Course Website
Math 6302: Analysis II
Lecture: MATH 6302-100
Room: Morton Hall 322
Time: MWF 9:40am -- 10:35am
Instructor: Marcel Bischoff
Office: Morton Hall 521
Office Phone: (740-59)3-1261
Office Hours:
Mon & Wed: 10:45am-11:45am, Fri: 8:05-9:00am
Schedule
- Mon 01/14:
- Syllabus
- Metric Spaces, Complete Metric Spaces, Normed spaces, Banach spaces.
- Section 9.1, 9.2, 9.4
- Wed 01/16:
- Young inequality, Hölder inequality, Minkowski, inequality, $L^p(E)$ is a normed space.
- Section 7.2
- Fri 01/18:
- $C([0,1])$ is a Banach spaces, Rapidly Cauchy sequences.
- $L^p(E)$ is a complete thus a Banach space
- Section 9.4, 7.3
- Wed 01/23:
- Finishing of proof of $L^p(E)$ is complete
- Pointwise almost everywhere vs $L^p$ convergence
- Section 7.3
- Fri 01/25:
- Definition of dense subset in a topological space, metric space, ...
- Separability of Metric Spaces
- Separability of $L^p(E)$ for $1\leq p <\infty$
- $L^\infty([0,1])$ is not separable
- Section 9.6, 8.1
- Mon 01/28:
- Bounded Operators between Banach spaces
- Bounded Linear Functionals
- Bounded Linear Functionals on $L^p(E)$ from $L^q(E)$
- Quiz 01
- Section 8.1
- Wed 01/28:
- Classes cancelled due to weather
- Quiz 02
- Riesz-Fischer Theorem
- Section 8.1
- Fri 02/01:
- Classes cancelled due to weather
- Riesz-Fischer Theorem
- Section 8.1
- Quiz 02
- Mon 02/04:
- Comparison of topologies (weak vs strong)
- Weaker and Stronger Topologies
- Weak topology on Banach spaces
- Weak convergence on Banach spaces
- Weak convergence on $L^p(E)$
- Section 8.2
- Wed 02/06:
- Weak convergence on $L^p(E)$
- Riemann-Lebesgue Lemma
- Section 8.2
- Fri 02/08:
- Fri 05/03: 1:00pm-3pm: Final Exam
Ressources
- Tao - Analysis I (free eBook access through Alden Library)
- Tao - Analysis II (free eBook access through Alden Library)
Last update: 2019-02-27 18:27:16.