Xiao Sian, Tian Hao, Tao Peng
Center for Research Computing, Center for Drug Discovery, Design and Delivery (CD4), Department of Chemistry, Southern Methodist University, Dallas, TX, United States.
Front Mol Biosci. 2022 Jul 11;9:879251. doi: 10.3389/fmolb.2022.879251. eCollection 2022.
Allostery is a fundamental process in regulating protein activities. The discovery, design, and development of allosteric drugs demand better identification of allosteric sites. Several computational methods have been developed previously to predict allosteric sites using static pocket features and protein dynamics. Here, we define a baseline model for allosteric site prediction and present a computational model using automated machine learning. Our model, PASSer2.0, advanced the previous results and performed well across multiple indicators with 82.7% of allosteric pockets appearing among the top three positions. The trained machine learning model has been integrated with the Protein Allosteric Sites Server (PASSer) to facilitate allosteric drug discovery.
别构效应是调节蛋白质活性的一个基本过程。变构药物的发现、设计和开发需要更好地识别变构位点。此前已经开发了几种计算方法,利用静态口袋特征和蛋白质动力学来预测变构位点。在这里,我们定义了一个变构位点预测的基线模型,并提出了一个使用自动化机器学习的计算模型。我们的模型PASSer2.0改进了先前的结果,在多个指标上表现良好,82.7%的变构口袋出现在前三位。经过训练的机器学习模型已与蛋白质变构位点服务器(PASSer)集成,以促进变构药物的发现。