Cereblon modulators: Low molecular weight inducers of protein degradation

Q1 Pharmacology, Toxicology and Pharmaceutics Drug Discovery Today: Technologies Pub Date : 2019-04-01 DOI:10.1016/j.ddtec.2019.02.004
Philip P. Chamberlain, Brian E. Cathers
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引用次数: 58

Abstract

Targeted protein degradation has become an exciting new paradigm in drug discovery with the potential to target new protein families for therapeutic intervention. In 2010, Hiroshi Handa and colleagues discovered that the drug thalidomide binds to the protein cereblon, a component of the CRL4CRBN E3 ubiquitin ligase. In contrast to the heterobifunctional small molecule degraders reported in the literature, thalidomide is of very low molecular weight (∼258Da) with molecular properties (solubility, metabolic stability, permeability etc) that readily support pharmaceutical dosing. It was subsequently shown that thalidomide and the analogues lenalidomide and pomalidomide are able to degrade the transcription factors Ikaros and Aiolos. CK1α and GSPT1 were subsequently identified as substrates for specific ligands, indicating that this molecular class could be tuned for selective protein degradation. Structural studies showed that the thalidomide analogues bind to a shallow hydrophobic pocket on the surface of cereblon, and scaffold a protein-protein interaction with target proteins. Target proteins do not need any affinity for the cereblon modulators, and as such undruggable, or even unligandable, proteins can be targeted for degradation. A similar mechanism of action was subsequently identified for the clinical molecule indisulam, indicating that low molecular weight degraders are not unique to cereblon. The groundbreaking work on cereblon represents a case study for the discovery and characterization of low molecular weight protein degraders for other ligases.

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小脑调节剂:蛋白质降解的低分子量诱导剂
靶向蛋白降解已经成为药物发现的一个令人兴奋的新范式,有可能针对新的蛋白家族进行治疗干预。2010年,Hiroshi Handa和他的同事发现药物沙利度胺与小脑蛋白结合,小脑蛋白是CRL4CRBN E3泛素连接酶的一个组成部分。与文献中报道的异双功能小分子降解剂相比,沙利度胺的分子量非常低(~ 258Da),其分子特性(溶解度、代谢稳定性、渗透性等)很容易支持药物剂量。随后的研究表明,沙利度胺及其类似物来那度胺和泊马度胺能够降解转录因子Ikaros和Aiolos。CK1α和GSPT1随后被鉴定为特定配体的底物,表明该分子类可以被调整为选择性蛋白质降解。结构研究表明,沙利度胺类似物与小脑表面的浅疏水口袋结合,并支架与靶蛋白的蛋白质相互作用。靶蛋白不需要与小脑调节剂有任何亲和力,因此不可药物,甚至不可配体,蛋白质可以作为降解的靶标。类似的作用机制随后被确定为临床分子胰岛素,表明低分子量降解物并非小脑所独有。小脑的开创性工作代表了其他连接酶的低分子量蛋白质降解物的发现和表征的案例研究。
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来源期刊
Drug Discovery Today: Technologies
Drug Discovery Today: Technologies Pharmacology, Toxicology and Pharmaceutics-Drug Discovery
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期刊介绍: Discovery Today: Technologies compares different technological tools and techniques used from the discovery of new drug targets through to the launch of new medicines.
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