Institute of Chemistry, The Hebrew University of Jerusalem Jerusalem, Israel.
Front Chem. 2014 Mar 24;2:9. doi: 10.3389/fchem.2014.00009. eCollection 2014.
Many disease-related proteins are in equilibrium between different oligomeric forms. The regulation of this equilibrium plays a central role in maintaining the activity of these proteins in vitro and in vivo. Modulation of the oligomerization equilibrium of proteins by molecules that bind preferentially to a specific oligomeric state is emerging as a potential therapeutic strategy that can be applied to many biological systems such as cancer and viral infections. The target proteins for such compounds are diverse in structure and sequence, and may require different approaches for shifting their oligomerization equilibrium. The discovery of such oligomerization-modulating compounds is thus achieved based on existing structural knowledge about the specific target proteins, as well as on their interactions with partner proteins or with ligands. In silico design and combinatorial tools such as peptide arrays and phage display are also used for discovering compounds that modulate protein oligomerization. The current review highlights some of the recent developments in the design of compounds aimed at modulating the oligomerization equilibrium of proteins, including the "shiftides" approach developed in our lab.
许多与疾病相关的蛋白质在不同的寡聚形式之间处于平衡状态。这种平衡的调节在维持这些蛋白质在体外和体内的活性方面起着核心作用。通过优先结合特定寡聚状态的分子来调节蛋白质的寡聚平衡,正成为一种潜在的治疗策略,可以应用于许多生物系统,如癌症和病毒感染。这类化合物的靶蛋白在结构和序列上多种多样,可能需要不同的方法来改变它们的寡聚平衡。因此,这些寡聚调节剂化合物的发现是基于对特定靶蛋白的现有结构知识,以及它们与伴侣蛋白或配体的相互作用。基于结构的设计和组合工具,如肽阵列和噬菌体展示,也被用于发现调节蛋白质寡聚化的化合物。本文综述了一些旨在调节蛋白质寡聚平衡的化合物设计的最新进展,包括我们实验室开发的“shiftides”方法。