AbstractOnly recently has it been established that a tripeptide in the bacterial release factors (RFs), RF1 and RF2, is responsible for the stop codon recognition. This functional mimic of the anticodon of tRNA is referred to as a tripeptide ‘anticodon’ or a tripeptide discriminator. Here we review the experimental background and process leading to this discovery, and strengthen functional evidence for the tripeptide determinant for deciphering stop codons in mRNAs in prokaryotes
The structures of the ribosome and its subunits are now available at atomic detail, as well as those...
The termination of protein synthesis occurs through the specific recognition of a stop codon in the ...
Accurate translation termination by release factors (RFs) is critical for the integrity of cellular ...
AbstractOnly recently has it been established that a tripeptide in the bacterial release factors (RF...
Termination of protein synthesis is triggered by the recognition of a stop codon at the ribosomal A ...
Stop codon recognition is a crucial event during translation termination and is performed by class I...
Translation termination in bacteria involves precise reading of stop codons (UAA, UAG, UGA) and coor...
The termination of protein synthesis is encoded by in-frame nonsense (stop) codons. Most organisms u...
Stop codon recognition is a crucial event during translation termination and is performed by class I...
AbstractWe propose that the amino acid residues 57/58 and 60/61 of eukaryotic release factors (eRF1s...
Translation of genetic information encoded in messenger RNAs into polypeptide sequences is carried o...
AbstractAlthough the eukaryotic (eRF1) and prokaryotic (RF2) polypeptide release (translation termin...
Pseudouridylation of messenger RNA emerges as an abundant modification involved in gene expression r...
In contrast to bacteria that have two release factors, RF1 and RF2, eukaryotes only possess one unre...
SummaryDuring protein synthesis, translational release factors catalyze the release of the polypepti...
The structures of the ribosome and its subunits are now available at atomic detail, as well as those...
The termination of protein synthesis occurs through the specific recognition of a stop codon in the ...
Accurate translation termination by release factors (RFs) is critical for the integrity of cellular ...
AbstractOnly recently has it been established that a tripeptide in the bacterial release factors (RF...
Termination of protein synthesis is triggered by the recognition of a stop codon at the ribosomal A ...
Stop codon recognition is a crucial event during translation termination and is performed by class I...
Translation termination in bacteria involves precise reading of stop codons (UAA, UAG, UGA) and coor...
The termination of protein synthesis is encoded by in-frame nonsense (stop) codons. Most organisms u...
Stop codon recognition is a crucial event during translation termination and is performed by class I...
AbstractWe propose that the amino acid residues 57/58 and 60/61 of eukaryotic release factors (eRF1s...
Translation of genetic information encoded in messenger RNAs into polypeptide sequences is carried o...
AbstractAlthough the eukaryotic (eRF1) and prokaryotic (RF2) polypeptide release (translation termin...
Pseudouridylation of messenger RNA emerges as an abundant modification involved in gene expression r...
In contrast to bacteria that have two release factors, RF1 and RF2, eukaryotes only possess one unre...
SummaryDuring protein synthesis, translational release factors catalyze the release of the polypepti...
The structures of the ribosome and its subunits are now available at atomic detail, as well as those...
The termination of protein synthesis occurs through the specific recognition of a stop codon in the ...
Accurate translation termination by release factors (RFs) is critical for the integrity of cellular ...