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Redaktion: Ugo Bastolla, Markus Porto, H. Eduardo Roman, Michele Vendruscolo
Structural Approaches to Sequence Evolution
Molecules, Networks, Populations
erschienen Juni 2007 368 Seiten, 150 illus., 5 in colour, Gebunden
Springer-Verlag GmbH & Co. KG | ISBN: 3540353054
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| VORWORT | öffnen |
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PrefaceSoon after the first sequences of proteins and nucleic acids became available for comparative analysis, it became apparent that they can play a key role for reconstructing the evolution of life. The availability of the sequence of several proteins prompted the birth of the field of molecular evolution, which aims at both the reconstruction of the biochemical history of life and the understanding of the mechanisms of evolution at the molecular level through the analysis of the macromolecul...
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Biological and Medical Physics, Biomedical Engineering U. Baastollo M. Porto H.E. Roman M. Vendruscolo Editors Structural Approaches to Sequence Evolution Molecules, Networks/Populations Structural requirements constrain the evolution of biological entities at all levels, from macromolecules to their networks, right up to populations of biological organisms. Classical models of molecular evolution, however, are focused at the level of the symbols - the biological sequence - rath... [weiter lesen] |
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Contents Part I Molecules: Proteins and RNA 1 Modeling Conformational Flexibility and Evolution of Structure: RNA as an ... P.Schuster and P.F. Stadler 3 1.1 Definition and Computation of RNA Structures 3 1.1.1 RNA Secondary Structures 4 1.1.2 Compatibility of Sequences and Structures 8 1.1.3 Sequence Space, Shape Space, and Conformation Space 11 1.1.4 Computation of RNA Secondary Structures 14 1.1.5 Mapping Sequences into Structures 15 1.1.6 Suboptimal Structures and Partition Functions 18 1.2 Design of RNA Structures 19 1.2.1 Inverse Folding 19 1.2.2 Multiconformational RNAs 20 1.2.3 Riboswitches 22 1.3 Processes in Conformation, Sequence, and Shape Space 23 1.3.1 Kinetic Folding 23 1.3.2 Evolutionary Optimization 25 1.3.3 Evolution of Noncoding RNAs 30 References 32 2 Gene 3 D and Understanding Proteome Evolution J.G.Ranea, C. Yeats, R. Marsden, and C. Orengo 37 2.1 Protein Family Clustering 42 2.1.1 SYSTERS 42 2.1.2 Proto-Net 42 2.1.3 ADDA 42 2.1.4 ProDom 43 2.2 The PFscape Method 43 2.3 The NewFams 44 2.4 Describing the Proteome 45 2.5 Superfamily Evolution and Genome Complexity 46 2.6 Superfamily Evolution and Functional Relationships 48 2.7 Limits to Genome Complexity in Prokaryotes 50 2.8 The Bacterial Factory 52 2.9 Conclusions 53 References 54 3 The Evolution of the Globins: We Thought We Understood It A.M.Lesk 57 3.1 Introduction 58 3.2 Coordinates and Calculations 59 3.3 Results 59 3.3.1 Description of Secondary and Tertiary Structure of Full-Length (~ 150-... 3.3.2 Description of Secondary and Tertiary Structure of Truncated Globins 60 3.3.3 Alignment 60 3.4 Helix Contacts 62 3.4.1 Geometry of Inter-Helix Contacts 62 3.4.2 Pairs of Helices Making Contacts 63 3.4.3 Structures of Helix Interfaces in Truncated Globins, Compared to Those... 3.4.4 The B/G Interface 65 3.4.5 The A/H Interface 66 3.4.6 The B/E Interface 67 3.5 Patterns of Residue-Residue Contacts at Helix Interfaces 68 3.5.1 The G/H Interface 69 3.6 Haem Contacts 72 3.7 The Tunnel 72 3.8 Conclusions 72 References 73 4 The Structurally Constrained Neutral Model of Protein Evolution U.Bastolla, M. Porto, H.E. Roman, and M. Vendruscolo 75 4.1 Aspects of Population Genetics 76 4.1.1 Population Size and Mutation Rate 76 4.1.2 Natural Selection 77 4.1.3 Mutant Spectrum 78 4.1.4 Neutral Substitutions 80 4.1.5 Beyond the Small M μ Regime: Neutral Networks 81 4.2 Structural Aspects of Molecular Evolution 83 4.2.1 Neutral Theory and Protein Folding Thermodynamics 83 4.2.2 Structural Conservation and Functional Changes in Protein Evolution 84 4.2.3 Models of Molecular Evolution with Structural Conservation 85 4.3 The SCN Model of Evolution 87 4.3.1 Representation of Protein Structures 88
