Math 484 - Fall 2014 - Class log
-
(8/25/2014)
Section 1.1 - Theorem 1.1.1 (Taylor's Formula), Definition 1.1.3 global minimizer, strict global minimizer, etc.,
Theorem 1.1.4, Theorem 1.1.5
-
(8/27/2014)
Section 1.2 - Review of n-dimensional space, distance, open balls, open/closed/compact sets,
Definition 1.2.2 global minimizer, strict global minimizer, etc., Theorem 1.2.3
-
(8/29/2014)
Section 1.2 continued - quadratic forms, positive definiteness, positive definiteness, etc.
Taylor's Formula for functions from R^n to R, Theorems 1.2.5 and 1.2.9, start of Section 1.3
-
(9/1/2014) Labor day - no class
-
(9/3/2014)
Section 1.3 - Facts about positive semidefinite matrics,
tests for positive definiteness and negative definiteness using principal minors,
Theorems 1.3.6 and 1.3.7
-
(9/5/2014)
Section 1.4 Definition and examples of coercive functions, Theorem 1.4.4 and example,
Section 1.5 - Review of the spectral theorem and Theorem 1.5.1
-
(9/8/2014) No class
-
(9/10/2014) No class
-
(9/12/2014) No class
-
(9/15/2014)
Convex sets - section 2.1
-
(9/17/2014)
Convex functions - section 2.2
-
(9/19/2014)
Convex functions - section 2.2 continued
-
(9/22/2014)
Arithmetic Geometric mean inequality - examples section 2.4
-
(9/24/2014)
Arithmetic Geometric mean inequality - continued section 2.4
Intro to geometric programming section 2.5
-
(9/26/2014)
Unconstrained Geometric programming -Section 2.5
-
(9/29/2014)
Least squares (section 4.1)
-
(10/1/2014)
Least squares (section 4.1)
-
(10/3/2014)
Subspaces and projections
-
(10/6/2014)
finished section 4.2 and
started section 4.3
-
(10/8/2014)
Finished minimum norm solutions
and start of section 5.1,
Theorem 5.1.1, Corollary 5.1.2
and Theorem 5.1.3
-
(10/10/2014)
Theorem 5.1.4, Theorem 5.1.5,
Corollary 5.1.6 and Theorem 5.1.7
-
(10/13/2014)
Theorem 5.1.8 and 5.1.9
-
(10/15/2014)
Theorem 5.1.10, enter to convex programming
section 5.2
-
(10/17/2014)
Linear programming examples,
Perturbation of a convex program,
MP(z), Theorem 5.2.6
-
(10/20/2014)
Example of convex program that are
discontinuous at 0 and not differentiable at 0,
Theorem 5.2.8
-
(10/22/2014)
Theorem 5.2.11 and examples
-
(10/24/2014)
defined the Lagranian, Theorem 5.2.13
-
(10/27/2014)
Theorem 5.2.14 and example
Review of section 5.2, Theorem 5.2.16,
extended AM-GM inequality
-
(10/29/2014)
Example of geometric programming
-
(10/31/2014)
Discussion of geometric programs and
start of proof of 5.3.5
-
(11/3/2014)
Dual convex programs,
definitions: MD, solutions of dual programs,
feasible and consistent convex programs,
Theorem 5.4.6
-
(11/5/2014)
Example of transforming a problem to
a constrained, finished theorem 5.3.5
-
(11/7/2014)
Dicussion of duality,
LP weak duality and strong duality,
example of solving a LP using its dual,
example of a solution to a quadratic program
-
(11/10/2014)
Review of duality method,
finished quadratic programmin example,
example of a convex program with a duality gap,
Intro to penalty methods, penalty functions,
Absolute value penalty function,
Courant-Beltrami penalty function,
Lemma 6.1.3,
The penalty method (start of section 6.2)
-
(11/12/2014)
Example of penalty function (6.2.2),
Example of exact penalty function (6.2.6)
Theorem 6.2.3 and Corollary (6.2.4)
-
(11/14/2014)
Section 6.3,
Theorem 6.3.1, Lemma 6.3.2 and Lemma 6.3.4,
Statement of Theorem 6.3.5
-
(11/17/2014)
Proof of Theorem 6.3.5, Intro to chapter 3,
Newton's Method sequence 3.1.1
-
(11/19/2014)
Example of Newton's method,
Theorems 3.1.4 and 3.1.5,
Definition of steepest descent method
and example.
-
(11/21/2014)
Theorem 3.2.3, Theorem 3.2.5,
Definition of a descent method,
Theorem 3.2.6 and Corollary 3.2.7
-
(12/1/2014)
Section 3.3,
Four criteria for a good update rule,
Wolfe's Theorem 3.5.1,
Making a symmteric matrix positive
definition by adding a multiple of
the identity matrix
-
(12/3/2014)
Second 3.5, Broyden's Method,
Secant condition,
outer product
-
(12/5/2014)
No class (for make-up exam)
-
(12/8/2014)
Discussion about midterm 3,
Section 3.5 Intro to BFGS method,
Theorem 3.5.1
-
(12/10/2014)
Description of the BFGS method
and the DFP method for function minimization