- ISBN: 9780470041444 | 0470041447
- Cover: Hardcover
- Copyright: 3/31/2008
Björn H. Junker is a biologist with a strong background in bioinformatics. His current research activities include the quantitative analysis and modeling of metabolic networks, as well as pathway databases and visual data mining. Mr. Junker has been at the Leibniz Institute of Plant Genetics and Crop Plant Research in Germany since 2003. He worked at Brookhaven National Laboratory in New York during 2006 and was appointed as project leader at the Leibniz Institute in 2007.
Falk Schreiber is a computer scientist who has worked in bioinformatics for more than ten years. His current research areas include modeling, analysis, and visualization of biological networks; graph algorithms; and data exploration and information visualization in the life sciences. Since 2003, he has been head of the Network Analysis Research Group at the Leibniz Institute of Plant Genetics and Crop Plant Research. He was appointed professor of bioinformatics at the Martin Luther University Halle-Wittenberg, Germany, in 2007.
Foreword | p. xiii |
Preface | p. xv |
Contributors | p. xix |
Introduction | p. 1 |
Networks in Biology | p. 3 |
Introduction | p. 3 |
Biology 101 | p. 4 |
Biochemistry and Molecular Biology | p. 4 |
Cell Biology | p. 6 |
Ecology and Evolution | p. 7 |
Systems Biology | p. 8 |
Properties of Biological Networks | p. 8 |
Networks on a Microscopic Scale | p. 9 |
Networks on a Macroscopic Scale | p. 11 |
Other Biological Networks | p. 11 |
Summary | p. 12 |
Exercises | p. 12 |
References | p. 12 |
Graph Theory | p. 15 |
Introduction | p. 15 |
Basic Notation | p. 16 |
Sets | p. 16 |
Graphs | p. 16 |
Graph Attributes | p. 19 |
Special Graphs | p. 19 |
Undirected, Directed, Mixed, and Multigraphs | p. 19 |
Hypergraphs and Bipartite Graphs | p. 20 |
Trees | p. 21 |
Graph Representation | p. 23 |
Adjacency Matrix | p. 23 |
Adjacency List | p. 23 |
Graph Algorithms | p. 24 |
Running Times of Algorithms | p. 24 |
Traversal | p. 25 |
Summary | p. 27 |
Exercises | p. 27 |
References | p. 28 |
Network Analysis | p. 29 |
Global Network Properties | p. 31 |
Introduction | p. 31 |
Global Properties of Complex Networks | p. 33 |
Distance, Average Path Length, and Diameter | p. 33 |
Six Degrees of Separation: Concepts of a Small World | p. 35 |
The Degree Distribution | p. 35 |
Assortative Mixing and Degree Correlations | p. 38 |
The Clustering Coefficient | p. 39 |
The Matching Index | p. 41 |
Network Centralities | p. 42 |
Eigenvalues and Spectral Properties of Networks | p. 43 |
Models of Complex Networks | p. 43 |
The Erdos-Renyi Model | p. 44 |
The Watts-Strogatz Model | p. 45 |
The Barabasi-Albert Model | p. 46 |
Extensions of the BA Model | p. 48 |
Additional Properties of Complex Networks | p. 48 |
Structural Robustness and Attack Tolerance | p. 49 |
Modularity, Community Structures and Hierarchies | p. 50 |
Subgraphs and Motifs in Networks | p. 51 |
Statistical Testing of Network Properties | p. 52 |
Generating Networks and Null Models | p. 53 |
The Conceptualization of Cellular Networks | p. 54 |
Bipartite Graphs | p. 55 |
Correlation Networks | p. 57 |
Summary | p. 57 |
Exercises | p. 58 |
References | p. 59 |
Network Centralities | p. 65 |
Introduction | p. 65 |
Centrality Definition and Fundamental Properties | p. 67 |
