化学
DNA连接酶
工具箱
泛素连接酶
组合化学
生物化学
计算生物学
基质(水族馆)
降级(电信)
药物发现
生化工程
酶
计算机科学
泛素
程序设计语言
生物
工程类
基因
电信
生态学
作者
Simon C. C. Lucas,Afshan Ahmed,Saba Ashraf,Argyrides Argyrou,Matthias R. Bauer,Gian Marco De Donatis,Sylvain Demanze,Frederik Eisele,Lucia Fusani,Andreas Hock,Ganesh Kadamur,Shuyou Li,Abigail L. Macmillan-Jones,Iacovos N. Michaelides,C. Phillips,Marie Rehnström,Magdalena Richter,Monica C. Rodrigo-Brenni,Fiona Shilliday,Peng Wang,Richard Storer
标识
DOI:10.1021/acs.jmedchem.3c02136
摘要
Unlocking novel E3 ligases for use in heterobifunctional PROTAC degraders is of high importance to the pharmaceutical industry. Over-reliance on the current suite of ligands used to recruit E3 ligases could limit the potential of their application. To address this, potent ligands for DCAF15 were optimized using cryo-EM supported, structure-based design to improve on micromolar starting points. A potent binder, compound 24, was identified and subsequently conjugated into PROTACs against multiple targets. Following attempts on degrading a number of proteins using DCAF15 recruiting PROTACs, only degradation of BRD4 was observed. Deconvolution of the mechanism of action showed that this degradation was not mediated by DCAF15, thereby highlighting both the challenges faced when trying to expand the toolbox of validated E3 ligase ligands for use in PROTAC degraders and the pitfalls of using BRD4 as a model substrate.
科研通智能强力驱动
Strongly Powered by AbleSci AI