초록
<P>Biocatalytic transformations employed by chemists are often restricted to simple functional group interconversions. In contrast, Nature has developed complexity-generating biocatalytic reactions within natural product pathways. These sophisticated catalysts are rarely employed by chemists as the substrate scope, selectivity and robustness of these catalysts are unknown. Our strategy to bridge the gap between the biosynthesis and synthetic chemistry communities leverages the diversity of catalysts available within natural product pathways. Starting from a suite of biosynthetic enzymes, catalysts with complementary substrate scope as well as selectivity can be identified. This strategy has been applied to the oxidative dearomatization of phenols, a chemical transformation that rapidly builds molecular complexity from simple starting materials and cannot be accomplished with high site- and enantioselectivity using existing catalytic methods. Using enzymes from biosynthetic pathways, we have successfully developed a method to produce <I>ortho</I>-quinol products with controlled site- and stereoselectivity. Further, we have capitalized on the scalability and robustness of this method in gram-scale reactions as well as multi-enzyme and chemoenzymatic cascades.</P>