Title:
Anatomy of gene regulation : a three dimensional structural analysis
Personal Author:
Publication Information:
Cambridge, UK : Cambridge University Press, 2003
ISBN:
9780521804745
Available:*
Library | Item Barcode | Call Number | Material Type | Item Category 1 | Status |
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Searching... | 30000010113694 | QH450 T76 2003 | Open Access Book | Book | Searching... |
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Summary
Summary
Anatomy of Gene Regulation is the first book to present the parts and processes of gene regulation at the three-dimensional level. Vivid structures of nucleic acids and their companion proteins are revealed in full-color, three dimensional form. Beginning with a general introduction to three-dimensional structures, the book looks at the organization of the genome, the structure of DNA, DNA replication and transcription, splicing, protein synthesis, and ultimate protein death. This concise and unique synthesis and its accompanying web site offer insight into gene regulation, and into the development of methods to interfere with regulation at diseased states.
Author Notes
Panagiotis A. Tsonis: University of Dayton
Table of Contents
Preface | p. xi |
1 A General Introduction to 3-D Structures | p. 1 |
2 The Higher Organization of the Genome | p. 6 |
Packing DNA in the Chromosomes | p. 6 |
The Three-Dimensional Structure of the Nucleosome | p. 8 |
Other Proteins | p. 10 |
3 Structure of DNA and Telomeres | p. 14 |
The Three-Dimensional Structure of DNA | p. 14 |
Telomeres | p. 14 |
Structure of OnTEBP and Interaction with Telomeric Sequences | p. 19 |
Structure of Yeast RAP1 | p. 20 |
4 DNA Replication | p. 26 |
The Prereplicative Complex | p. 28 |
Replication Origins in Prokaryotes | p. 28 |
Replication Origins in Eukaryotes | p. 28 |
Elongation and the Synthesis of New DNA Strands | p. 30 |
DNA Polymerases | p. 30 |
The Three-Dimensional Structure of DNA pol I | p. 31 |
The Incorporation of the Incoming Nucleotide | p. 33 |
The Three-Dimensional Structure of the DNA Polymerase from Phage RB69 | p. 36 |
The Three-Dimensional Structure of Human DNA Polymerase Beta | p. 36 |
Editing | p. 38 |
Processivity of DNA Polymerases and the Structure of the Clamp | p. 39 |
The Loading of the Clamp | p. 41 |
Processivity Factors of Eukaryotic DNA Polymerases | p. 42 |
Synthesis of the Primers in the Lagging Strand | p. 42 |
Processing of the Okazaki Fragments into a Continuous Strand | p. 45 |
The Single-Stranded DNA-Binding Proteins | p. 48 |
Viewing the Replication Complex | p. 48 |
Helicases | p. 50 |
The E. coli Rep Helicase | p. 51 |
The Bacillus stearothermophilus PcrA Helicase | p. 53 |
The Bacteriophage T7 Helicase Domain | p. 53 |
Topoisomerases | p. 58 |
The 3-D Structure of Human Topo I | p. 61 |
Mechanism of Cleavage and Relaxation of DNA | p. 61 |
The Structure of Yeast Topoisomerase II | p. 65 |
Termination of Replication | p. 67 |
Box: How Drugs Induce Mutations | p. 71 |
5 Transcription in Prokaryotes | p. 73 |
Structure and Function of Prokaryotic RNA Polymerase | p. 74 |
The 3-D Structure of the Thermus Aquaticus RNA Pol | p. 77 |
Regulation in Prokaryotes | p. 86 |
The Helix-Turn-Helix Motif in Prokaryotic Gene Regulation | p. 87 |
The Lac Operon | p. 87 |
The Pur Repressor | p. 89 |
The Trp Repressor | p. 89 |
Catabolite Activator Protein | p. 90 |
Regulation in Phages | p. 90 |
The 434 Phage | p. 92 |
The Lambda Phage | p. 95 |
Termination of Prokaryotic Transcription | p. 98 |
The Attenuator | p. 101 |
6 Transcription in Eukaryotes | p. 104 |
Structure and Function of the Yeast RNA Pol II | p. 105 |
Comparison of Prokaryotic and Eukaryotic RNA Polymerases with the T7 RNA Polymerase | p. 108 |
Regulation in Eukaryotes | p. 111 |
Regulation in Class I Genes | p. 111 |
Regulation in Class III Genes | p. 111 |
Structure of TFIIIA | p. 113 |
Regulation in Class II Genes | p. 115 |
The Basal Transcriptional Apparatus in Class II Genes | p. 115 |
Structure and Function of TFIID | p. 116 |
Structure of TFIIA | p. 118 |
