AbstractThe process of chromosome duplication faces many obstacles. One way to circumvent blocks is to hop over them by placing a new clamp on a downstream primer. This resembles lagging strand synthesis, where the tight grip of polymerase to the clamp and DNA must be overcome upon completing each Okazaki fragment so it can transfer to new primed sites. This review focuses on recent single-molecule studies showing that Escherichia coli Pol III can hop from one clamp to another without leaving the replication fork. This capability provides a means to circumvent obstacles like transcription or DNA lesions without fork collapse
AbstractThis study reports a primase-to-polymerase switch in E. coli that closely links primase acti...
SummaryThe structure of the E. coli β clamp polymerase processivity factor has been solved in comple...
AbstractReplication machines use ring-shaped clamps that encircle DNA to tether the polymerase to th...
AbstractThe process of chromosome duplication faces many obstacles. One way to circumvent blocks is ...
During DNA replication, repetitive synthesis of discrete Okazaki fragments requires mechanisms that ...
During DNA replication, repetitive synthesis of discrete Okazaki fragments requires mechanisms that ...
The replisome is a multiprotein machine that carries out DNA replication. In Escherichia coli, a sin...
During DNA replication, repetitive synthesis of discrete Okazaki fragments requires mechanisms that ...
During DNA replication, repetitive synthesis of discrete Okazaki fragments requires mechanisms that ...
During DNA replication, repetitive synthesis of discrete Okazaki fragments requires mechanisms that ...
During DNA replication, repetitive synthesis of discrete Okazaki fragments requires mechanisms that ...
The E. coli chromosome is replicated by a dimeric DNA polymerase III holoenzyme (Pol III HE) in a re...
Translesion synthesis (TLS) by Y-family DNA polymerases alleviates replication stalling at DNA damag...
AbstractDNA polymerases require tethering to an accessory factor, typically a ring-shaped clamp, to ...
AbstractThe E. coli replicase, DNA polymerase III holoenzyme, contains two polymerases for replicati...
AbstractThis study reports a primase-to-polymerase switch in E. coli that closely links primase acti...
SummaryThe structure of the E. coli β clamp polymerase processivity factor has been solved in comple...
AbstractReplication machines use ring-shaped clamps that encircle DNA to tether the polymerase to th...
AbstractThe process of chromosome duplication faces many obstacles. One way to circumvent blocks is ...
During DNA replication, repetitive synthesis of discrete Okazaki fragments requires mechanisms that ...
During DNA replication, repetitive synthesis of discrete Okazaki fragments requires mechanisms that ...
The replisome is a multiprotein machine that carries out DNA replication. In Escherichia coli, a sin...
During DNA replication, repetitive synthesis of discrete Okazaki fragments requires mechanisms that ...
During DNA replication, repetitive synthesis of discrete Okazaki fragments requires mechanisms that ...
During DNA replication, repetitive synthesis of discrete Okazaki fragments requires mechanisms that ...
During DNA replication, repetitive synthesis of discrete Okazaki fragments requires mechanisms that ...
The E. coli chromosome is replicated by a dimeric DNA polymerase III holoenzyme (Pol III HE) in a re...
Translesion synthesis (TLS) by Y-family DNA polymerases alleviates replication stalling at DNA damag...
AbstractDNA polymerases require tethering to an accessory factor, typically a ring-shaped clamp, to ...
AbstractThe E. coli replicase, DNA polymerase III holoenzyme, contains two polymerases for replicati...
AbstractThis study reports a primase-to-polymerase switch in E. coli that closely links primase acti...
SummaryThe structure of the E. coli β clamp polymerase processivity factor has been solved in comple...
AbstractReplication machines use ring-shaped clamps that encircle DNA to tether the polymerase to th...