Functional Analysis
September 2004— February 2005
Chapter 1 Topological Vector Spaces
Lecture 1 Review on some basic concepts
Lecture 2 Separation and Linear Mappings
Review (Lecture 1 and Lecture 2)
Lecture 3 Finite-Dimensional Spaces
Lecture 4 Metrization
Lecture 5 Boundedness, Continuity, $L^p, 0<p<1$
Lecture 6 Seminorms and Local Convexity
Lecture 7 Quotient Spaces
Lecture 8 Examples and Exercises
Chapter 2 Completeness
Lecture 1 Baire Category, Banach-Steinhaus Theorem
Lecture 2 Open Mapping Theorem
Lecture 3 The Closed Graph Theorem, Bilinear Mappings
Chapter 3 Convexity
Lecture 1 Hahn-Banach Theorems, Extension and Separation
Lecture 2 Weak Topologies
Lecture 3 Weak Topologies and Compact Convex Sets
Lecture 4 Compact Convex Sets
Lecture 5 Compact Convex Sets
Lecture 6 Extreme points
Lecture 7 Vector -Valued Integration
Lecture 8 Holomorphic Functions
Chapter 4 Duality in Banach Spaces
Lecture 1 The Normed Dual of a Normed Space
Lecture 2 The Normed Dual of a Normed Space (continued)
Lecture 3 The Adjoint Operator
Lecture 4 Compact Operators
Lecture 5 Compact Operators (continued)
Chapter 5 Some Applications
Chapter 10 Banach Algebras
Lecture 1 Definition, Homomorphisms
Lecture 2 Basic Properties of Spectra
Lecture 3 Symbolic Calculus
Lecture 4 The Group G(A), Invariant Subspaces
Chapter 11 Commutative Banach Algebra
Lecture 1 Ideals and Homomorphisms
Lecture 2 Gelfand Transforms
Lecture 3 Involutions
Notice on the Examination
Homework
Chapter 1 ; Chapter 2; Chapter 3; Chapter 4. Review
Seminar