Calendar
| LECĀ # | TOPICS |
|---|---|
| 1 |
Convex and Nonconvex Optimization Problems Why is Convexity Important in Optimization Lagrange Multipliers and Duality Min Common / Max Crossing Duality |
| 2 |
Convex Sets and Functions Epigraphs Closed Convex Functions Recognizing Convex Functions |
| 3 |
Differentiable Convex Functions Convex and Affine Bulls Caratheodory's Theorem Closure, Relative Interior, Continuity |
| 4 |
Review of Relative Interior Algebra of Relative Interiors and Closures Continuity of Convex Functions Recession Cones |
| 5 |
Global and Local Minima Weierstrass' Theorem The Projection Theorem Recession Cones of Convex Functions Existence of Optimal Solutions |
| 6 |
Nonemptiness of Closed Set Intersections Existence of Optimal Solutions Special Cases: Linear and Quadric Programs Preservation of Closure under Linear Transformation and Partial Minimization |
| 7 |
Preservation of Closure under Partial Minimization Hyperplanes Hyperplane Separation Nonvertical Hyperplanes Min Common and Max Crossing Problems |
| 8 |
Min Common / Max Crossing Problems Weak Duality Strong Duality Existence of Optimal Solutions Minimax Problems |
| 9 |
Min-Max Problems Saddle Points Min Common / Max Crossing for Min-Max |
| 10 |
Polar Cones and Polar Cone Theorem Polyhedral and Finitely Generated Cones Farkas Lemma, Minkowski-Weyl Theorem Polyhedral Sets and Functions |
| 11 |
Extreme Points Extreme Points of Polyhedral Sets Extreme Points and Linear / Integer Programming |
| 12 |
Polyhedral Aspects of Duality Hyperplane Proper Polyhedral Separation Min Common / Max Crossing Theorem under Polyhedral Assumptions Nonlinear Farkas Lemma Application to Convex Programming |
| 13 |
Directional Derivatives of One-Dimensional Convex Functions Directional Derivatives of Multi-Dimensional Convex Functions Subgradients and Subdifferentials Properties of Subgradients |
| 14 |
Conical Approximations Cone of Feasible Directions Tangent and Normal Cones Conditions for Optimality |
| 15 |
Introduction to Lagrange Multipliers Enhanced Fritz John Theory |
| 16 |
Enhanced Fritz John Conditions Pseudonormality Constraint Qualifications |
| 17 |
Sensitivity Issues Exact Penalty Functions Extended Representations |
| 18 |
Convexity, Geometric Multipliers, and Duality Relation of Geometric and Lagrange Multipliers The Dual Function and the Dual Problem Weak and Strong Duality Duality and Geometric Multipliers |
| 19 |
Linear and Quadric Programming Duality Conditions for Existence of Geometric Multipliers Conditions for Strong Duality |
| 20 |
The Primal Function Conditions for Strong Duality Sensitivity Fritz John Conditions for Convex Programming |
| 21 |
Fenchel Duality Conjugate Convex Functions Relation of Primal and Dual Functions Fenchel Duality Theorems |
| 22 |
Fenchel Duality Fenchel Duality Theorems Cone Programming Semidefinite Programming |
| 23 |
Overview of Dual Methods Nondifferentiable Optimization |
| 24 |
Subgradient Methods Stepsize Rules and Convergence Analysis |
| 25 |
Incremental Subgradient Methods Convergence Rate Analysis and Randomized Methods |
| 26 |
Additional Dual Methods Cutting Plane Methods Decomposition |


