MATH 537 Algebraic Topology I
Description of the course:
Fundamental
group, Van Kampen's Theorem, covering spaces. Singular homology:
Homotopy invariance, homology long exact sequence, Mayer-Vietoris
sequence, excision. Cellular homology. Homology with coefficients.
Simplicial homology and the equivalence of simplicial and singular
homology. Axioms of homology. Homology and fundamental groups.
Simplicial approximation. Applications of homology.
Course Objectives:
At the end of this course the student will know:
the
basic concepts about homotopy and homotopy type, fundamental group and
covering spaces to use in his/her research and in other other areas
like differential geometry, differential topology, geometric topology,
algebraic geometry, physics etc.,
the basic concepts about
Delta-Complexes and their simplicial homology groups to use in his/her
research or in other related areas,
the basic concepts about
singular homology groups and some of their applications to use in
his/her research or in other related areas,
the techniques to
compute the fundamental groups, simplicial and singular homology
groups of of some well known spaces and various cell complexes.
TextBook: Allen Hatcher, Algebraic Topology, Cambridge University Press, 2002
(Available online at
http://www.math.cornell.edu/~hatcher/AT/ATpage.html)
Tentative Weekly Outline:
Week Topic
Relevant Reading Assignments
1 Homotopy
and homotopy equivalence, cell complexes
Chapter 0
-
2 Homotopy of
paths, fundamental group basic constructions
Section 1.1
-
3 Fundamental
group of the circle, Induced maps
Section 1.1
Homework 1
4 Van Kampen's
Theorem and its applications to cell complexes
Section 1.2
-
5
Covering spaces, lifting properties
Section 1.3
-
6
The classification of covering spaces
Section 1.3
Homework 2
7 Deck transformations
and group actions
Section 1.3
-
8
Delta-complexes and simplicial homology
groups, Singular homology groups
Section 2.1
-
9
Homotopy invariance, Exact sequences
Section 2.1
Homework 3
10
Relative homology groups, long exact
sequence of homology groups
Section 2.1
-
11
Excision, The equivalence of simplicial and
singular homology
Section 2.1
-
12
Degree, Cellular homology
Section 2.2
Homework 4
13
Homology groups of projective spaces, Euler
characteristic, Split exact sequences,
Mayer Vietoris sequence, Homology with
coefficients
Section 2.2
-
14
Axioms for homology, Categories and functors, Homology and
fundamental group Section 2.3, 2.A
-
Schedule:
Mondays: 13:40-15:30 M-203
Wednesdays: 13:40-15:30 M-203
Course Grading:
The grading will be based on a midterm exam, a final (both will be held face to face) and 4 homework assignments.
Midterm Exam 30%
Homeworks 30%
Final Exam 40%
Course Policies:
The students are expected to attend at least %70 of the classes.
The students are strongly encouraged to participate discussions actively in the class.
Make up for Exams and Assignments:
Make-up will be given only if there exists a legitimate excuse.