DNA mismatch repair protein MutS (protein), MutS, Escherichia coli
Function / homology
Function and homology information
adenine/cytosine mispair binding / MutS complex / mismatch repair complex / regulation of DNA recombination / mismatched DNA binding / DNA binding, bending / ATP-dependent DNA damage sensor activity / mismatch repair / ADP binding / damaged DNA binding ...adenine/cytosine mispair binding / MutS complex / mismatch repair complex / regulation of DNA recombination / mismatched DNA binding / DNA binding, bending / ATP-dependent DNA damage sensor activity / mismatch repair / ADP binding / damaged DNA binding / DNA damage response / ATP hydrolysis activity / ATP binding / identical protein binding / cytosol Similarity search - Function
DNA mismatch repair protein MutS / DNA mismatch repair protein MutS/MSH / DNA mismatch repair protein MutS-like, N-terminal / DNA mismatch repair protein MutS, connector domain / DNA mismatch repair protein MutS, clamp / DNA mismatch repair protein MutS, N-terminal / MutS, connector domain superfamily / MutS domain I / MutS domain II / MutS family domain IV ...DNA mismatch repair protein MutS / DNA mismatch repair protein MutS/MSH / DNA mismatch repair protein MutS-like, N-terminal / DNA mismatch repair protein MutS, connector domain / DNA mismatch repair protein MutS, clamp / DNA mismatch repair protein MutS, N-terminal / MutS, connector domain superfamily / MutS domain I / MutS domain II / MutS family domain IV / MutS domain III / DNA mismatch repair MutS family / DNA mismatch repair protein MutS, C-terminal / DNA mismatch repair protein MutS, core / DNA mismatch repair protein MutS, core domain superfamily / MutS domain V / DNA mismatch repair proteins mutS family signature. / DNA-binding domain of DNA mismatch repair MUTS family / ATPase domain of DNA mismatch repair MUTS family / P-loop containing nucleoside triphosphate hydrolase Similarity search - Domain/homology
Journal: Nucleic Acids Res / Year: 2013 Title: Using stable MutS dimers and tetramers to quantitatively analyze DNA mismatch recognition and sliding clamp formation. Authors: Flora S Groothuizen / Alexander Fish / Maxim V Petoukhov / Annet Reumer / Laura Manelyte / Herrie H K Winterwerp / Martin G Marinus / Joyce H G Lebbink / Dmitri I Svergun / Peter Friedhoff / Titia K Sixma / Abstract: The process of DNA mismatch repair is initiated when MutS recognizes mismatched DNA bases and starts the repair cascade. The Escherichia coli MutS protein exists in an equilibrium between dimers and ...The process of DNA mismatch repair is initiated when MutS recognizes mismatched DNA bases and starts the repair cascade. The Escherichia coli MutS protein exists in an equilibrium between dimers and tetramers, which has compromised biophysical analysis. To uncouple these states, we have generated stable dimers and tetramers, respectively. These proteins allowed kinetic analysis of DNA recognition and structural analysis of the full-length protein by X-ray crystallography and small angle X-ray scattering. Our structural data reveal that the tetramerization domains are flexible with respect to the body of the protein, resulting in mostly extended structures. Tetrameric MutS has a slow dissociation from DNA, which can be due to occasional bending over and binding DNA in its two binding sites. In contrast, the dimer dissociation is faster, primarily dependent on a combination of the type of mismatch and the flanking sequence. In the presence of ATP, we could distinguish two kinetic groups: DNA sequences where MutS forms sliding clamps and those where sliding clamps are not formed efficiently. Interestingly, this inability to undergo a conformational change rather than mismatch affinity is correlated with mismatch repair.
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