Comparison of Centrality Values | p. 68 |
Disconnected Networks | p. 68 |
Degree and Shortest Path-Based Centralities | p. 69 |
Degree Centrality | p. 69 |
Eccentricity Centrality | p. 71 |
Closeness Centrality | p. 72 |
Shortest Path Betweenness Centrality | p. 73 |
Algorithms | p. 74 |
Example | p. 76 |
Feedback-Based Centralities | p. 77 |
Katz's Status Index | p. 77 |
Bonacich's Eigenvector Centrality | p. 78 |
PageRank | p. 79 |
Tools | p. 80 |
Summary | p. 80 |
Exercises | p. 81 |
References | p. 81 |
Network Motifs | p. 85 |
Introduction | p. 85 |
Definitions and Basic Concepts | p. 86 |
Definitions | p. 86 |
Modeling of Biological Networks | p. 88 |
Concepts of Motif Frequency | p. 88 |
Motif Statistics and Motif-Based Network Distance | p. 89 |
Determination of Statistical Significance of Network Motifs | p. 89 |
Randomization Algorithm for Generation of Null Model Networks | p. 90 |
Influence of the Null Model on Motif Significance | p. 91 |
Limitations of the Null Model on Motif Detection | p. 91 |
Measures of Motif Significance and for Network Comparison | p. 91 |
Complexity of Network Motif Detection | p. 94 |
Aspects Affecting the Complexity of Network Motif Detection | p. 94 |
Frequency Estimation by Motif Sampling | p. 96 |
Methods and Tools for Network Motif Analysis | p. 96 |
Pajek | p. 96 |
Mfinder | p. 96 |
MAVisto | p. 97 |
FANMOD | p. 97 |
Analyses and Applications of Network Motifs | p. 97 |
Network Motifs in Complex Networks | p. 97 |
Dynamic Properties of Network Motifs | p. 98 |
Higher Order Structures Formed by Network Motifs | p. 102 |
Network Comparison Based on Network Motifs | p. 104 |
Evolutionary Origin of Network Motifs | p. 106 |
Summary | p. 106 |
Exercises | p. 108 |
References | p. 108 |
Network Clustering | p. 113 |
Introduction | p. 113 |
Notations and Definitions | p. 115 |
Network Clustering Problem | p. 118 |
Clique-Based Clustering | p. 119 |
Minimum Clique Partitioning | p. 120 |
Min-Max k-Clustering | p. 122 |
Center-Based Clustering | p. 125 |
Clustering with Dominating Sets | p. 126 |
k-Center Clustering | p. 129 |
Conclusion | p. 131 |
Summary | p. 133 |
Exercises | p. 133 |
References | p. 134 |
Petri Nets | p. 139 |
Introduction | p. 139 |
Qualitative Modeling | p. 141 |
The Model | p. 141 |
The Behavioral Properties | p. 148 |
Qualitative Analysis | p. 152 |
Structural Analysis | p. 152 |
Invariant Analysis | p. 155 |
MCT-Sets | p. 162 |
Dynamic Analysis of General Properties | p. 164 |
Dynamic Analysis of Special Properties | p. 166 |
Model Validation Criteria | p. 168 |
Quantitative Modeling and Analysis | p. 169 |
Tool Support | p. 171 |
Case Studies | p. 172 |
Summary | p. 174 |
Exercises | p. 175 |
References | p. 177 |
Biological Networks | p. 181 |
Signal Transduction and Gene Regulation Networks | p. 183 |
Introduction | p. 183 |
Decisive Role of Regulatory Networks in the Evolution and Existence of Organisms | p. 184 |
Gene Regulatory Network as a System of Many Subnetworks | p. 186 |
Databases on Gene Regulation and Software Tools for Network Analysis | p. 187 |
Peculiarities of Signal Transduction Networks | p. 188 |
Topology of Signal Transduction Networks | p. 190 |
Topology of Transcription Networks | p. 191 |
Intercellular Molecular Regulatory Networks | p. 198 |
Summary | p. 200 |
Exercises | p. 201 |
References | p. 202 |
