Molinaro Carmela, Kawasaki Yukie, Wanyoike George, Nishioka Taiki, Yamamoto Tsuyoshi, Snedecor Brad, Robinson Sarah J, Gosselin Francis
Department of Small Molecule Process Chemistry, Genentech Inc., 1 DNA Way, South San Francisco, California 94080, United States.
Applied Microbiotechnology Department, MicroBiopharm Japan Co. Ltd., 156 Nakagawara, Kiyosu, Aichi 452-0915, Japan.
J Am Chem Soc. 2022 Aug 17;144(32):14838-14845. doi: 10.1021/jacs.2c06019. Epub 2022 Jul 29.
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 , a combination of enzyme engineering, random mutagenesis, and optimization of reaction conditions generated a P450 variant that affords the desired arylomycin core 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.
我们在此报告细胞色素P450催化的氧化碳-碳偶联过程的首个实例,该过程可用于以可扩展的方式合成芳霉素抗生素核心。从野生型羟基化细胞色素P450酶出发并进行工程改造,通过酶工程、随机诱变和反应条件优化相结合,产生了一种P450变体,该变体以84%的分析产率提供所需的芳霉素核心。此外,该过程被证明是一种可行的路线,可用于克级规模生产芳霉素抗生素核心。最后,这种新方法为合成新型革兰氏阴性抗生素提供了一条可行、可扩展且实用的路线。