Syllabus

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SA305 – Linear Programming
Asst. Prof. Nelson Uhan
Spring 2015
Syllabus
Last updated: 5 January 2015
Course description Operations research (OR) is a broad field which, loosely speaking, investigates how mathematical techniques can be used to solve “real-life”
decision-making problems. This course provides an introduction to linear programming, a fundamental technique used in OR. In particular, the course
focuses on formulating mathematical optimization models (also called mathematical programs), and understanding the mathematical underpinnings of
linear programming algorithms.
Textbook D. Rader, Deterministic Operations Research: Models and Methods in Linear Optimization, Wiley, 2010.
Schedule This schedule is subject to change.
Unit
Overview
Week
Topic
Readings
Introduction to operations research
Introduction to optimization modeling
1.1
1.2
2
12 Jan – 16 Jan
Graphical solution of optimization models, sensitivity analysis
Classification of optimization models
Introduction to GMPL and GUSEK, resource allocation models
1.2
1.3
2.1
3
19 Jan – 23 Jan
Work scheduling models
Blending models
2.2
2.4
4
26 Jan – 30 Jan
Production process models
Multiperiod models
2.5
2.6
5
2 Feb – 6 Feb
Sets, summations, for statements
Resource allocation models, revisited
Blending models, revisited
2.3
2.1
2.4
6
9 Feb – 13 Feb
Multiperiod models, revisited
Review
Exam 1
2.6
1
7 Jan – 9 Jan
Modeling
1
Unit
Week
Topic
Readings
7
16 Feb – 20 Feb
Work scheduling models, revisited
Production process models, revisited
Introduction to algorithm design
2.2
2.5
5.1–5.2
8
23 Feb – 27 Feb
Improving search: finding better solutions
Improving search: convexity and optimality
Improving search: review
6.1–6.2
6.3
6.1–6.3
9
2 Mar – 6 Mar
Geometry and algebra of corner points
Fundamental theorem of LP
Linear programs in canonical form
7.1
7.2
2.8, 7.3
10
9 Mar – 13 Mar
Basic solutions in canonical form LPs
The simplex method
7.3
8.1
11
16 Mar – 20 Mar
Spring Break
12
23 Mar – 27 Mar
The simplex method: review
Degeneracy, convergence, multiple optimal solutions
The two-phase simplex method
8.1
8.3
8.4
13
30 Mar – 3 Apr
Bounds and the dual LP
Review
Exam 2
9.1, 9.2
14
6 Apr – 10 Apr
Weak and strong duality, complementary slackness
An economic interpretation of LP duality
Maximin and minimax objectives
9.3
9.6
2.7
15
13 Apr – 17 Apr
LP duality and game theory
Introduction to networks and the shortest path problem
Modeling with the shortest path problem
handout
2.9
2.9
16
20 Apr – 24 Apr
Modeling with the shortest path problem, cont.
Review
2.9
17
27 Apr – 29 Apr
Review
Algorithms
Duality
Modeling revisited
2
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