Selection of Potential Ligands for TRPM8 Using Deep Neural Networks and Intermolecular Docking by the "AUTODOCK" Software

P. D. Timkin, A. Chupalov, E. Timofeev, E. Borodin
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引用次数: 1

Abstract

The article describes a strategy of ligands prediction for TRPM8, where a deep neural network is used to screen out ligands and reduce the list of candidate ligands, the remaining ones are checked via AutoDock software. Subsequent analysis of the minimum binding energy between the receptor site and the putative ligands, as well as possible reactive conformations. The docking control sites were: Y745 (tyrosine 745), a critical site for TRPM8. We also analyzed the intermolecular docking of TRPM8 with its sites of manifestation of the biological effect: R1008 (phenylalanine 1008) and L1009 (alanine 1009). About 10 potential ligands were predicted, which were further verified by the "AUTODOCK" method. Intermolecular docking, carried out using the AUTODOCK program, was carried out in coordinates for each of the sites set in the closest position to the docking point. The program identified the potential for successful interactions for eight out of ten predicted candidates for each of the sites. Two of the predicted ligands do not have the ability to successfully interact with TRPM8, the rest showed a high minimum binding energy and the number of reactive conformations compared to the classical ligand, menthol. In this work, we used the method of in silico selection of ligands using deep neural network, with further verification by the AUTODOCK program. This method will speed up the search for potential medicinal substances in the future.
基于深度神经网络和AUTODOCK软件的TRPM8潜在配体选择
本文描述了一种TRPM8配体预测策略,其中使用深度神经网络筛选配体并减少候选配体列表,剩余的配体通过AutoDock软件进行检查。随后分析受体位点和假定配体之间的最小结合能,以及可能的反应构象。对接控制位点为:Y745(酪氨酸745),这是TRPM8的关键位点。我们还分析了TRPM8与其生物效应表现位点R1008(苯丙氨酸1008)和L1009(丙氨酸1009)的分子间对接。预测了大约10个潜在配体,并通过AUTODOCK方法进一步验证。使用AUTODOCK程序进行分子间对接,并对设置在离对接点最近位置的每个位点进行坐标。该程序确定了每个站点10个预测候选者中有8个成功互动的潜力。其中两个预测的配体不具备与TRPM8成功相互作用的能力,其余的与经典配体薄荷醇相比,显示出较高的最小结合能和反应构象的数量。在这项工作中,我们使用了使用深度神经网络的硅片选择配体的方法,并通过AUTODOCK程序进一步验证。该方法将加快未来对潜在药用物质的寻找。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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