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Systems Science
Optimization Theory
1. Foundations of Optimization
2. Mathematical Foundations
3. Unconstrained Optimization
4. Constrained Optimization Theory
5. Linear Programming
6. Nonlinear Programming
7. Integer and Combinatorial Optimization
8. Dynamic Programming
9. Stochastic Optimization
10. Heuristic and Metaheuristic Methods
11. Multi-Objective Optimization
12. Specialized Optimization Topics
13. Applications and Case Studies
14. Computational Aspects and Software
Linear Programming
Problem Formulation
Standard Form
Canonical Representation
Slack and Surplus Variables
Converting to Standard Form
Inequality Constraints
Unrestricted Variables
Minimization to Maximization
Geometric Foundations
Polyhedra and Polytopes
Vertices and Extreme Points
Edges and Faces
Convex Hull Representation
Basic Feasible Solutions
Relationship to Extreme Points
Degeneracy
Adjacent Basic Solutions
Fundamental Theorem of Linear Programming
Simplex Method
Simplex Algorithm
Initial Basic Feasible Solution
Optimality Test
Pivot Selection Rules
Tableau Operations
Two-Phase Simplex Method
Phase I: Finding Initial Solution
Phase II: Optimization
Artificial Variables
Degeneracy and Cycling
Bland's Pivoting Rule
Lexicographic Rule
Computational Complexity
Duality in Linear Programming
Primal-Dual Relationships
Dual Problem Construction
Symmetric and Asymmetric Forms
Fundamental Theorems of Duality
Weak Duality
Strong Duality
Complementary Slackness
Economic Interpretation
Shadow Prices
Marginal Values
Sensitivity Analysis
Parametric Programming
Right-Hand Side Changes
Objective Function Coefficient Changes
Adding New Variables
Adding New Constraints
Interior Point Methods
Barrier Methods
Logarithmic Barrier Function
Central Path
Primal-Dual Interior Point Methods
Newton's Method for KKT System
Path-Following Algorithms
Polynomial-Time Complexity
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6. Nonlinear Programming