Correlation Engine 2.0
Clear Search sequence regions


  • 2- oxoglutaric acid (23)
  • acid (4)
  • adduct (1)
  • amber (4)
  • amino acid (5)
  • ammonium (8)
  • appears (2)
  • Arg81 (1)
  • Asn (10)
  • AspH (2)
  • b 50 (1)
  • bacteria (3)
  • biocatalysis (1)
  • biosynthesis (2)
  • carbon (5)
  • cases (2)
  • catalysis (2)
  • cit (2)
  • cofactor (2)
  • cold (1)
  • collagen (1)
  • crystal (5)
  • diisopropylethylamine (3)
  • drug targets (1)
  • escherichia coli (1)
  • factor (1)
  • FIH (10)
  • fill (1)
  • flight (1)
  • flow (2)
  • fmoc- amino acid (3)
  • formic acid (4)
  • gas (2)
  • gas flow (2)
  • Gemini (2)
  • genes (1)
  • Gln (7)
  • glycerol (2)
  • growth factor (1)
  • help (1)
  • hepes (5)
  • His6 (1)
  • hplc (5)
  • human (12)
  • hydrogen (2)
  • hydrogen bond (10)
  • hydroxylases (6)
  • hypoxia (1)
  • inhibit (2)
  • interest (6)
  • isopenicillin n (1)
  • JMJD6 (3)
  • kanamycin (1)
  • laa (3)
  • lipid (1)
  • maldi ms (3)
  • mass (14)
  • methyl (2)
  • MINA53 (86)
  • MYC (1)
  • nan3 (1)
  • nitrogen (3)
  • NO66 (85)
  • nuclear antigen (1)
  • Nucleolar protein 66 (1)
  • OTUB1 (1)
  • oxygenases (10)
  • oxyma (1)
  • PDB (7)
  • peptides (43)
  • peptides c (1)
  • phase (1)
  • plasmids (1)
  • poor prognosis (1)
  • protocols (1)
  • reagent (2)
  • resin (2)
  • Rpl (23)
  • Rpl8 (73)
  • salmon (1)
  • sds page (1)
  • SETD3 (1)
  • signal (1)
  • sodium (1)
  • solutions (1)
  • solvent (10)
  • spps (4)
  • strain (1)
  • suggest (2)
  • sulphur (1)
  • too (1)
  • triazoles (1)
  • tris (2)
  • wheat (1)
  • Ycfd (3)
  • Sizes of these terms reflect their relevance to your search.

    Non-haem Fe(ii) and 2-oxoglutarate (2OG) dependent oxygenases catalyse oxidation of multiple proteins in organisms ranging from bacteria to humans. We describe studies on the substrate selectivity and inhibition of the human ribosomal oxygenases (ROX) MINA53 and NO66, members of the JmjC 2OG oxygenase subfamily, which catalyse C-3 hydroxylation of histidine residues in Rpl27a and Rpl8, respectively. Assays with natural and unnatural histidine analogues incorporated into Rpl peptides provide evidence that MINA53 and NO66 have narrow substrate selectivities compared to some other human JmjC hydroxylases, including factor inhibiting HIF and JMJD6. Notably, the results of inhibition assays with Rpl peptides containing histidine analogues with acyclic side chains, including Asn, Gln and homoGln, suggest the activities of MINA53/NO66, and by implication related 2OG dependent protein hydroxylases/demethylases, might be regulated in vivo by competition with non-oxidised proteins/peptides. The inhibition results also provide avenues for development of inhibitors selective for MINA53 and NO66. This journal is © The Royal Society of Chemistry.

    Citation

    Vildan A Türkmen, Jordi C J Hintzen, Anthony Tumber, Laust Moesgaard, Eidarus Salah, Jacob Kongsted, Christopher J Schofield, Jasmin Mecinović. Substrate selectivity and inhibition of histidine JmjC hydroxylases MINA53 and NO66. RSC chemical biology. 2023 Jan 12;4(3):235-243


    PMID: 36908702

    View Full Text