What is included with this book?
Computer Analysis of Structural-functional Organization of Nucleotide Sequences | p. 1 |
Introduction | p. 1 |
A General Characterization of the Pro- and Eukaryotic Genomes | p. 1 |
Basic Principles of Organization of Regulatory Regions of the Eukaryotic Genome | p. 7 |
Generation of Genotypical Variability in the Pro- and Eukaryotic Genomes | p. 13 |
Computer Analysis of Functional Sites in Nucleotide Sequences | p. 15 |
Search for Functional Sites Using Consensus | p. 16 |
Use of the Classification Approach in the Construction of Consensuses (Human Splice Sites as Example) | p. 21 |
Analysis of Functional Sites Based on Perceptron Function (Glucocorticoid-Receptor Complexes Binding Sites as Example) | p. 28 |
System "Site-Video". Recognition of Functional Sites Using Recursive Context Systems | p. 35 |
Investigation of Human Splice Sites by the "Site-Video" System | p. 66 |
Analysis of Facultative Contextual Features of Site Function | p. 82 |
Role of Tandem Overlapping Repeats (TOR) in Site Function (Prokaryotic Promoters as Example) | p. 95 |
Role of Repeats in Functional Site Evolution (Attenuators as Example) | p. 102 |
Contextual Analysis of the Genes Encoding Proteins | p. 107 |
Method for Revealing Imperfect Repeats in Nucleotide Sequences | p. 107 |
Convergent Origin of Repeats in the Genes Encoding Globular Proteins. Analysis of Factors Determining the Presence of Direct Repeats | p. 112 |
Convergent Origin of Repeats in the Genes Encoding Globular Proteins. Simulation of the Convergent Origin of Direct Repeats | p. 124 |
Convergent Origin of Repeats in the Genes Encoding Globular Proteins. Analysis of Factors Determining the Presence of Inverted and Symmetrical Repeats | p. 129 |
Computer Analysis and Recognition of Exon-Intron Structure of Eukayotic Genes | p. 135 |
Evolutionary Causes and Scripts of Mosaic Gene Structure Origin in Eukaryotes | p. 135 |
Computer System GenView for Recognition for Exon-Intron Structure of Genes in the Human Genome | p. 142 |
Computer Analysis of mRNA Secondary Structure | |
RNA Secondary Structure Investigation by Contextual Analysis | p. 154 |
Computer Simulation of mRNA Secondary Structure and Translation Process | p. 156 |
Mobile Genetic Elements and Transposable Sequences: Principles of Structural-Functional Organization and Evolution | p. 167 |
General Characterization of Mobile Genetic Elements and Transposable Sequences in Eukaryotic Genomes | p. 167 |
Contextual Analysis of Dispersed Repeats in the Eukaryotic Genomes | p. 171 |
Enhancer-Like Structures in Dispersed Repeats | p. 171 |
tRNA as a Possible Primer for the Initiation of Dispersed Repeats Alu, B1, B2 and L1 Reverse Transcription | p. 175 |
Computer Analysis of Alu Repeats Evolution | p. 181 |
Phylogenetic Analysis of Alu Repeats | p. 181 |
Evolutionary Dynamics of the Number of Alu Repeats in the Human Genome | p. 186 |
Computer Simulation of Alu Repeat Evolution | p. 192 |
Analysis of the Distribution of Transposable Sequences Throughout the Genome | p. 197 |
Distribution of Alu Repeats in the Genome: Cluster Formation and Specificities of Insertion Sites | p. 197 |
Estimation of Alu Repeat Transposition Constants from Phylogenetical Analysis | p. 205 |
Investigation of Transpositional Memory Characteristics | p. 210 |
Exchange Processes Involving Alu Repeats | p. 214 |
General Estimations of Exchange Processes | p. 214 |
Estimation of Unequal Crossing-Over Frequency of Transposable Sequences Based on the Distribution of Flanking Repeats | p. 219 |
Investigation of Block Conversion in Alu Repeat Clusters | p. 225 |
Effects of Transpositions of Mobile Genetic Elements on Fitness | p. 231 |
Simulation of Alu Repeats Distribution and Their Effects on Fitness | p. 231 |
Activation of Mobile Genetic Element Transcription Under Heat-Shock | p. 234 |
Evolutionary Significance of Availability of Regulatory Sites in Mobile Genetic Elements Responding to the Environmental Changes | p. 240 |
Conclusion | p. 248 |
Computer Investigation of Molecular Mechanisms of Mutagenesis | p. 252 |
Role of Polynucleotide Context in Mutation and Recombination | p. 252 |
Mechanisms of Single and Multiple Substitutions | p. 253 |
Relationship of Deletions and Insertions with Repeats | p. 260 |
Theoretical Analysis of Mutations | p. 264 |
Computer System for Analysis of Molecular Mechanisms of Mutagenesis | p. 265 |
Database of Mutational Spectra | p. 265 |
Program Package | p. 265 |
Contribution of Nucleotide Context to Spontaneous and Induced Mutations | p. 278 |
Simulation of Short Heteroduplex Repair for Spontaneous Mutations | p. 278 |
