course | dates | credits |
Supersymmetry | Jan 16 - Mar 30 | 2 |
teachers | schedule | term |
Matteo Bertolini | Mon-Thur, 8.30-9.45 | 2 |
Program:
- 1. Supersymmetry: a bird's eye view
What is supersymmetry?
What is supersymmetry useful for?
- 2. The Supersymmetry algebra
Lorentz and Poincare' groups
Spinors and representations of the Lorentz group
The supersymmetry algebra
- 3. Representations of the Supersymmetry algebra
Massless supermultiplets
Massive supermultiplets
Representation on fields: a first try
- 4. Superspace and Superfields
Superspace as a coset
Superfields as fields in superspace
Supersymmetric invariant actions - general philosophy
Chiral superfields
Real superfields
Current superfields
- 5. Supersymmetric actions: minimal supersymmetry
N=1 Matter actions
N=1 SuperYang-Mills
N=1 Gauge-Matter actions
- 6. Theories with extended supersymmetry
N=2 supersymmetric actions
N=4 supersymmetric actions
Non-renormalization theorems
- 7. Supersymmetry breaking
Vacua in supersymmetric theories
The goldstone theorem and the goldstino
F-term breaking
Pseudomoduli space: quantum corrections
D-term breaking
Indirect criteria for supersymmetry breaking
- 8. Mediation of supersymmetry breaking
Towards dynamical supersymmetry breaking
The Supertrace mass formula
Beyond MSSM
Spurions, soft terms and the messenger paradigm
Mediating the breaking
- 9. Non-perturbative effects and holomorphy
Instantons and anomalies in a nutshell
t'Hooft anomaly matching condition
Holomorphy
Holomorphy and non-renormalization theorems
Holomorphic decoupling
- 10. Supersymmetric gauge dynamics: N=1
Confinement in QCD, YM and SYM theories
Phases of gauge theories: examples
N=1 SQCD: perturbative analysis
N=1 SQCD: non-perturbative dynamics
The phase diagram of N=1 SQCD
- 11. Dynamical supersymmetry breaking
Calculable and non-calculable models: generalities
The one GUT family SU(5) model
The 3-2 model: instanton driven supersymmetry breaking
The 4-1 model: gaugino condensation driven supersymmetry breaking
The ITIY model: supersymmetry breaking with classical flat directions
DSB into metastable vacua. A case study: massive SQCD
Prerequisites:
Quantum field theory, Electroweak and Strong Interactions.
Books:
Online Resources:
Filename | Size (bytes) | Date Modified | |
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susycourse.pdf | 1.76 MB | Oct 26 2022 12:32 PM |