Homework
Week starts
|
Sections
|
HW #
|
Assignements-
|
8/27 |
Chapter 1 Complexes |
1 |
Pag. 4, exercises 4 and 6. Pag. 19, ex 1 and 3. Describe all possible complexes on the open interval (0, 1), on (0, 1] and on [0, 1]. Give an example of a connected topological space which cannot be given the structure of a complex. |
9/3 |
2 |
||
9/10 |
3 |
||
9/17 |
4 |
||
9/24 |
5 |
||
10/1 |
6 |
||
10/8 |
7 |
||
10/15 |
8 |
||
10/22 |
9 |
||
10/29 |
10 |
||
11/5 |
11 |
||
11/12 |
12 |
||
11/19 |
|||
11/26 |
13 |
||
12/3 |
14 |
||
12/10 |
|||
12/17 |
Prerequisite
-
MAT 530 or its contents (basic
topology, fundamental
group
and covering spaces)
Textbook
Textbook: Homology of Cell Complexes Notes on the course of Norman Steenrod by George E. Cooke and Ross L. Finney Princeton University Press; 1st edition (1967) We like this treatment because it straddles the zone between geometry and algebra and provides a solid basis for understanding algebraic topology. |
Topics
The sequence of
concepts goes
as
follows:
- An elegant and clear definition of cell complex
- The distinction between regular cell complexes and general cell complexes (the CW complexes of J.H.C. Whitehead)
- Homology groups of regular cell complexes
- The invariance theorem depending on the functorial aspects of regular cell complex homology
- Singular homology (in the more geometric variant of Steenrod)
- Introductory homotopy theory
- Skeletal homology for general cell complexes.
Instructors
email |
Office |
||
Moira Chas |
moira at math.sunysb.edu |
3-119 Math Tower |
Mo 10-12 (3-119) Fr 11-12 (P-143) |