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About the Editor and Contributors
 About the Editor and Contributors
About Cold Spring Harbor Laboratory Press
  
Table of Contents

Table of Contents
  
DNA Replication in Eukaryotic Cells

Chapters from the Previous Edition
  
Figures

Chapters 1–4
 Figure 1-1. Initiation of DNA replication.
 Figure 1-2. DNA relication forks.
 Figure 2-1. The replicon model.
 Figure 2-2. Functional elements in yeast replicators.
 Figure 2-3. Metazoan replication origins.
 Figure 2-4. Sequence features of metazoan replicators.
 Figure 3-1. Speculative model of pre-RC formation.
 Figure 4-1. Mechanism of helicase activation.
Chapters 5–7
 Figure 5-1. Eukaryotic DNA replication fork.
 Figure 5-2. Subunit interactions in DNA polymerases.
 Figure 5-3. Replicative DNA polymerase model.
 Figure 5-4. Replication stages of the lagging strand.
 Figure 5-5. Nick maintenance by idling or by nick translation.
 Figure 6-1. Conservation of the CAF-1 and HIR histone deposition complexes.
 Figure 6-2. Histone deposition during DNA replication.
 Figure 6-3. Known interaction partners of Asf1.
 Figure 7-1. Maintenance methylation of CpG sites.
Chapters 8–10
 Figure 8-1. Crystal structure of Tus-Ter complex of E. coli.
 Figure 8-2. Repeat units of yeast rDNA.
 Figure 8-3. Nucleotide sequences of Ter1 and Ter2 sites.
 Figure 8-4. 2D gel analyses of replication fork arrest.
 Figure 8-5. Loading of the RENT complex at the rDNA of yeast and of the FEAR pathway.
 Figure 8-6. Mating-type switching locus Mat1 of S. pombe.
 Figure 9-1. Replication foci.
 Figure 9-2. Dual telomere anchoring pathways in yeast.
 Figure 10-1. Regulation of origin initiation time in S. cerevisiae.
 Figure 10-2. Developmentally regulated replication initiation sites.
Chapters 11–14
 Figure 11-1. Changes in origin position related to transcriptional activity.
 Figure 12-1. Structure and protein binding at amplification origins.
 Figure 12-2. Cell biological assays for amplification in Drosophila.
 Figure 13-1. Genetic organization of the four genera of the Geminiviridae family.
 Figure 13-2. Initiation reaction and loading of cellular DNA replication factors.
 Figure 14-1. Sulfolobus origin architecture and recognition by Orc1/Cdc6 homologs.
 Figure 14-2. Mechanisms by which replicative helicases may function.
 Figure 14-3. Archaeal MCM organization.
 Figure 14-4. Uracil-binding pocket.
 Figure 14-5. Human PCNA bound to FEN1.
Chapters 15–17
 Figure 15-2. Chromosome replication cycle.
 Figure 15-3. CDK activity prevents pre-RC assembly.
 Figure 16-1. Regulation of ORC activity in mammal and fly.
 Figure 16-2. Regulation of ORC activity in X. laevis.
 Figure 16-3. Regulation of Cdc6 activity in metazoa.
 Figure 16-4. Regulation of Cdt1 and MCM activity in metazoa.
 Figure 16-5. Structure of a geminin:Cdt1 complex.
 Figure 17-1. Checkpoint pathways in budding and fission yeasts.
 Figure 17-2. Multiple potential configurations of stalled replication forks.
 Figure 17-3. Sister chromatid junctions that resemble hemicatenanes.
 Figure 17-4. Bypassing damage in the template strand.
Chapters 18–22
 Figure 18-1. The different checkpoints operating in S phase.
 Figure 18-2. Signal transduction pathways that regulate S phase.
 Figure 18-3. ATR signaling during S phase.
 Figure 20-1. Putative roles of DNA polymerases in DNA transactions.
 Figure 20-2. Structures of DNA polymerases in five families.
 Figure 21-1. The protein networks that ensure genomic stability on eukaryotic clamps.
 Figure 21-2. Four clamp–clamp loader pathways in eukaryotes.
 Figure 22-1. Active mechanisms of helicase unwinding.
 Figure 22-2. Functional motifs in XPB and XPD helicases.
 Figure 22-3. Alignment of RecQ family helicases.
Chapters 23–26
 Figure 23-1. Disease-associated unstable repeats.
 Figure 23-2. DNA metabolic processes and repeat instability.
 Figure 23-3. Replication and repeat instability.
 Figure 23-4. Replication-mediated TNR instability.
 Figure 23-5. trans-factors and repeat instability.
 Figure 25-3. Dual immunofluorescence staining for Ki67 and other cell cycle markers.
 Figure 26-1. Action of commonly used DNA replication inhibitors.
 Figure 26-2. Action of purine and pyrimidine biosynthesis inhibitors.
 Figure 26-3. Action of DNA polymerase inhibitors.
 Figure 26-4. DNA alkylation by MMS.
 Figure 26-5. DNA alkylating drugs.
 Figure 26-6. Topoisomerase inhibitors.
 Figure 26-7. Common inhibitors of Cdks and checkpoint inhibitors.
Chapters 27–30
 Figure 27-1. Two models of mtDNA replication.
 Figure 27-2. Mouse mtDNA replicative intermediate.
 Figure 27-3. A coherent mode of mtDNA replications.
 Figure 27-4. Aging phenotypes in mtDNA-mutator mice.
 Figure 28-3. Telomere replication and telomerase-mediated extension.
 Figure 29-1. Genome strategies across the Parvovirinae.
 Figure 29-2. Encapsidation strategy for MVM.
 Figure 30-1. Fates of HPV infections of the squamous epithelium.
 Figure 30-2. HPV/host interactions in differentiated keratinocytes.
 Figure 30-3. Clonal selection for an HPV-transformed cell.
 Figure 30-4. How E2 protein might destabilize host chromomes.
Chapters 31–36
 Figure 31-1. Tag structural domains.
 Figure 31-2. Tag interactions with host proteins.
 Figure 32-2. Adenovirus DNA replication.
 Figure 33-1. HSV-1 genome and origins of replication.
 Figure 33-2. UL9-dependent and UL-9-independent HSV DNA replication.
 Figure 34-1. B95-8 laboratory strain of EBV DNA of 165 kbp.
 Figure 34-2. oriP and EBNA1.
 Figure 34-3. oriLyt and its expanded core domain.
 Figure 36-1. The hepatitis B virus genome.
 Figure 36-2. Replication cycle of a hepadnavirus.
 Figure 36-3. Priming of minus-strand DNA.
 Figure 36-4. Priming of plus-strand DNA synthesis.
Appendices
 Figure 1A-1. Map symbols.
 Figure 1A-2. Examples of MIMs.
 Figure 1A-3. MIM of the signal transduction network that regulates the onset of DNA replication.
 Figure 1B-1. Origins of the components of the pre-RC.
  
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