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Engineered Cytochrome P450-Catalyzed Oxidative Biaryl Coupling Reaction Provides a Scalable Entry into Arylomycin Antibiotics

Carmela Molinaro, Yukie Kawasaki, George Wanyoike, Taiki Nishioka, Tsuyoshi Yamamoto, Brad Snedecor, Sarah J. Robinson, Francis Gosselin

2022Journal of the American Chemical Society48 citationsDOI

Abstract

We report herein the first example of a cytochrome P450-catalyzed oxidative carbon–carbon coupling process for a scalable entry into arylomycin antibiotic cores. Starting from wild-type hydroxylating cytochrome P450 enzymes and engineered Escherichia coli, a combination of enzyme engineering, random mutagenesis, and optimization of reaction conditions generated a P450 variant that affords the desired arylomycin core 2d in 84% assay yield. Furthermore, this process was demonstrated as a viable route for the production of the arylomycin antibiotic core on the gram scale. Finally, this new entry affords a viable, scalable, and practical route for the synthesis of novel Gram-negative antibiotics.

Topics & Concepts

ChemistryEscherichia coliYield (engineering)Cytochrome P450Combinatorial chemistryAntibioticsOxidative coupling of methaneCytochromeMutagenesisCatalysisEnzymeOxidative phosphorylationBiochemistryMutantGeneMetallurgyMaterials scienceMicrobial Natural Products and BiosynthesisCatalytic C–H Functionalization MethodsChemical synthesis and alkaloids
Engineered Cytochrome P450-Catalyzed Oxidative Biaryl Coupling Reaction Provides a Scalable Entry into Arylomycin Antibiotics | Litcius