Javascript must be enabled to continue!
Plant DNA Polymerases
View through CrossRef
Maintenance of genome integrity is a key process in all organisms. DNA polymerases (Pols) are central players in this process as they are in charge of the faithful reproduction of the genetic information, as well as of DNA repair. Interestingly, all eukaryotes possess a large repertoire of polymerases. Three protein complexes, DNA Pol α, δ, and ε, are in charge of nuclear DNA replication. These enzymes have the fidelity and processivity required to replicate long DNA sequences, but DNA lesions can block their progression. Consequently, eukaryotic genomes also encode a variable number of specialized polymerases (between five and 16 depending on the organism) that are involved in the replication of damaged DNA, DNA repair, and organellar DNA replication. This diversity of enzymes likely stems from their ability to bypass specific types of lesions. In the past 10–15 years, our knowledge regarding plant DNA polymerases dramatically increased. In this review, we discuss these recent findings and compare acquired knowledge in plants to data obtained in other eukaryotes. We also discuss the emerging links between genome and epigenome replication.
Title: Plant DNA Polymerases
Description:
Maintenance of genome integrity is a key process in all organisms.
DNA polymerases (Pols) are central players in this process as they are in charge of the faithful reproduction of the genetic information, as well as of DNA repair.
Interestingly, all eukaryotes possess a large repertoire of polymerases.
Three protein complexes, DNA Pol α, δ, and ε, are in charge of nuclear DNA replication.
These enzymes have the fidelity and processivity required to replicate long DNA sequences, but DNA lesions can block their progression.
Consequently, eukaryotic genomes also encode a variable number of specialized polymerases (between five and 16 depending on the organism) that are involved in the replication of damaged DNA, DNA repair, and organellar DNA replication.
This diversity of enzymes likely stems from their ability to bypass specific types of lesions.
In the past 10–15 years, our knowledge regarding plant DNA polymerases dramatically increased.
In this review, we discuss these recent findings and compare acquired knowledge in plants to data obtained in other eukaryotes.
We also discuss the emerging links between genome and epigenome replication.
Related Results
Expression of Specialized Error-Prone DNA Polymerases in Chronic Lymphocytic Leukemia (CLL).
Expression of Specialized Error-Prone DNA Polymerases in Chronic Lymphocytic Leukemia (CLL).
Abstract
Specialized DNA polymerases are low fidelity enzymes required to bypass DNA lesions that are also involved in somatic hypermutation. Deregulation of these e...
Genome wide hypomethylation and youth-associated DNA gap reduction promoting DNA damage and senescence-associated pathogenesis
Genome wide hypomethylation and youth-associated DNA gap reduction promoting DNA damage and senescence-associated pathogenesis
Abstract
Background: Age-associated epigenetic alteration is the underlying cause of DNA damage in aging cells. Two types of youth-associated DNA-protection epigenetic mark...
Genome wide hypomethylation and youth-associated DNA gap reduction promoting DNA damage and senescence-associated pathogenesis
Genome wide hypomethylation and youth-associated DNA gap reduction promoting DNA damage and senescence-associated pathogenesis
Introduction: The United States currently faces two opioid crises, an evolved crisis currently manifesting as widespread abuse of illicit opioids, and a crisis in pain management l...
Engineering chimeric DNA polymerases for DNA movable type storage
Engineering chimeric DNA polymerases for DNA movable type storage
Abstract
DNA-based information storage offers a promising alternative to conventional media due to its high density, long-term stability, and low...
(Invited) Single-Molecule Electronics for DNA Sequencing
(Invited) Single-Molecule Electronics for DNA Sequencing
Nanoscale materials provide new opportunities to interface solid-state electronics with biomolecules and biochemical activity. For example, single-walled carbon nanotubes (SWNTs) h...
Echinococcus granulosus in Environmental Samples: A Cross-Sectional Molecular Study
Echinococcus granulosus in Environmental Samples: A Cross-Sectional Molecular Study
Abstract
Introduction
Echinococcosis, caused by tapeworms of the Echinococcus genus, remains a significant zoonotic disease globally. The disease is particularly prevalent in areas...
Ubiquitin-dependent regulation of translesion polymerases
Ubiquitin-dependent regulation of translesion polymerases
In response to DNA damage, TLS (translesion synthesis) allows replicative bypass of various DNA lesions, which stall normal replication. TLS is achieved by low-fidelity polymerases...
Protein Assemblies in Translesion Synthesis
Protein Assemblies in Translesion Synthesis
Translesion synthesis (TLS) is a mechanism of DNA damage tolerance utilized by eukaryotic cells to replicate DNA across lesions that impede the high-fidelity replication machinery....

