绿茶儿茶素作为潜在的药物支架分子在多种蛋白质靶点结构研究中的应用

Kimberly Ann Stieglitz, Hortensia Gomes Leal, Jinbo Ge, Dong-Chan Yoo, M. Arya, Carlton Anthony Taft, Gemma R Topaz
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摘要

先前的研究提供了大量证据,证明儿茶素是一种多酚生物活性化合物,具有药用价值。这些多酚在绿茶中含量丰富,包括四种主要儿茶素的组合:(-)-表儿茶素(EC),(-)-表儿茶素-3-没食子酸酯(ECG),(-)-表没食子儿茶素(EGC)和(-)-表没食子儿茶素-3-没食子酸酯(EGCG)。虽然这四种儿茶素都具有药用价值,但文献中引用最多的儿茶素是EGCG,因此我们选择了这种儿茶素的衍生物进行研究。文献检索发现儿茶素是一种生物活性化合物,可以治疗多种疾病,包括癌症、代谢、神经和神经肌肉疾病。首先确定了与儿茶素衍生物对接的多种潜在蛋白质靶点(n=48)。然后根据Rutgers Consortium for Structural Biology (RCSB) protein Data Bank (PDB) (n=10)提供的这些靶标的3D蛋白坐标来选择靶标。用计算方法对三维蛋白靶点的表面进行评估,以确定EGCG儿茶素衍生物的潜在结合位点。利用目标蛋白结合位点与儿茶素衍生物进行静态和柔性对接,然后进行分子动力学(MD)。运行MD协议以确认在生理范围和环境中的结合。总之,计算方案的结果证实了几种儿茶素衍生物与MD对接的预测结合,一旦在实验室分析中得到验证,它们将被用作支架。讨论了这些支架分子可能发生的变化,这些变化可能导致更紧密、更特异性的结合。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Green Tea Catechins as Potential Drug Scaffolding Molecules in Structural Studies with Diverse Protein Targets
Previous studies provide substantial evidence that catechins, polyphenol bioactive compounds, exhibit medicinal benefits. These polyphenols are found in abundance in green teas, including a combination of the four major types of catechins: (-)-Epicatechin (EC), (-)-Epicatechin-3-gallate (ECG), (-)- Epigallocatechin (EGC), and (-)-Epigallocatechin-3-gallate (EGCG). Although all four exhibit medicinal benefits, the catechin cited in the literature the most is EGCG, so derivatives of this catechin were selected for these studies. Literature searches identified catechins as biologically active compounds for a diverse set of diseases ranging from cancer, metabolism, neurological, and neuromuscular ailments. A diverse set of potential protein targets for docking with catechin derivatives was first identified as a list (n=48). The targets were then selected based on the presence of 3D protein coordinates for these targets provided by the Rutgers Consortium for Structural Biology (RCSB) Protein Data Bank (PDB) (n=10). The surfaces of the 3D protein targets were evaluated with computational methods to identify potential binding sites for the EGCG catechin derivatives. Static and flexible docking was done using target protein binding sites performed with the catechin derivatives followed by molecular dynamics (MD). MD protocols were run to confirm binding in the physiological range and environment. In summary, the results of computational protocols confirmed predicted binding by docking with MD of several catechin derivatives to be used as scaffolds once validated in lab-based assays. Possible changes to these scaffolding molecules that could result in tighter, more specific binding is discussed.
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