Week 1: Course Overview/Brief Review of Basics
Week 2: Models, Symmetries, Scales, and Phases
1. Some “standard models” like Ising, Heisenberg models
2. Symmetries and scales
Week 3: Characterization of phases
1. Broken symmetries, order parameter
2. Linear response theory
Week 4 & 5: Interacting Systems - Analysis Techniques
1. Imperfect gases
2. Exact solutions (1D Ising model)
3. High-temperature expansions
Week 6: Numerical methods
1. Monte-Carlo Method
Week 7: Landau-Ginzburg Theory
1. Mean field theory
2. Landau theory
3. Fluctuations (including Mermin-Wagner theorem)
Week 8: Phase Transitions/Critical Phenomena
1. Universal physics at critical points
2. Scaling hypothesis and the renormalization group
Week 9: Renormalization Group
1. Kadanoff block-spin approach
2. Wilson’s formulation of the renormalization group
Week 10: Near Lower Critical Dimensions
1. Fluctuation effects near lower critical dimension
Week 11: Defect Mediated Transitions
1. Topological defects
2. Kosterliz-Thouless theory
Week 12: Case Studies of Contemporary Applications
1. Quantum memories: topologically ordered states, toric code
2. Statistical mechanics view of machine learning
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