Undergraduate - UnitPHS3062 - Fundamental particle physics

On completion of this unit students will be able to:

1. Recall fundamental concepts from the sub-unit of Nuclear Physics, which include short range nature and charge independence of the nuclear force, nuclear force properties in terms of meson theory, nuclear shell structure and the magic numbers, spin-orbit term, pairing force, addition of nucleon angular momenta within each shell, Gamma decay: matrix elements with respect to parities and angular momenta of nuclear states, selection rules, internal conversion, and Beta decay: Fermi's theory, Kurie plot, allowed, super allowed, first forbidden, second forbidden transitions, Fermi and Gamow-Teller transitions, Fermi Coulomb penetration factor, non-conservation of parity;

2. Recall fundamental concepts from the sub-unit of Fundamental Particle Physics, which include relativistic wave equations, Feynman diagrams, pair production and annihilation, particle exchange, Yukawa potential, scattering amplitude, natural units, leptons, quarks, hadrons, neutrinos, further lepton generations, lepton decays and universality, interacting particles, experimental methods of particle physics: accelerators and detectors, space-time symmetries and their conservation laws, the isospin formalism, resonances, quark diagrams, quark states and colour, quantum chromodynamics, the strong coupling constant, screening, and the weak interaction: W and Z bosons, charged-current reactions, quark mixing, electroweak unification, gauge invariance, Higgs boson;

3. Solve new problems in physics related to the core concepts of the unit by drawing on the theoretical underpinnings that illustrate the physics;

4. Perform measurements and analysis on experiments that demonstrate the theoretical physics described in this and other Physics units;

5. Produce experimental reports that present results, analyse and discuss the implications and outcomes of experimental work.