String Theory and Holographic Duality
This string theory course focuses on holographic duality (also known as gauge / gravity duality or AdS / CFT) as a novel method of approaching and connecting a range of diverse subjects, including quantum gravity / black holes, QCD at extreme conditions, exotic condensed matter systems, and quantum information.
Syllabus
- 1 Lecture 1: Emergence of Gravity
- 2 Lecture 2: Classical Black Hole Geometry
- 3 Lecture 3: Causal Structure of a Black Hole and Black Hole Temperature
- 4 Lecture 4: Physical Interpretation of Black Hole Temperature
- 5 Lecture 5: Black Hole Thermodynamics
- 6 Lecture 6: Holographic Principle
- 7 Lecture 7: Structure of Large-N Expansion
- 8 Lecture 8: Large-N Expansion as a String Theory, Part I
- 9 Lecture 9: Large-N expansion as a String Theory, Part II
- 10 Lecture 10: Basics of String Theory and Light-cone Gauge
- 11 Lecture 11: String Theory in the Light-Cone Gauge
- 12 Lecture 12: String Spectrum and Graviton
- 13 Lecture 13: Physics of D-branes, Part I
- 14 Lecture 14: Physics of D-branes, Part II
- 15 Lecture 15: Physics of D-branes, Part III
- 16 Lecture 16: Geometry of D-branes and AdS / CFT Conjecture
- 17 Lecture 17: More on AdS / CFT Duality
- 18 Lecture 18: General Aspects of the Duality
- 19 Lecture 19: Mass-dimension Relation
- 20 Lecture 20: Euclidean Correlation Functions: Two-point Functions
- 21 Lecture 21: Euclidean Correlation Functions: Higher-point Functions
- 22 Lecture 22: Computation of the Wilson Loop
- 23 Lecture 23: Duality at a Finite Temperature and Finite Chemical Potential
- 24 Lecture 24: Holographic Entanglement Entropy
Course materials
- Course on MIT OpenCourseWare β website