Type I restriction enzymes bind to a specific DNA sequence and subsequently translocate DNA past the complex to reach a non-specific cleavage site. We have examined several potential blocks to DNA translocation, such as positive supercoiling or a Holliday junction, for their ability to trigger DNA cleavage by type I restriction enzymes. Introduction of positive supercoiling into plasmid DNA did not have a significant effect on the rate of DNA cleavage by EcoAI endonuclease nor on the enzyme’s ability to select cleavage sites randomly throughout the DNA molecule. Thus, positive supercoiling does not prevent DNA translocation. EcoR124II endonuclease cleaved DNA at Holliday junctions present on both linear and negatively supercoiled substrates...
Many genetic processes require enzymes or enzyme complexes that interact simultaneously with distant...
The diversity of reaction mechanisms employed by Type II restriction enzymes was investigated by ana...
Type I restriction-modification enzymes are multifunctional heteromeric complexes with DNA cleavage ...
Type I restriction enzymes bind to a specific DNA sequence and subsequently translocate DNA past the...
Type III restriction enzymes have been demonstrated to require two unmethylated asymmetric recogniti...
Although the DNA cleavage mechanism of Type I restriction-modification enzymes has been extensively ...
AbstractMost restriction endonucleases bridge two target sites before cleaving DNA: examples include...
EcoP15I is a type III restriction enzyme that requires two recognition sites in a defined orientatio...
Many types of restriction enzymes cleave DNA away from their recognition site. Using the type III re...
Many types of restriction enzymes cleave DNA away from their recognition site. Using the type III re...
During conditions of cell stress, the type I restriction and modification enzymes of bacteria show r...
PLoS ONE. Volume 10, Issue 6, 3 June 2015, Article number e0128700.Type I restriction-modification ...
Type I DNA restriction/modification (RM) enzymes are molecular machines found in the majority of bac...
DNA serves as a target molecule for several types of enzymes and may assume a wide variety of struct...
Many genetic processes require enzymes or enzyme complexes that interact simultaneously with distant...
The diversity of reaction mechanisms employed by Type II restriction enzymes was investigated by ana...
Type I restriction-modification enzymes are multifunctional heteromeric complexes with DNA cleavage ...
Type I restriction enzymes bind to a specific DNA sequence and subsequently translocate DNA past the...
Type III restriction enzymes have been demonstrated to require two unmethylated asymmetric recogniti...
Although the DNA cleavage mechanism of Type I restriction-modification enzymes has been extensively ...
AbstractMost restriction endonucleases bridge two target sites before cleaving DNA: examples include...
EcoP15I is a type III restriction enzyme that requires two recognition sites in a defined orientatio...
Many types of restriction enzymes cleave DNA away from their recognition site. Using the type III re...
Many types of restriction enzymes cleave DNA away from their recognition site. Using the type III re...
During conditions of cell stress, the type I restriction and modification enzymes of bacteria show r...
PLoS ONE. Volume 10, Issue 6, 3 June 2015, Article number e0128700.Type I restriction-modification ...
Type I DNA restriction/modification (RM) enzymes are molecular machines found in the majority of bac...
DNA serves as a target molecule for several types of enzymes and may assume a wide variety of struct...
Many genetic processes require enzymes or enzyme complexes that interact simultaneously with distant...
The diversity of reaction mechanisms employed by Type II restriction enzymes was investigated by ana...
Type I restriction-modification enzymes are multifunctional heteromeric complexes with DNA cleavage ...