Structure of TFIIB | p. 119 |
Structure of TFIIH | p. 120 |
Transcriptional Activation in Eukaryotes | p. 120 |
Liver-Specific Transcription | p. 121 |
The GAL Regulatory System | p. 122 |
The Steroid Hormone Receptors | p. 123 |
The Homeodomain-Containing Genes | p. 124 |
The Mediator | p. 127 |
Chromatin Structure and Gene Regulation | p. 128 |
Regulation of Cell Fate by Homeodomains: The Yeast Mat Genes | p. 130 |
Structural Features of Class II DNA-Binding Domains | p. 132 |
The Helix-Turn-Helix Motif | p. 133 |
The Zinc-Binding Domains | p. 135 |
The Class 1 Zinc-Binding Domains | p. 136 |
The Class 2 Zinc-Binding Domains | p. 140 |
The Class 3 Zinc-Binding Domains | p. 142 |
Other DNA-Binding Domains | p. 143 |
The Leucine Zipper | p. 144 |
The Immunoglobulin Fold in NFAT | p. 145 |
The T Domain | p. 148 |
Signal Transducers and Activators of Transcription Proteins | p. 148 |
Box: Most Frequent Base-Amino Acid Interactions | p. 152 |
7 Splicing | p. 153 |
Splicing of the Nuclear Pre-mRNA Introns | p. 155 |
The First Transesterification | p. 155 |
The Second Transesterification | p. 155 |
The Spliceosome | p. 156 |
Structure and Assembly of snRNPs | p. 156 |
Other Splicing Factors | p. 157 |
The Events of Splicing | p. 159 |
Splicing of Group II Introns | p. 160 |
Splicing of Group I Introns | p. 163 |
Other Ribozymes | p. 167 |
Structure of the Hammerhead Ribozyme | p. 167 |
The Interesting Case of Group I Splicing by a Protein, Tyrosyl-tRNA Synthetase | p. 170 |
8 Modifications of mRNA | p. 172 |
The Capping of the 5' Ends | p. 172 |
Structure of the Yeast RNA 5'-Triphosphatase | p. 173 |
Structure of the Guanyltransferase | p. 173 |
Maturation at The 3' End: Addition of polyA | p. 178 |
3-D Structure of the polyA-Binding Protein | p. 179 |
Maturation of mRNA Lacking polyA Tails | p. 180 |
RNA Editing | p. 181 |
RNA Interference | p. 182 |
9 Compartmentalization of Transcription | p. 184 |
Splicing Factors | p. 185 |
Visualization of Single Transcripts | p. 185 |
The Moving of Transcripts Out of the Nucleus | p. 187 |
Shuttling mRNA-Binding Proteins | p. 190 |
Segregation of Replication and Transcription | p. 190 |
10 Protein Synthesis | p. 191 |
The Major Players in Protein Synthesis | p. 193 |
The 3-D Structure of tRNA | p. 193 |
The Charging of tRNA with Amino Acid | p. 194 |
The 3-D Structure of E. coli Glutaminyl-tRNA Synthetase and Its Interactions with tRNA[superscript Gln] | p. 195 |
The Ribosome | p. 200 |
Initiation | p. 202 |
Initiation in Prokaryotes | p. 203 |
Initiation in Eukaryotes | p. 203 |
The Structure of IF-1 | p. 205 |
The Structure of IF-3 | p. 205 |
The Structure of IF-2/eIF-5B | p. 207 |
The Structure of eIF-4E and eIF-4G | p. 207 |
The Structure of eIF-1 and eIF-1A | p. 209 |
Elongation | p. 210 |
The Structure of Elongation Factors EF-Tu and EF-G | p. 212 |
Movement of tRNAs During Translocation | p. 214 |
Movement of EF-G and Conformational Changes of the Ribosome During Translocation | p. 217 |
Interactions Between the 30S and 50S Subunits | p. 219 |
Interactions Between tRNA and rRNAs | p. 221 |
Interactions Between tRNA and 16S rRNA | p. 222 |
Interactions Between tRNA and 23S rRNA | p. 223 |
Interactions Between tRNA and 5S rRNA | p. 230 |
The Decoding Center of the Ribosome | p. 232 |
The Peptide Bond Center | p. 236 |
Termination of Protein Synthesis | p. 237 |
The Three-Dimensional Structure of Human eRF1 | p. 237 |
Mechanism of Stop Codon Recognition | p. 238 |
The Ribosome Recycling Factor | p. 239 |
Box: How Do Antibiotics Work? A Lesson from the 3-D Structure of the Ribosome | p. 239 |
11 The Birth and Death of Proteins | p. 241 |
The Signal Peptide and Its Recognition | p. 242 |
Structure and Function of the Signal Recognition Particle | p. 243 |
The Barrel of Birth... | p. 247 |
The 3-D Structure of DnaK and Hsp70 | p. 249 |
The 3-D Structure of DnaJ | p. 251 |
The 3-D Structure of GrpE | p. 251 |
The 3-D Structure of Prefoldin | p. 252 |
The 3-D Structure of GroEL and GroEs | p. 252 |
...And The Barrel of Death | p. 255 |
Further Reading and References | p. 259 |
Index | p. 271 |