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Index AACNUC, 207-231 adaptation, 299, 301, 304, 327, 334, 345 adaptive landscape, 299 ADDA, 42 adjacency matrix, 6, 19, 326 amino acid, 220-231 - composition, 157 antigenic drift, 346 antiviral drugs, 346 archea, 39 AT content, 153-158 Bbacteriocyte, 149-150 Baumannia cicadellinicola, 149-162 Bayesian inference, 170, 185 beta distribution, 186, 187 binding cooperativity, 279, 280 binomial distribution, 184 blind-ant regime, 76, 77, 82 Blochmannia floridanus, 149-162 breakpoint distances, 160 Buchnera aphidicola, 149-162 Ccapside, 341 Carsonella ruddii, 149-162 CATH, 37, 41 - domains, 41 cellular computation, 130 chaperones, 158 chemokines, 197 chromosomal rearrangements, 153-162 CLUSTAL format, 214 codon, 221-231 - usage, 231 - usage bias, 153, 156 combinatorics, 4, 20 commensalism, 149 compatibility, 8, 10, 12, 20, 21 compensatory substitutions, 293 conjugate prior distribution, 186 consensus sequence, 310, 344 cooption, 295, 296 correspondence analysis, 225 CRAN, 207-231 DDALI, 65 data storage medium, 129 databases, 207-231 defective genomes, 353 delta method, 172-175 designability, 104 detailed balance, 78, 107, 273 disintegration rate, 159 distance-based method, 178, 179, 181, 184 divergence - expression, 235, 240, 241, 243, 246, 247 - sequence, 236, 246, 247 DNA, 207-231 - loss, 158-159 - methylation, 185 - uptake, 159 dot chart, 222 dynamic programming, 264 Eelectrophoresis, 288 EMBL, 207-231 endocytobiosis, 149 endosymbiosis, 149 environments - simple vs diverse, 292 epistasis, 299, 314-316, 325 equilibrium frequencies, 172, 174 equilog, 116 error threshold, 299, 307-310, 312-320, 323, 324, 327, 334-336, 350, 351, 353 evolution - convergent, 113-124 - divergent, 113-124 evolutionary trajectory, 91, 93, 328, 330-332 - correlations, 91, 93- fluctuations, 91, 93 expression - conservation, 250 - divergence, 235, 240, 241, 243, 246, 247 - natural selection, 248 - neutral changes, 247, 248 - probe-to-gene mapping, 241, 242 - level, 243 - clustering, 245, 246 - pattern, 235 - polymorphism, 249 - profile, 244 extinction, 348, 352 FFASTA format, 213-231 Fast-ME, 178, 184 Fibonacci numbers, 22 Fisher's model, 294 Fitch-Margoliash, 178, 184 fitness, 236, 238, 239, 246, 247, 300, 301, 303, 306, 308,... - landscape, 299-301, 303, 304, 306-308, 310, 311, 313-317, 319, 321-328, 332-336, 34... - Malthusian, 300, 303, 316, 317, 321, 323, 324, 332-334 - step-wise increase, 327, 328, 335 - Wrightian, 301, 303, 306, 308, 314-317, 321, 322, 324 fixation, 76 - probability, 77, 291 FM criterion, 178-180, 185 foot and mouth disease virus, 352-359 frequency distribution of the fitness effects, 293 functional - annotation, 113-122 - conservation, 84 functional flexibility score, 118 Ggamma-distributed rates, 180 GC content, 153-158 GenBank, 207-231 gene - duplication, 31, 32, 191, 193 - inactivation, 155-163 - interaction, 254, 280 - loss, 158 - networks, 280 - ontology, 118 - regulation, 253, 254, 259, 260, 263-271, 273-280 - Bayesian model, 263-265, 277 - binding cooperativity, 279, 280 - evolution, 266-271, 273-276 - evolutionary equilibria, 270, 271, 274, 276 - evolvability, 260 - neutral evolution, 273 - programmability, 260 - score-fitness relation, 274 - selection, 275 Gene 3 D, 37, 41 genealogy, 27 genetic - background effects, 296 - code, 211, 231 - distance, 170-172, 174, 176, 178, 180 - diversity, 343 - drift, 299, 328, 335, 343 - load, 287 - regulatory network, 286 - bottom-up evolution, 295 genome - changes, 162 - complexity, 294 - evolution, 135, 136- formatting, 131- rearrangement rates, 160- reduction, 158-163 - segment reassort ment, 343, 344 - stasis, 160 genotype-phenotype map, 301, 322 globins, 57 - secondary and tertiary structure, 59 Hhaem group, 59 haemoglobin, 57 Hamming distance, 302, 344 homolog, 32 - identification, 236 horizontal gene transfer, 159, 160 human immunodeficiency virus, 343-359 hypermutation, 342, 353 Iidentification - ortholog, 236 immune enhancement, 350 - cross-immunity, 348, 349 - strain-trascending immunity, 349 indel bias, 159 influenza, 344-359 informative site, 181, 182 insertion sequence, 163 interaction systems, 287 interactivity parameters, 98 intersection theorem, 21, 22 inversion distances, 160 Ising model, 304, 306, 307, 309, 314 JJC 69 model, 171, 174, 183 KK 80 model, 173, 174 Llattice structure graph, 119 likelihood, 169, 170, 177, 178, 181-189 long-branch - attraction, 180, 182 - repulsion, 180 LS criterion, 180 lupin leghaemoglobin, 68 MMarkov chain, 171, 176, 186 MASE format, 214 master sequence, 310, 312-316, 318-320, 323, 332, 333, 344 matching, 6, 8, 15, 19, 21 ME criterion, 179, 180 metazoa, 58 methylation, 185 mobile genetic elements, 131, 136 modular structures, 285, 287 molecular - clock, 75, 287, 288 - phylogenetics, 169, 170, 176, 187 monomorphic site, 181 MSF format, 214 Muller's ratchet, 156, 336, 355, 358 multidomain, 38, 39 multigene families, 191 multiple hits, 170 multivariate analyses, 225-231 mutagenesis, 351 - lethal, 352 mutant spectrum, 78, 344 - advantageous mutations, 78 - nearly neutral mutations, 78, 79 - neutral mutations, 78-80 - strongly deleterious mutations, 78 mutation, 76, 343
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