内容简介
Preliminaries&LOWELL W.BEINEKE and ROBIN J.WILSON
1.Graph theory
2.Connectivity
3.Flows in networks
1 Menger’s theorem&ORTRUD R.OELLERMANN
1.Introduction
2.Vertex-connectivity
3.Edge-connectivity
4.Mixed connectivity
5.Average connectivity
6.Menger results for paths of bounded length
7.Connectivity of sets
8.Connecting with trees
2 Maximally connected graphs&DIRK MEIERLING and LUTZ VOLKMANN
1.Introduction
2.Maximally edge-connected graphs
3.Maximally edge-connected digraphs
4.Maximally locally edge-connected graphs and digraphs
5.Maximally connected and maximally locally connected graphs and digraphs
6.Restricted edge-connectivity
7.Conditional vertex-connectivity and edge-connectivity
3 Minimal connectivity&MATTHIAS KRIESELL
1.Introduction
2.Edge-deletion
3.Vertex-deletion
4.Edge-contraction
5.Generalized criticality
6.Reduction methods
7.Subgraph-deletion
8.Partitions under connectivity constraints
9.Line graphs
4 Contractions of k-connected graphs&KIYOSHI ANDO
1.Introduction
2.Contractible edges in 3-connected graphs
3.Contractible edges in 4-connected graphs
4.Contractible edges in k-connected graphs
5.Contraction-critical 5-connected graphs
6.Local structure and contractible edges
7.Concluding remarks
5 Connectivity and cycles&R.J.FAUDREE
1.Introduction
2.Generalizations of classical results
3.Relative lengths of paths and cycles
4.Regular graphs
5.Bipartite graphs
6.Claw-free graphs
7.Planar graphs
8.The Chvatal-Erdos condition
9.Ordered graphs
10.Numbers of cycles
6 H-linked graphs&MICHAEL FERRARA and RONALD J.GOULD
1.Introduction
2.k-linked graphs
3.Weak linkage
4.Digraphs
5.Modulo and parity linkage
6.Disjoint connected subgraphs
7.The disjoint paths problem
8.H-linked graphs
9.H-extendible graphs
7 Tree-width and graph minors&DIETER RAUTENBACH and BRUCE REED
1.Introduction
2.Subtree intersection representation
3.Tree decomposition and tree-width
4.Tree decompositions decompose
5.Excluding planar minors
6.Wagner’s conjecture
7.The dual of tree-width
8.A canonical tree decomposition
9.Wagner’s conjecture for arbitrary graphs
10.Efficient characterization of H-minor-free graphs
8 Toughness and binding numbers&IAN ANDERSON
1.Introduction
2.Toughness and connectivity
3.Toughness and cycles
4.Toughness and k-factors
5.Binding number
6.Binding number and k-factors
7.Binding numbers and cycles
8.Other measures of vulnerability
9 Graph fragmentability&KEITH EDWARDS and GRAHAM FARR
1.Introduction
2.Values and bounds for fragmentability
3.Reduction and separation
4.Bounded degree classes
5.Planarization
6.Applications
7.Monochromatic components
8.Open problems
10 The phase transition in random graphs&BELA BOLLOBAS and OLIVER RIORDAN
1.Introduction
2.The Erdos-Renyi theorem:the double jump
3.Correction:no double jump
4.The phase transition - simple results
5.Exploring components
6.The phase transition - finer results
7.The young giant
8.Final words
11 Network reliability and synthesis&F.T.BOESCH,A.SATYANARAYANA and C.L.SUFFEL
1.Introduction
2.Domination in digraphs
3.Coherent systems and domination in graphs
4.Computational complexity of reliability
5.Synthesis of reliable networks
6.Other measures of vulnerability
12 Connectivity algorithms&ABDOL-HOSSEIN ESFAHANIAN
1.Introduction
2.Computing the edge-connectivity
3.Computing the arc-connectivity
4.Computing the vertex-connectivity
5.Concluding remarks
13 Using graphs to find the best block designs&R.A.BAILEY and PETER J.CAMERON
1.What makes a block design good?
2.Graphs from block designs
3.Statistical issues
4.Highly patterned block designs
5.D-optimality
6.A-optimality
7.E-optimality
8.Some history
9.Block size 2
10.Low average replication
11.Further reading
Notes on contributors
Index