SummaryRelease factor 3 (RF3) is a GTPase found in a broad range of bacteria where it is thought to play a critical “recycling” role in translation by facilitating the removal of class 1 release factors (RF1 and RF2) from the ribosome following peptide release. More recently, RF3 was shown in vitro to stimulate a retrospective editing reaction on the bacterial ribosome wherein peptides carrying mistakes are prematurely terminated during protein synthesis. Here, we examine the role of RF3 in the bacterial cell and show that the deletion of this gene sensitizes cells to other perturbations that reduce the overall fidelity of protein synthesis. We further document substantial effects on mRNA stability and protein expression using reporter syst...
Protein synthesis in bacteria is terminated by release factors 1 or 2 (RF1/2), which, on recognition...
AbstractRapid protein synthesis in bacteria requires the G proteins IF2, EF-Tu, EF-G, and RF3. These...
Accurate translation termination by release factors (RFs) is critical for the integrity of cellular ...
Release factors RF1 and RF2 promote hydrolysis of peptidyl-tRNA during translation termination. The ...
AbstractThe mechanism by which peptide release factor RF3 recycles RF1 and RF2 has been clarified an...
SummaryDuring translation termination, class II release factor RF3 binds to the ribosome to promote ...
Protein synthesis in bacteria is terminated by release factors 1 or 2 (RF1/2), which, on recognition...
In bacteria, release of newly synthesized proteins from ribosomes during translation termination is ...
AbstractThe bacterial translation factor RF3 promotes translation termination by recycling the tRNA-...
The aim of this work was to understand the molecular mechanism of translation and the mechanism of t...
Translation termination in bacteria involves precise reading of stop codons (UAA, UAG, UGA) and coor...
AbstractThe bacterial translational GTPases release factor RF3 promotes translation termination by r...
Terminating protein translation accurately and efficiently is critical for both protein fidelity and...
Protein homeostasis of bacterial cells is maintained by coordinated processes of protein production,...
During translation termination in bacteria, the release factors RF1 and RF2 are recycled from the ri...
Protein synthesis in bacteria is terminated by release factors 1 or 2 (RF1/2), which, on recognition...
AbstractRapid protein synthesis in bacteria requires the G proteins IF2, EF-Tu, EF-G, and RF3. These...
Accurate translation termination by release factors (RFs) is critical for the integrity of cellular ...
Release factors RF1 and RF2 promote hydrolysis of peptidyl-tRNA during translation termination. The ...
AbstractThe mechanism by which peptide release factor RF3 recycles RF1 and RF2 has been clarified an...
SummaryDuring translation termination, class II release factor RF3 binds to the ribosome to promote ...
Protein synthesis in bacteria is terminated by release factors 1 or 2 (RF1/2), which, on recognition...
In bacteria, release of newly synthesized proteins from ribosomes during translation termination is ...
AbstractThe bacterial translation factor RF3 promotes translation termination by recycling the tRNA-...
The aim of this work was to understand the molecular mechanism of translation and the mechanism of t...
Translation termination in bacteria involves precise reading of stop codons (UAA, UAG, UGA) and coor...
AbstractThe bacterial translational GTPases release factor RF3 promotes translation termination by r...
Terminating protein translation accurately and efficiently is critical for both protein fidelity and...
Protein homeostasis of bacterial cells is maintained by coordinated processes of protein production,...
During translation termination in bacteria, the release factors RF1 and RF2 are recycled from the ri...
Protein synthesis in bacteria is terminated by release factors 1 or 2 (RF1/2), which, on recognition...
AbstractRapid protein synthesis in bacteria requires the G proteins IF2, EF-Tu, EF-G, and RF3. These...
Accurate translation termination by release factors (RFs) is critical for the integrity of cellular ...