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EC Number Substrates Commentary Substrates Organism Products Commentary (Products) Reversibility
Display the word mapDisplay the reaction diagram Show all sequences 3.5.4.378-azaadenine in double-stranded RNA + H2O 8-aza substitution at adenosine in various RNA substrates accelerates the rate of deamination at these sites by ADAR2 (2.8-17-fold). The magnitude of this effect depends on the RNA structural context of the reacting nucleotide Homo sapiens 8-azahypoxanthine in double-stranded RNA + NH3 - ?
Display the word mapDisplay the reaction diagram Show all sequences 3.5.4.37adenine in double-stranded RNA + H2O - Drosophila melanogaster hypoxanthine in double-stranded RNA + NH3 - ?
Display the word mapDisplay the reaction diagram Show all sequences 3.5.4.37adenine in double-stranded RNA + H2O - Mus musculus hypoxanthine in double-stranded RNA + NH3 - ?
Display the word mapDisplay the reaction diagram Show all sequences 3.5.4.37adenine in double-stranded RNA + H2O - Homo sapiens hypoxanthine in double-stranded RNA + NH3 - ?
Display the word mapDisplay the reaction diagram Show all sequences 3.5.4.37adenine in double-stranded RNA + H2O - Rattus norvegicus hypoxanthine in double-stranded RNA + NH3 - ?
Display the word mapDisplay the reaction diagram Show all sequences 3.5.4.37adenine in double-stranded RNA + H2O - Bos taurus hypoxanthine in double-stranded RNA + NH3 - ?
Display the word mapDisplay the reaction diagram Show all sequences 3.5.4.37adenine in double-stranded RNA + H2O - Xenopus laevis hypoxanthine in double-stranded RNA + NH3 - ?
Display the word mapDisplay the reaction diagram Show all sequences 3.5.4.37adenine in double-stranded RNA + H2O - Caenorhabditis elegans hypoxanthine in double-stranded RNA + NH3 - ?
Display the word mapDisplay the reaction diagram Show all sequences 3.5.4.37adenine in double-stranded RNA + H2O - Equus caballus hypoxanthine in double-stranded RNA + NH3 - ?
Display the word mapDisplay the reaction diagram Show all sequences 3.5.4.37adenine in double-stranded RNA + H2O A-to-I editing is a form of nucleotide substitution editing, because I is decoded as guanosine instead of A by ribosomes during translation and by polymerases during RNA-dependent RNA replication. Additionally, A-to-I editing can alter RNA structure stability as I:U mismatches are less stable than A:U base pairs. Both viral and cellular RNAs are edited by ADARs. A-to-I editing is of broad physiologic significance. Among the outcomes of A-to-I editing are biochemical changes that affect how viruses interact with their hosts, changes that can lead to either enhanced or reduced virus growth and persistence depending upon the specific virus Homo sapiens hypoxanthine in double-stranded RNA + NH3 - ?
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