Substitutions Caused by DNA-polymerase Errors | p. 280 |
Analysis of the Dislocation Model | p. 285 |
Nucleotide Context Accounts for Induced Mutations | p. 287 |
Somatic Mutations in the Immunoglobulin Genes | p. 289 |
Somatic Hypermutagenesis in the Immunoglobulin Genes (General Description) | p. 289 |
Molecular Mechanisms Responsible for Somatic Mutagenesis | p. 290 |
Clonal Selection of Somatic Mutations | p. 298 |
Deletions and Duplication Generated by Direct Repeats | p. 300 |
Correlation of Deletions with Direct Repeats in the Prokaryotic Genes | p. 300 |
Simulation of Deletions Generated by Direct Repeats | p. 305 |
Simulating Duplications Produced by Direct Repeats | p. 311 |
Structural Instability of the Prokaryotic Genome with Respect to Repeats | p. 314 |
Deletions and Duplications as Factors of Prokaryotic Genome Evolution | p. 317 |
Simulation of Evolutionary Time Course of Repeats Changes in the Prokaryotic Genome | p. 317 |
Instability with Respect to Repeats and Scripts of Primitive Genomic Evolution | p. 325 |
Investigation of Protein Structural-Functional Organization and Evolution | p. 336 |
Principles of Protein Structural-Functional Organization and Evolution | p. 336 |
Architectonics of the Protein Molecule | p. 336 |
Mutations, Protein Structure and Function | p. 344 |
Scenarios of Protein Molecular Evolution | p. 346 |
Computer Analysis of Globular Proteins Secondary Structure | p. 352 |
Secondary Structure Prediction Based on the Discriminant Analysis | p. 352 |
Mutation Effects on the Secondary Structure of Globular Proteins | p. 364 |
Computer Analysis of Mutation Effects on [alpha]-Helical Protein Folding | p. 367 |
A Simple Method for Calculation of Low Energy Packaging of the [alpha]-Helices in Globular Proteins | p. 367 |
Effects of Amino Acid Substitutions on the Packaging of the [alpha]-Helices in Globins | p. 374 |
Effects of Deletions and Insertions on the Packaging of the [alpha]-Helices | p. 379 |
Analysis of Proteins Structure and Evolution Using the Topological Approach | p. 384 |
Topological Description of the [alpha]/[beta]-Domains of Globular Proteins | p. 384 |
Expert Rules Specifying the Number of Topologically Permissible Variants of the [alpha]/[beta]-Domains of Globular Proteins | p. 392 |
Method for Prediction of the Topological Structure [alpha]/[beta]-Domains | p. 402 |
Prediction of the [alpha]/[beta]-Domain Topologies of Proteins Based on Their Primary and Secondary Structures | p. 404 |
Mutational Spectrum Analysis via Simulation of Protein Topological Structure | p. 410 |
Conformational Stability and Evolution of Proteins | p. 418 |
Method for Estimating Protein Stability Alteration Resulting from Amino Acid Substitutions | p. 418 |
Analysis of Amino Acid Substitutions Leading to Instability in the Human Hemoglobin | p. 432 |
Investigation of Properties of Mutation Spectra Determined by Protein Structure Stability | p. 435 |
Computer Analysis of Proteins Using the Structural-Functional Determinant Approach | p. 439 |
Method for Recognition of Structural-Functional Determinants of Protein Molecules | p. 439 |
Classification of Proteins Interacting with DNA(RNA) Based on the Recognition of Structural-Functional Determinants | p. 451 |
Reconstruction of the Structural-Functional Organization of the N-end Domain of Histone H4 According to Its Amino Acid Sequence | p. 460 |
Structural-Functional Relationship in Bacterial RecA Protein: Computer Analysis of the Primary Structure of RecA Protein Family | p. 469 |
Genetic Macromolecules: Principles and Mechanisms of Evolution | p. 478 |
Problem of Neutrality and Adaptivity of Molecular Evolution | p. 478 |
Computer System for the Analysis of Molecular Evolution | p. 481 |
The Method for Multiple Alignment of Nucleotide Sequences and Compilation of Homologous Genes Database | p. 481 |
Reconstruction of Phylogenetic Trees | p. 489 |
Computer Simulation of the Evolution of Gene Families | p. 492 |
Computer Analysis of Evolution of Gene Families Coding for Proteins | p. 496 |
Classification of Evolution Modes of Gene Families Coding for Proteins | p. 496 |
Analysis of Change in Amino Acid Physical and Chemical Properties during the Evolution of Gene Families | p. 500 |
Theoretical Investigation of Regulatory Contours Evolution under Various Types of Selection | p. 503 |
Some Evolutionary Properties of the Simplest Regulatory Mechanism of Negative Feedback Type | p. 504 |
Protein Evolution in Systems with Feedbacks under Various Types of Selection | p. 506 |
Regulatory Mechanisms and the Problem of the Neutrality-Adaptivity of Molecular Evolution | p. 510 |
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