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 Last
changed: 04/21/2003,
11:55:21
There are no exams or home works or
exams for this course
For each lecture a student volunteer
should take charge, take notes from the lectures, prepare a
LaTeX document from them and e-mail them to me, so I post them
in the web page. See the Notes
page for details
Each student should also give a
presentation, either of a research paper or a project he or she
is undertaking.
There are no textbooks assigned for this
course. Appropriate texts and papers will be available in the
reserves section of the library.
Topics: A.
Unconstrained Optimization
Convex functions (read Bertsekas
Optimality conditions for optimization
over convex and related functions
The steepest descent method
Line search along a given direction
Newton's Method
Quasi-Newton Methods
Truncated Newton Methods
Topics: B.
Constrained Optimization (nonlinear Programming)
Cone LP and extension of linear
programming to convex programming
Properties of convex sets: Separation
theorems, Farkas Lemma, Caratheodory's Theorem, Helly's Theorem
Duality
theory and complementarity problems
Linear Programming (LP),
Quadratic Programming (QP), Quadratic Cone Programming (QCP),
Semidefinite Programming (SDP)
Lagrangean duality and
Karush Kuhn Tucker (KKT) conditions
Interior Point methods, and
Logarithmic barrier functions
Application of interior
point methods for LP, QP, QCP and SDP
Penalty Methods
Dual and Lagrangean methods
Other methods (SQLP,
gradient projection, reduced gradient)
References:
Bertsikas, D.
"Nonlinear Programming", Athena Scientific,
1995
Fiacco, A. and
McCormick, G. "Nonlinear Programming, Sequential
Unconstrained Minimization Techniques", SIAM Classics
in applied Mathematics, Society for Industrial and Applied
Mathematics, 1990
Luenberger, D.
"Linear and Nonlinear Programming", Second
Edition, Addison-Wesley, 1984
Mangasarian, O.
"Nonlinear Programming", SIAM Classics in
applied Mathematics, Society for Industrial and Applied
Mathematics, 1994
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