Topological Theory of Graphs

Yanpei Liu, Beijing Jiaotong University, Beijing, China.

Table of Content:
Preface
Chapter 1 Preliminaries
1.1 Sets and relations
1.2 Partitions and permutations
1.3 Graphs and networks
1.4 Groups and spaces
1.5 Notes
Chapter 2 Polyhedra
2.1 Polygon double covers
2.2 Supports and skeletons
2.3 Orientable polyhedra
2.4 Nonorientable polyhedral
2.5 Classic polyhedral
2.6 Notes
Chapter 3 Surfaces
3.1 Polyhegons
3.2 Surface closed curve axiom
3.3 Topological transformations
3.4 Complete invariants
3.5 Graphs on surfaces
3.6 Up-embeddability
3.7 Notes
Chapter 4 Homology on Polyhedra
4.1 Double cover by travels
4.2 Homology
4.3 Cohomology
4.4 Bicycles
4.5 Notes
Chapter 5 Polyhedra on the Sphere
5.1 Planar polyhedra
5.2 Jordan closed curve axiom
5.3 Uniqueness
5.4 Straight line representations
5.5 Convex representation
5.6 Notes
Chapter 6 Automorphisms of a Polyhedron
6.1 Automorphisms
6.2 V -codes and F-codes
6.3 Determination of automorphisms
6.4 Asymmetrization
6.5 Notes
Chapter 7 Gauss Crossing Sequences
7.1 Crossing polyhegons
7.2 Dehns transformation
7.3 Algebraic principles
7.4 Gauss Crossing problem
7.5 Notes
Chapter 8 Cohomology on Graphs
8.1 Immersions
8.2 Realization of planarity
8.3 Reductions
8.4 Planarity auxiliary graphs
8.5 Basic conclusions
8.6 Notes
Chapter 9 Embeddability on Surfaces
9.1 Joint tree model
9.2 Associate polyhegons
9.3 A transformation
9.4 Criteria of embeddability
9.5 Notes
Chapter 10 Embeddings on the Sphere
10.1 Left and right determinations
10.2 Forbidden Congurations
10.3 Basic order characterization
10.4 Number of planar embeddings
10.5 Notes
Chapter 11 Orthogonality on Surfaces
11.1 Denitions
11.2 On surfaces of genus zero
11.3 Surface Model
11.4 On surfaces of genus not zero
11.5 Notes
Chapter 12 Net Embeddings
12.1 Denitions
12.2 Face admissibility
12.3 General criterion
12.4 Special criteria
12.5 Notes
Chapter 13 Extremality on Surfaces
13.1 Maximal genus
13.2 Minimal genus
13.3 Shortest embedding
13.4