Decoding of genetic information into polypeptides occurs during translation, generally following the codon assignment rules of the organism’s genetic code. However, recoding signals in certain mRNAs can overwrite the normal rules of translation. An exquisite example of this occurs during translation of selenoprotein mRNAs, wherein UGA codons are reassigned to encode for the 21st proteogenic amino acid, selenocysteine. In this review, we will examine what is known about the mechanisms of UGA recoding and discuss the fate of ribosomes that fail to incorporate selenocysteine
Strict one-to-one correspondence between codons and amino acids is thought to be an essential featur...
The genetic code is said to be redundant in that the same amino acid residue can be encoded by multi...
Re-coding of UGA codons as selenocysteine (Sec) codons in selenoproteins depends on a selenocysteine...
Abstract Gene-specific expansion of the genetic code allows for UGA codons to specify the amino acid...
AbstractSelenocysteine and pyrrolysine, known as the 21st and 22nd amino acids, are directly inserte...
Selenocysteine (Sec or U) is encoded by UGA, a stop codon reassigned by a Sec-specific elongation fa...
Selenocysteine (Sec) is inserted into proteins by recoding a UGA stop codon followed by a selenocyst...
Selenocysteine (Sec) is inserted into proteins by re-coding a UGA stop codon followed by a selenocys...
Genetic code decoding, initially considered to be universal and immutable, is now known to be flexib...
Standard decoding of the genetic information into polypeptides is performed by one of the most sophi...
Elongation factors Tu (EF-Tu) and SelB are translational GTPases that deliver aminoacyl-tRNAs (aa-tR...
In all domains of life, selenocysteine (Sec) is delivered to the ribosome by selenocysteine-specific...
In all domains of life, selenocysteine (Sec) is delivered to the ribosome by selenocysteine-specific...
The elongation of eukaryotic selenoproteins relies on a poorly understood process of interpreting in...
Selenoprotein S (SelS) is a 189 amino acid trans-membrane protein that plays an important yet undefi...
Strict one-to-one correspondence between codons and amino acids is thought to be an essential featur...
The genetic code is said to be redundant in that the same amino acid residue can be encoded by multi...
Re-coding of UGA codons as selenocysteine (Sec) codons in selenoproteins depends on a selenocysteine...
Abstract Gene-specific expansion of the genetic code allows for UGA codons to specify the amino acid...
AbstractSelenocysteine and pyrrolysine, known as the 21st and 22nd amino acids, are directly inserte...
Selenocysteine (Sec or U) is encoded by UGA, a stop codon reassigned by a Sec-specific elongation fa...
Selenocysteine (Sec) is inserted into proteins by recoding a UGA stop codon followed by a selenocyst...
Selenocysteine (Sec) is inserted into proteins by re-coding a UGA stop codon followed by a selenocys...
Genetic code decoding, initially considered to be universal and immutable, is now known to be flexib...
Standard decoding of the genetic information into polypeptides is performed by one of the most sophi...
Elongation factors Tu (EF-Tu) and SelB are translational GTPases that deliver aminoacyl-tRNAs (aa-tR...
In all domains of life, selenocysteine (Sec) is delivered to the ribosome by selenocysteine-specific...
In all domains of life, selenocysteine (Sec) is delivered to the ribosome by selenocysteine-specific...
The elongation of eukaryotic selenoproteins relies on a poorly understood process of interpreting in...
Selenoprotein S (SelS) is a 189 amino acid trans-membrane protein that plays an important yet undefi...
Strict one-to-one correspondence between codons and amino acids is thought to be an essential featur...
The genetic code is said to be redundant in that the same amino acid residue can be encoded by multi...
Re-coding of UGA codons as selenocysteine (Sec) codons in selenoproteins depends on a selenocysteine...