Long Marcus J C, Ly Phillippe, Aye Yimon
University of Lausanne 1015 Lausanne Switzerland.
Swiss Federal Institute of Technology in Lausanne (EPFL) 1015 Lausanne Switzerland
RSC Med Chem. 2021 Oct 26;12(11):1797-1807. doi: 10.1039/d1md00157d. eCollection 2021 Nov 17.
Of the manifold concepts in drug discovery and design, covalent drugs have re-emerged as one of the most promising over the past 20-or so years. All such drugs harness the ability of a covalent bond to drive an interaction between a target biomolecule, typically a protein, and a small molecule. Formation of a covalent bond necessarily prolongs target engagement, opening avenues to targeting shallower binding sites, protein complexes, and other difficult to drug manifolds, amongst other virtues. This opinion piece discusses frameworks around which to develop covalent drugs. Our argument, based on results from our research program on natural electrophile signaling, is that targeting specific residues innately involved in native signaling programs are ideally poised to be targeted by covalent drugs. We outline ways to identify electrophile-sensing residues, and discuss how studying ramifications of innate signaling by endogenous molecules can provide a means to predict drug mechanism and function and assess on- off-target behaviors.
在药物发现与设计的众多概念中,共价药物在过去约20年里再度成为最具前景的药物类型之一。所有这类药物都利用共价键的能力来驱动目标生物分子(通常是蛋白质)与小分子之间的相互作用。共价键的形成必然会延长靶点结合时间,为靶向较浅的结合位点、蛋白质复合物以及其他难以成药的靶点类型等开辟了途径,还有其他诸多优点。这篇观点文章讨论了开发共价药物的相关框架。基于我们关于天然亲电信号的研究项目结果,我们认为靶向天然信号程序中固有参与的特定残基最适合被共价药物靶向。我们概述了识别亲电感应残基的方法,并讨论了研究内源性分子固有信号的影响如何能够提供一种预测药物机制和功能以及评估脱靶行为的手段。