Type I restriction-modification (RM) systems are comprised of two multi-subunit enzymes, the methyltransferase (∼160 kDa), responsible for methylation of DNA, and the restriction endonuclease (∼400 kDa), responsible for DNA cleavage. Both enzymes share a number of subunits. An engineered RM system, EcoR124I(NT), based on the N-terminal domain of the specificity subunit of EcoR124I was constructed that recognises the symmetrical sequence GAAN(7)TTC and is active as a methyltransferase. Here, we investigate the restriction endonuclease activity of R. EcoR124I(NT)in vitro and the subunit assembly of the multi-subunit enzyme. Finally, using small-angle neutron scattering and selective deuteration, we present a low-resolution structural model of...
Type I DNA restriction/modification enzymes protect the bacterial cell from viral infection by cleav...
EcoR124I is a Type I restrictionmodification (RM) enzyme and as such forms multifunctional pentameri...
Although the DNA cleavage mechanism of Type I restriction–modification enzymes has been extens-ively...
Type I restriction-modification (RM) systems are comprised of two multi-subunit enzymes, the methylt...
<div><p>Type I restriction-modification (RM) systems are comprised of two multi-subunit enzymes, the...
Type I restriction-modification (RM) systems are comprised of two multi-subunit enzymes, the methylt...
SummaryThe Type I R–M system EcoR124I is encoded by three genes. HsdM is responsible for modificatio...
Type I DNA restriction/modification (RM) enzymes are molecular machines found in the majority of bac...
Type I restriction-modification (R-M) enzymes recognize specific sequences on foreign DNA invading t...
The EcoR124INT restriction-modification (R-M) system contains the genes HsdS3, HsdM and HsdR. S3 enc...
AbstractType I restriction-modification (R-M) systems encode multisubunit/multidomain enzymes. Two g...
AbstractType I restriction-modification (RM) systems are large, multifunctional enzymes composed of ...
The DNA specificity subunit (HsdS) of type I restriction-modification enzymes is composed of two ind...
Restriction endonucleases and modification methylases offer excellent systems for studying protein-D...
A closer inspection of the amino acid sequence of EcoP15I DNA methyltransferase revealed a region of...
Type I DNA restriction/modification enzymes protect the bacterial cell from viral infection by cleav...
EcoR124I is a Type I restrictionmodification (RM) enzyme and as such forms multifunctional pentameri...
Although the DNA cleavage mechanism of Type I restriction–modification enzymes has been extens-ively...
Type I restriction-modification (RM) systems are comprised of two multi-subunit enzymes, the methylt...
<div><p>Type I restriction-modification (RM) systems are comprised of two multi-subunit enzymes, the...
Type I restriction-modification (RM) systems are comprised of two multi-subunit enzymes, the methylt...
SummaryThe Type I R–M system EcoR124I is encoded by three genes. HsdM is responsible for modificatio...
Type I DNA restriction/modification (RM) enzymes are molecular machines found in the majority of bac...
Type I restriction-modification (R-M) enzymes recognize specific sequences on foreign DNA invading t...
The EcoR124INT restriction-modification (R-M) system contains the genes HsdS3, HsdM and HsdR. S3 enc...
AbstractType I restriction-modification (R-M) systems encode multisubunit/multidomain enzymes. Two g...
AbstractType I restriction-modification (RM) systems are large, multifunctional enzymes composed of ...
The DNA specificity subunit (HsdS) of type I restriction-modification enzymes is composed of two ind...
Restriction endonucleases and modification methylases offer excellent systems for studying protein-D...
A closer inspection of the amino acid sequence of EcoP15I DNA methyltransferase revealed a region of...
Type I DNA restriction/modification enzymes protect the bacterial cell from viral infection by cleav...
EcoR124I is a Type I restrictionmodification (RM) enzyme and as such forms multifunctional pentameri...
Although the DNA cleavage mechanism of Type I restriction–modification enzymes has been extens-ively...