Investigating protein degradability through site-specific ubiquitin ligase recruitment†

IF 3.1 Q2 BIOCHEMISTRY & MOLECULAR BIOLOGY RSC Chemical Biology Pub Date : 2024-12-13 DOI:10.1039/D4CB00273C
Olivia Shade, Amy Ryan, Gabriella Belsito and Alexander Deiters
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Abstract

We report targeted protein degradation through the site-specific recruitment of native ubiquitin ligases to a protein of interest via conjugation of E3 ligase ligands. Direct comparison of degradation ability of proteins displaying the corresponding bioconjugation handle at different regions of protein surfaces was explored. We demonstrate the benefit of proximal lysine residues and investigate flexibility in linker length for the design of optimal degraders. Two proteins without known small molecule ligands, EGFP and DUSP6, were differentially degraded when modified at different locations on their protein surfaces. Further, the cereblon-mediated degradation of the known PROTAC target ERRα was improved through the recruitment of the E3 ligase to regions different from the known ligand binding site. This new methodology will provide insight into overall protein degradability, even in the absence of a known small molecule ligand and inform the process of new ligand and PROTAC development to achieve optimal protein degradation. Furthermore, this approach represents a new, small molecule-based conditional OFF switch of protein function with complete genetic specificity. Importantly, the protein of interest is only modified with a minimal surface modification (<200 Da) and does not require any protein domain fusions.

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通过位点特异性泛素连接酶募集研究蛋白质降解性。
我们报道了通过E3连接酶配体偶联,靶向蛋白质降解,通过位点特异性招募天然泛素连接酶到感兴趣的蛋白质。探讨了在蛋白质表面不同区域显示相应生物偶联柄的蛋白质的降解能力的直接比较。我们证明了近端赖氨酸残基的好处,并研究了设计最佳降解剂的连接长度的灵活性。两种未知小分子配体的蛋白,EGFP和DUSP6,在其蛋白表面的不同位置进行修饰时,降解程度是不同的。此外,通过将E3连接酶募集到与已知配体结合位点不同的区域,小脑介导的已知PROTAC靶点ERRα的降解得到改善。这种新方法将提供对整体蛋白质降解性的洞察,即使在缺乏已知的小分子配体的情况下,并为新配体和PROTAC的开发过程提供信息,以实现最佳的蛋白质降解。此外,这种方法代表了一种新的、基于小分子的蛋白质功能条件关闭开关,具有完全的遗传特异性。重要的是,所研究的蛋白质只进行了最小的表面修饰(
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来源期刊
CiteScore
6.10
自引率
0.00%
发文量
128
审稿时长
10 weeks
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