Evolution of networks : from biological nets to the Internet and WWW /

This text provides a concise introduction to the principles of the organization and evolution of both natural and artificial networks.

Bibliographic Details
Main Authors: Dorogovt︠s︡ev, S. N. (Sergeĭ N.) (Author), Mendes, J. F. F. (José F. F.) (Author)
Format: eBook
Language:English
Language Notes:English.
Published: Oxford ; New York : Oxford University Press, ©2003.
Subjects:
Online Access:Connect to the full text of this electronic book
Table of Contents:
  • Machine derived contents note: 0 Modern architecture of random graphs 1
  • 1 What are networks? 6
  • 1.1 Basic notions 6
  • 1.2 Adjacency matrix 10
  • 1.3 Degree distribution 10
  • 1.4 Clustering 14
  • 1.5 Small worlds 16
  • 1.6 Giant components 19
  • 1.7 List of basic constructions 22
  • 1.8 List of main characteristics 23
  • 2 Popularity is attractive 25
  • 2.1 Attachment of edges without preference 25
  • 2.2 Preferential linking 28
  • 3 Real networks 31
  • 3.1 Networks of citations of scientific papers 31
  • 3.2 Communication networks: the WWW and the Internet 34
  • 3.2.1 Structure of the WWW 35
  • 3.2.2 Search in the WWW 45
  • 3.2.3 Structure of the Internet 46
  • 3.3 Networks of collaborations 52
  • 3.4 Biological networks 54
  • 3.4.1 Neural networks 54
  • 3.4.2 Networks of metabolic reactions 56
  • 3.4.3 Genome and protein networks 59
  • 3.4.4 Ecological and food webs 60
  • 3.4.5 Word Web of human language 63
  • 3.5 Telephone call graph 66
  • 3.6 Mail networks 66
  • 3.7 Power grids and industrial networks 69
  • 3.8 Electronic circuits 70
  • 3.9 Nets of software components 71
  • 3.10 Energy landscape networks 73
  • 3.11 Overview 76
  • 4 Equilibrium networks 84
  • 4.1 Statistical ensembles of random networks 84
  • 4.2 Classical random graphs 86
  • 4.3 How to build an equilibrium net 88
  • 4.4 Econophysics: condensation of wealth 96
  • 4.5 Condensation of edges in equilibrium networks 101
  • 4.6 Correlations in equilibrium networks 102
  • 4.7 Small-world networks 104
  • 4.7.1 The Watts-Strogatz model and its variations 105
  • 4.7.2 The smallest-world network 110
  • 5 Non-equilibrium networks 112
  • 5.1 Growing exponential networks 112
  • 5.2 The Barabasi-Albert model 115
  • 5.3 Linear preference 118
  • 5.4 How the preferential linking emerges 121
  • 5.5 Scaling 124
  • 5.6 Generic scale of 'scale-free' networks 126
  • 5.7 More realistic models 127
  • 5.8 Estimations for the WWW 130
  • 5.9 Non-linear preference 131
  • 5.10 Types of preference providing scale-free networks 133
  • 5.11 Condensation of edges in inhomogeneous nets 135
  • 5.12 Correlations in growing networks 140
  • 5.13 How to obtain a strong clustering 142
  • 5.14 Deterministic graphs 143
  • 5.15 Accelerated growth of networks 148
  • 5.16 Evolution of language 151
  • 5.17 Partial copying and duplication 156
  • 5.18 Non-equilibrium non-growing networks 159
  • 6 Global topology of networks 161
  • 6.1 Topology of undirected equilibrium networks 161
  • 6.2 Topology of directed equilibrium networks 174
  • 6.3 Failures and attacks 179
  • 6.4 Resilience against random breakdowns 181
  • 6.5 How viruses spread within networks 187
  • 6.6 The Ising model on a net 190
  • 6.7 Mesoscopics in networks 196
  • 6.8 How to destroy a network 200
  • 6.9 How to stop an epidemic 202
  • 6.10 BKT percolation transition in growing networks 203
  • 6.11 When loops and correlations are important 210
  • 7 Growth of networks and self-organized criticality 212
  • 7.1 Preferential linking and the Simon model 212
  • 7.2 Econophysics: wealth distribution in evolving societies 214
  • 7.3 Multiplicative stochastic processes 217
  • 8 Philosophy of a small world 219
  • A Relations for an adjacency matrix 221
  • B How to measure a distribution 222
  • C Statistics of cliques 224
  • D Power-law preference 226
  • E Inhomogeneous growing net 228
  • F Z-transform 230
  • G Critical phenomena in networks 232
  • H A guide to the network literature 237
  • References 241
  • Index 263.