The complex molecular machines responsible for genome replication encounter many obstacles during their progression along DNA. Tolerance of these obstructions is critical for efficient and timely genome duplication. In recent years, primase-polymerase (PrimPol) has emerged as a new player involved in maintaining eukaryotic replication fork progression. This versatile replicative enzyme, a member of the archaeo-eukaryotic primase (AEP) superfamily, has the capacity to perform a range of template-dependent and independent synthesis activities. Here, we discuss the emerging roles of PrimPol as a leading strand repriming enzyme and describe the mechanisms responsible for recruiting and regulating the enzyme during this process. This review prov...
To bypass a diverse range of fork stalling impediments encountered during genome replication, cells ...
Replication forks often stall at damaged DNA. To overcome these obstructions and complete the DNA du...
Translesion synthesis (TLS) employs specialized DNA polymerases to bypass replication fork stalling ...
The complex molecular machines responsible for genome replication encounter many obstacles during th...
The DNA-directed primase-polymerase PrimPol of the archaeo-eukaryotic primase superfamily represents...
DNA damage and secondary structures can stall the replication machinery. Cells possess numerous tole...
DNA damage can stall the DNA replication machinery, leading to genomic instability. Thus, numerous m...
DNA replication is one of life's fundamental processes. This delicate task is performed by a complex...
PrimPol is a recently identified polymerase involved in eukaryotic DNA damage tolerance, employed in...
PrimPol is a DNA damage tolerance enzyme possessing both translesion synthesis (TLS) and primase act...
G quadruplexes (G4s) can present potent blocks to DNA replication. Accurate and timely replication o...
PrimPol is the second primase discovered in eukaryotic cells, whose function is to restart the stall...
It has been known for decades that the principal replicative DNA polymerases that effect genome repl...
Eukaryotic Primase-Polymerase (PrimPol) is an enzyme that maintains efficient DNA duplication by rep...
Until relatively recently, DNA primases were viewed simply as a class of proteins that synthesize sh...
To bypass a diverse range of fork stalling impediments encountered during genome replication, cells ...
Replication forks often stall at damaged DNA. To overcome these obstructions and complete the DNA du...
Translesion synthesis (TLS) employs specialized DNA polymerases to bypass replication fork stalling ...
The complex molecular machines responsible for genome replication encounter many obstacles during th...
The DNA-directed primase-polymerase PrimPol of the archaeo-eukaryotic primase superfamily represents...
DNA damage and secondary structures can stall the replication machinery. Cells possess numerous tole...
DNA damage can stall the DNA replication machinery, leading to genomic instability. Thus, numerous m...
DNA replication is one of life's fundamental processes. This delicate task is performed by a complex...
PrimPol is a recently identified polymerase involved in eukaryotic DNA damage tolerance, employed in...
PrimPol is a DNA damage tolerance enzyme possessing both translesion synthesis (TLS) and primase act...
G quadruplexes (G4s) can present potent blocks to DNA replication. Accurate and timely replication o...
PrimPol is the second primase discovered in eukaryotic cells, whose function is to restart the stall...
It has been known for decades that the principal replicative DNA polymerases that effect genome repl...
Eukaryotic Primase-Polymerase (PrimPol) is an enzyme that maintains efficient DNA duplication by rep...
Until relatively recently, DNA primases were viewed simply as a class of proteins that synthesize sh...
To bypass a diverse range of fork stalling impediments encountered during genome replication, cells ...
Replication forks often stall at damaged DNA. To overcome these obstructions and complete the DNA du...
Translesion synthesis (TLS) employs specialized DNA polymerases to bypass replication fork stalling ...