
Deamination of adenosine in RNA to form inosine has wide ranging consequences on RNA function including amino acid substitution to give proteins not encoded in the genome. What determines which adenosines in an mRNA are subject to this modification reaction? The answer lies in an understanding of the mechanism and substrate recognition properties of adenosine deaminases that act on RNA (ADARs). Our recent publication of X‐ray crystal structures of the human ADAR2 deaminase domain bound to RNA editing substrates shed considerable light on how the catalytic domains of these enzymes bind RNA and promote adenosine deamination. Here we review in detail the deaminase domain‐RNA contact surfaces and present models of how full length ADARs, bearing double stranded RNA‐binding domains (dsRBDs) and deaminase domains, could process naturally occurring substrate RNAs.
Models, Molecular, 570, RNA editing, Adenosine Deaminase, Protein Conformation, 1.1 Normal biological development and functioning, Medical and Health Sciences, Substrate Specificity, epitranscriptome, Models, Catalytic Domain, Genetics, Humans, recoding, Psychology and Cognitive Sciences, Molecular, RNA-Binding Proteins, Biological Sciences, 540, ADAR, Biological sciences, RNA, Biochemistry and Cell Biology, Generic health relevance, RNA Editing, Developmental Biology
Models, Molecular, 570, RNA editing, Adenosine Deaminase, Protein Conformation, 1.1 Normal biological development and functioning, Medical and Health Sciences, Substrate Specificity, epitranscriptome, Models, Catalytic Domain, Genetics, Humans, recoding, Psychology and Cognitive Sciences, Molecular, RNA-Binding Proteins, Biological Sciences, 540, ADAR, Biological sciences, RNA, Biochemistry and Cell Biology, Generic health relevance, RNA Editing, Developmental Biology
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