SummaryThe Type I R–M system EcoR124I is encoded by three genes. HsdM is responsible for modification (DNA methylation), HsdS for DNA sequence specificity and HsdR for restriction endonuclease activity. The trimeric methyltransferase (M2S) recognises the asymmetric sequence (GAAN6RTCG). An engineered R–M system, denoted EcoR124INT, has two copies of the N-terminal domain of the HsdS subunit of EcoR124I, instead of a single S subunit with two domains, and recognises the symmetrical sequence GAAN7TTC. We investigate the methyltransferase activity of EcoR124INT, characterise the enzyme and its subunits by analytical ultracentrifugation and obtain low-resolution structural models from small-angle neutron scattering experiments using contrast va...
The DNA specificity subunit (HsdS) of type I restriction-modification enzymes is composed of two ind...
The DNA methyltransferases represent an interesting class of enzymes for the study of protein-DNA in...
A closer inspection of the amino acid sequence of EcoP15I DNA methyltransferase revealed a region of...
SummaryThe Type I R–M system EcoR124I is encoded by three genes. HsdM is responsible for modificatio...
Type I restriction-modification (RM) systems are comprised of two multi-subunit enzymes, the methylt...
Type I restriction-modification (RM) systems are comprised of two multi-subunit enzymes, the methylt...
The EcoR124INT restriction-modification (R-M) system contains the genes HsdS3, HsdM and HsdR. S3 enc...
<div><p>Type I restriction-modification (RM) systems are comprised of two multi-subunit enzymes, the...
AbstractType I restriction-modification (RM) systems are large, multifunctional enzymes composed of ...
AbstractType I restriction-modification (R-M) systems encode multisubunit/multidomain enzymes. Two g...
Biophysics Laboratories The type IC methyltransferase M.EcoR124I consists of a specificity subunit (...
Type I restriction-modification (R-M) enzymes recognize specific sequences on foreign DNA invading t...
Type I DNA methyltransferases contain one specificity subunit (HsdS) and two modification subunits (...
Type I DNA restriction/modification (RM) enzymes are molecular machines found in the majority of bac...
EcoHK31I DNA methyltransferase recognizes the sequence 5′-YGGCCR- 3′ and adds a methyl group to the ...
The DNA specificity subunit (HsdS) of type I restriction-modification enzymes is composed of two ind...
The DNA methyltransferases represent an interesting class of enzymes for the study of protein-DNA in...
A closer inspection of the amino acid sequence of EcoP15I DNA methyltransferase revealed a region of...
SummaryThe Type I R–M system EcoR124I is encoded by three genes. HsdM is responsible for modificatio...
Type I restriction-modification (RM) systems are comprised of two multi-subunit enzymes, the methylt...
Type I restriction-modification (RM) systems are comprised of two multi-subunit enzymes, the methylt...
The EcoR124INT restriction-modification (R-M) system contains the genes HsdS3, HsdM and HsdR. S3 enc...
<div><p>Type I restriction-modification (RM) systems are comprised of two multi-subunit enzymes, the...
AbstractType I restriction-modification (RM) systems are large, multifunctional enzymes composed of ...
AbstractType I restriction-modification (R-M) systems encode multisubunit/multidomain enzymes. Two g...
Biophysics Laboratories The type IC methyltransferase M.EcoR124I consists of a specificity subunit (...
Type I restriction-modification (R-M) enzymes recognize specific sequences on foreign DNA invading t...
Type I DNA methyltransferases contain one specificity subunit (HsdS) and two modification subunits (...
Type I DNA restriction/modification (RM) enzymes are molecular machines found in the majority of bac...
EcoHK31I DNA methyltransferase recognizes the sequence 5′-YGGCCR- 3′ and adds a methyl group to the ...
The DNA specificity subunit (HsdS) of type I restriction-modification enzymes is composed of two ind...
The DNA methyltransferases represent an interesting class of enzymes for the study of protein-DNA in...
A closer inspection of the amino acid sequence of EcoP15I DNA methyltransferase revealed a region of...