柯蒂斯重排
危险废物
比例(比率)
连续流动
流动化学
叠氮化物
工艺工程
计算机科学
制造工程
化学
工程类
有机化学
废物管理
生化工程
量子力学
物理
作者
Carl J. Mallia,Niall G. McCreanor,Daniel H. Legg,Craig R. Stewart,Sarah Coppock,Ian W. Ashworth,J. Le Bars,Adam Clarke,Graeme Clemens,Heidi Fisk,Helen Benson,Samantha Oke,Trevor Churchill,Mark Hoyle,Lee E. Timms,Kevin Vare,Martin Sims,Steven D. Knight
标识
DOI:10.1021/acs.oprd.2c00316
摘要
Flow chemistry has been more frequently used in the development and manufacture of pharmaceuticals due to the progression of equipment and the availability of manufacturing facilities. This important tool for manufacture enables chemistries which were previously inefficient, hazardous, or not viable on scale in batch. Described herein is how continuous flow has been used to overcome issues with respect to the handling of hazardous materials in batch. The manufacturing step described is a Curtius reaction using diphenylphosphoryl azide (DPPA) as the azide precursor in the formation of a purinone at high temperatures with inline infrared monitoring.
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