, QCD corrections