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Processivity
Processivity of DNA Polymerases: Two Mechanisms, One Goal Zvi Kelman1*, Jerard Hurwitz1 and Mike O’Donnell2
Synergy of Topoisomerase and Structural-Maintenance
Herpes Simplex Virus 1 Activates Cdc2 to Recruit Topoisomerase II for Post-DNA Synthesis Expression of Late Genes
Autonomous Replication of the Conjugative Transposon Tn916
Switch-Like Control of Helicase Processivity by Single-Stranded DNA
The Thioredoxin Binding Domain of Bacteriophage T7 DNA
A Specific Subdomain in 29 DNA Polymerase Confers Both
Single-Molecule Analysis Reveals That the Lagging Strand Increases Replisome Processivity but Slows Replication Fork Progression
A Conserved Helicase Processivity Factor Is Needed for Conjugation and Replication of an Integrative and Conjugative Element
Processivity in Early Stages of Transcription by T7 RNA Polymerase?
Only the Internal B Binding Site of the a Subunit Is Required for Processive Replication by the DNA Polymerase III Holoenzyme
Mechanism of Type IA Topoisomerases
Murine Leukemia Virus Reverse Transcriptase and Its Primer-Template (DNA Polymerase/Processivity/Dimerizalon/Retrovfrai Replicadon) ALICE TELESNITSKY and STEPHEN P
A Second Hybrid-Binding Domain Modulates the Activity of Drosophila Ribonuclease H1
Snapshot: the Replisome Nina Y
"Eukaryotic DNA Polymerases". In: Encyclopedia of Life Sciences (ELS)
Plant Organellar DNA Polymerases Evolved Multifunctionality Through the Acquisition of Novel Amino Acid Insertions
Insertion of the T3 DNA Polymerase Thioredoxin Binding Domain Enhances the Processivity and Fidelity of Taq DNA Polymerase
Top View
Hopping of a Processivity Factor on DNA Revealed by Single-Molecule Assays of Diffusion
DNA Sequence Context Controls the Binding and Processivity of the T7 DNA Primase
Amino Acid Residues Critical for the Interaction Between Bacteriophage T7 DNA Polymerase and Escherichia Coli Thioredoxin
Switch-Like Control of Helicase Processivity by Single-Stranded
Processivity, Velocity and Universal Characteristics of Nucleic Acid Unwinding by Helicases
DNA Polymerases That Propagate the Eukaryotic DNA Replication Fork
Stability of the Human Polymerase Δ Holoenzyme and Its Implications in Lagging Strand DNA Synthesis
DNA Binding Strength Increases the Processivity and Activity of a Y-Family DNA Polymerase Received: 22 November 2016 Jing Wu1,2, Alexandra De Paz3, Bradley M
Replisome Mechanics: Lagging Strand Events That Influence Speed And
CMG–Pol Epsilon Dynamics Suggests a Mechanism for the Establishment of Leading-Strand Synthesis in the Eukaryotic Replisome
Processivity of Ribozyme-Catalyzed RNA Polymerization† Michael S
Single-Molecule Assay Reveals Strand Switching and Enhanced Processivity of Uvrd
Velocity and Processivity of Helicase Unwinding of Double-Stranded Nucleic Acids
Error-Prone Replication of Repeated DNA Sequences by T7 DNA
REVIEWS Eukaryotic DNA Polymerases, a Growing Family
T4 Replication: What Does ''Processivity'' Really Mean?
The Mechanism of Action of T7 DNA Polymerase Sylvie Doublie* and Tom Ellenbergert
Polymerase Exchange on Single DNA Molecules Reveals Processivity Clamp Control of Translesion Synthesis
HIV-1 Ribonuclease H: Structure, Catalytic Mechanism and Inhibitors
Thermo Scientific Phusion DNA Polymerases
1 Kinetic Characterization of Human DNA Polymerase Ε Dissertation Presented in Partial Fulfillment of the Requirements For
Structure and Mechanism of the DNA Polymerase Processivity Clamp Loader D
Mapping DNA Topoisomerase Binding and Cleavage Genome Wide Using Next-Generation Sequencing Techniques