作者
Fang Moore,Wei Wang,Guohua Zhao,James Mignone,Wei Meng,Ching-Hsuen Chu,Zhengping Ma,Anthony V. Azzara,Mary Jane Cullen,Mary Ann Pelleymounter,Katherine Appiah,Mary Ellen Cvijic,Elizabeth A. Dierks,Shu Chang,Kimberly Foster,Lisa M. Kopcho,K O'Malley,Yixin Li,Purnima Khandelwal,Jean M. Whaley,Arvind Mathur,Xiaoping Hou,Dauh‐Rurng Wu,Jeffrey A. Robl,Dongmei Cheng,Pratik Devasthale
摘要
Inhibition of monoacylglycerol transferase 2 (MGAT2) has recently emerged as a potential therapeutic strategy for the treatment of metabolic diseases such as obesity, diabetes and non-alcoholic steatohepatitis (NASH). Metabolism studies with our clinical lead (1) suggested variability in in vitro glucuronidation rates in liver microsomes across species, which made projection of human doses challenging. In addition, the observation of deconjugation of the C3-C4 double bond in the dihydropyridinone ring of 1 in solution had the potential to complicate its clinical development. This report describes our lead optimization efforts in a novel pyridinone series, exemplified by compound 33, which successfully addressed both of these potential issues.