Structure of the yeast clamp loader (Replication Factor C RFC) bound to the sliding clamp (Proliferating Cell Nuclear Antigen PCNA) in an autoinhibited conformation
This is the C-terminal domain of RFC (replication factor-C) protein of the clamp loader complex which binds to the DNA sliding clamp (proliferating cell nuclear antigen, PCNA). The five modules of RFC assemble into a right-handed spiral, which resul ...
This is the C-terminal domain of RFC (replication factor-C) protein of the clamp loader complex which binds to the DNA sliding clamp (proliferating cell nuclear antigen, PCNA). The five modules of RFC assemble into a right-handed spiral, which results in only three of the five RFC subunits (RFC-A, RFC-B and RFC-C) making contact with PCNA, leaving a wedge-shaped gap between RFC-E and the PCNA clamp-loader complex. The C-terminal is vital for the correct orientation of RFC-E with respect to RFC-A [1].
Sliding clamps are DNA-tracking platforms that are essential for processive DNA replication and it is carried out by a five-protein clamp loader complex, the replication factor-C (RFC) complex. RFC forms a stable ATP-dependent complex with the eukary ...
Sliding clamps are DNA-tracking platforms that are essential for processive DNA replication and it is carried out by a five-protein clamp loader complex, the replication factor-C (RFC) complex. RFC forms a stable ATP-dependent complex with the eukaryotic sliding clamp, PCNA, which binds specifically to primed DNA. These proteins share the same domain architecture consisting of a AAA+ ATPase, a lid domain and a C-terminal helical domain. This entry represents the AAA+ ATPase lid from RFC proteins, such as RFC5 from yeast [1].
DNA polymerase III, delta subunit (EC 2.7.7.7) is required for, along with delta' subunit, the assembly of the processivity factor beta(2) onto primed DNA in the DNA polymerase III holoenzyme-catalysed reaction [1]. The delta subunit is also known as ...
DNA polymerase III, delta subunit (EC 2.7.7.7) is required for, along with delta' subunit, the assembly of the processivity factor beta(2) onto primed DNA in the DNA polymerase III holoenzyme-catalysed reaction [1]. The delta subunit is also known as HolA.
This entry represents the C-terminal domain of Replication Factor C (RFC) subunit 3 and related proteins. RFC consists of five different AAA+ ATPase subunits and it functions as a structure-specific, DNA-dependent ATPase that is required for DNA repl ...
This entry represents the C-terminal domain of Replication Factor C (RFC) subunit 3 and related proteins. RFC consists of five different AAA+ ATPase subunits and it functions as a structure-specific, DNA-dependent ATPase that is required for DNA replication.
N-terminal and C-terminal domains of PCNA are topologically identical. Three PCNA molecules are tightly associated to form a closed ring encircling duplex DNA.
N-terminal and C-terminal domains of PCNA are topologically identical. Three PCNA molecules are tightly associated to form a closed ring encircling duplex DNA.
This is the C terminal domain of replication factor C, RFC1. RFC complexes hydrolyse ATP and load sliding clamps such as PCNA (proliferating cell nuclear antigen) onto double-stranded DNA. RFC1 is essential for RFC function in vivo [1][2].
This is the C-terminal domain of RFC (replication factor-C) protein of the clamp loader complex which binds to the DNA sliding clamp (proliferating cell nuclear antigen, PCNA). The five modules of RFC assemble into a right-handed spiral, which resul ...
This is the C-terminal domain of RFC (replication factor-C) protein of the clamp loader complex which binds to the DNA sliding clamp (proliferating cell nuclear antigen, PCNA). The five modules of RFC assemble into a right-handed spiral, which results in only three of the five RFC subunits (RFC-A, RFC-B and RFC-C) making contact with PCNA, leaving a wedge-shaped gap between RFC-E and the PCNA clamp-loader complex. The C-terminal is vital for the correct orientation of RFC-E with respect to RFC-A [1].
This is the C-terminal domain of RFC (replication factor-C) protein of the clamp loader complex which binds to the DNA sliding clamp (proliferating cell nuclear antigen, PCNA). The five modules of RFC assemble into a right-handed spiral, which resul ...
This is the C-terminal domain of RFC (replication factor-C) protein of the clamp loader complex which binds to the DNA sliding clamp (proliferating cell nuclear antigen, PCNA). The five modules of RFC assemble into a right-handed spiral, which results in only three of the five RFC subunits (RFC-A, RFC-B and RFC-C) making contact with PCNA, leaving a wedge-shaped gap between RFC-E and the PCNA clamp-loader complex. The C-terminal is vital for the correct orientation of RFC-E with respect to RFC-A [1].
Sliding clamps are DNA-tracking platforms that are essential for processive DNA replication and it is carried out by a five-protein clamp loader complex, the replication factor-C (RFC) complex. RFC forms a stable ATP-dependent complex with the eukary ...
Sliding clamps are DNA-tracking platforms that are essential for processive DNA replication and it is carried out by a five-protein clamp loader complex, the replication factor-C (RFC) complex. RFC forms a stable ATP-dependent complex with the eukaryotic sliding clamp, PCNA, which binds specifically to primed DNA. These proteins share the same domain architecture consisting of a AAA+ ATPase, a lid domain and a C-terminal helical domain. This entry represents the AAA+ ATPase lid from RFC proteins, such as RFC5 from yeast [1].