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Methods and Applications of In Silico Aptamer Design and Modeling

机译:在硅Aptamer设计和建模中的方法和应用

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摘要

Aptamers are nucleic acid analogues of antibodies with high affinity to different targets, such as cells, viruses, proteins, inorganic materials, and coenzymes. Empirical approaches allow the design of in vitro aptamers that bind particularly to a target molecule with high affinity and selectivity. Theoretical methods allow significant expansion of the possibilities of aptamer design. In this study, we review theoretical and joint theoretical-experimental studies dedicated to aptamer design and modeling. We consider aptamers with different targets, such as proteins, antibiotics, organophosphates, nucleobases, amino acids, and drugs. During nucleic acid modeling and in silico design, a full set of in silico methods can be applied, such as docking, molecular dynamics (MD), and statistical analysis. The typical modeling workflow starts with structure prediction. Then, docking of target and aptamer is performed. Next, MD simulations are performed, which allows for an evaluation of the stability of aptamer/ligand complexes and determination of the binding energies with higher accuracy. Then, aptamer/ligand interactions are analyzed, and mutations of studied aptamers made. Subsequently, the whole procedure of molecular modeling can be reiterated. Thus, the interactions between aptamers and their ligands are complex and difficult to understand using only experimental approaches. Docking and MD are irreplaceable when aptamers are studied in silico.
机译:适体是对不同靶标具有高亲和力的抗体的核酸类似物,例如细胞,病毒,蛋白质,无机材料和辅酶。经验方法允许在具有高亲和力和选择性的靶分子中结合的体外适体的设计。理论方法允许显着扩展适体设计的可能性。在这项研究中,我们审查了专用于适体设计和建模的理论和联合理论实验研究。我们认为具有不同靶标的适体,例如蛋白质,抗生素,有机磷,核碱基,氨基酸和药物。在核酸建模和硅设计期间,可以应用全套的硅方法,例如对接,分子动力学(MD)和统计分析。典型的建模工作流程以结构预测开始。然后,执行对接目标和适体的对接。接下来,进行MD仿真,其允许评估适体/配体复合物的稳定性,并以更高的精度测定结合能量。然后,分析适体/配体相互作用,并制备的研究适体的突变。随后,可以重复分子建模的整个过程。因此,适体与其配体之间的相互作用是复杂的,并且难以仅使用实验方法来理解。在硅中研究适体时,对接和MD是不可替代的。

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