环氧乙烷
组合化学
酰胺
化学
可扩展性
模块化设计
拉伤
计算机科学
有机化学
程序设计语言
生物
操作系统
解剖
作者
Péter Spránitz,Petra Sőregi,Kristóf Hegedüs,Barbara Igriczi,Gergely Szakács,Katalin Jemnitz,Pál Szabó,Yarema Galushchak,Pavel K. Mykhailiuk,Tibor Soós
出处
期刊:Angewandte Chemie
[Wiley]
日期:2024-07-11
卷期号:63 (42): e202410554-e202410554
被引量:6
标识
DOI:10.1002/anie.202410554
摘要
Abstract Amide bioisoterism is a widely used strategy in drug development to fine‐tune physicochemical, pharmacokinetic, and metabolic properties, eliminate toxicity and gain intellectual property rights in uncharted chemical space. Of these, oxetane‐amines offer particularly exciting possibilities as bioisosteres, although they are less frequently investigated than warranted due to the lack of simple and widely applicable synthetic methods. Herein, we report a two‐step, practical, modular, robust, and scalable method for the construction of oxetane‐containing amide bioisosteres that relies on the readily available oxetan‐3‐one. This operationally simple procedure exploits the enhanced reactivity of the keto group of the commercially available oxetan‐3‐one to form amine‐benzotriazole intermediates, which springloaded adducts are then reacted with various aliphatic and aromatic organometallic reagents under mild conditions to afford various amino‐oxetanes in good to high yields. The simplicity and broad applicability of the method greatly facilitates the synthesis of derivatives that were previously difficult or impossible to produce. The usefulness of this method in the field medicinal chemistry was also demonstrated by eliminating the well‐known metabolic problem of ketoconazole.
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