Protein Interaction Networks | p. 207 |
Introduction | p. 207 |
Detecting Protein Interactions | p. 209 |
The Yeast Two-Hybrid System | p. 211 |
Affinity Capture of Protein Complexes | p. 216 |
Computational Methods to Predict Protein Interactions | p. 218 |
Other Ways to Identify Protein Interactions | p. 219 |
Establishing Protein Interaction Networks | p. 220 |
Data Storage and Network Generation | p. 220 |
Benchmarking High-Throughput Interaction Data | p. 222 |
Analyzing Protein Interaction Networks | p. 223 |
Network Topology and Functional Implications | p. 223 |
Functional Modules in Protein Interaction Networks | p. 223 |
Evolution of Protein Interaction Networks | p. 224 |
Comparative Interactomics | p. 225 |
Summary | p. 225 |
Exercises | p. 226 |
References | p. 227 |
Metabolic Networks | p. 233 |
Introduction | p. 233 |
Visualization and Graph Representation | p. 234 |
Reconstruction of Genome-Scale Metabolic Networks | p. 234 |
Connectivity and Centrality in Metabolic Networks | p. 239 |
Modularity and Decomposition of Metabolic Networks | p. 242 |
Modularity Coefficient | p. 244 |
Modularity-Based Decomposition | p. 245 |
Elementary Flux Modes and Extreme Pathways | p. 246 |
Summary | p. 249 |
Exercises | p. 249 |
References | p. 251 |
Phylogenetic Networks | p. 255 |
Introduction | p. 255 |
Character Selection, Character Coding, and Matrices for Phylogenetic Reconstruction | p. 257 |
Tree Reconstruction Methodologies | p. 260 |
Phylogenetic Networks | p. 264 |
Galled Trees | p. 266 |
Statistical Parsimony | p. 267 |
Median Network | p. 269 |
Median-Joining Networks | p. 270 |
Pyramids | p. 271 |
Example of a Pyramidal Clustering Model | p. 271 |
Split Decomposition | p. 274 |
Summary | p. 276 |
Exercises | p. 276 |
References | p. 277 |
Ecological Networks | p. 283 |
Introduction | p. 283 |
Binary Food Webs | p. 289 |
Introduction and Definitions | p. 289 |
Descriptors of the Network | p. 289 |
Operational Problems | p. 291 |
Aims and Results | p. 291 |
Conclusion | p. 293 |
Quantitative Trophic Food Webs | p. 293 |
Introduction, Definitions, and Database | p. 293 |
Multiple Commodities | p. 295 |
Descriptors of the Network and Information to be Gained | p. 295 |
Conclusion | p. 298 |
Ecological Information Networks | p. 298 |
Summary | p. 300 |
Exercises | p. 301 |
References | p. 301 |
Correlation Networks | p. 305 |
Introduction | p. 305 |
General Remarks | p. 306 |
Basic Notation | p. 307 |
Data, Unit, Variable, and Observation | p. 307 |
Sample, Profiles, and Replica Set | p. 308 |
Measures of Association | p. 309 |
Simple Correlation Measures | p. 310 |
Complex Correlation and Association Measures | p. 311 |
Probability, Confidence, and Power | p. 313 |
Matrices | p. 314 |
Construction and Analyses of Correlation Networks | p. 314 |
Data and Profiles | p. 315 |
Data Set and Matrix | p. 316 |
Correlation Matrix | p. 318 |
Network Matrix | p. 318 |
Correlation Network Analysis | p. 319 |
Interpretation and Validation | p. 321 |
Biological Use of Correlation Networks | p. 321 |
The Global Analysis Approach | p. 321 |
The Guide Gene Approach | p. 322 |
A Simple Coregulation Test: Photosynthesis | p. 324 |
A Complex Coregulation Test: Brassinosteroids | p. 327 |
Summary | p. 328 |
Exercises | p. 329 |
References | p. 330 |
Index | p. 335 |
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