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NAOMInext - Synthetically feasible fragment growing in a structure-based design context

机译:Naominext - 基于结构的设计背景下生长的合成可行的片段

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摘要

Since decades de novo design of small molecules is intensively used and fragment-based drug discovery (FBDD) approaches still gain in popularity. Recent publications considering synthetically feasible de novo drug design underline the ongoing need for new methods. Continuous development of algorithms and tools are made, where a combination of intuitive usage, acceptable runtime, and a thoroughly evaluated workflow on large scale data sets is still a curiosity. Here, we present an intuitive approach for constrained synthetically feasible fragment growing. Starting from a fragment within its crystallized structure building blocks are attached via covalent bond formation to build up larger ligands. Iteratively, conformations are generated inside the binding site and scored to find the best suitable one. To cope with the combinatorial explosion of large flexible building blocks a novel dynamic adaptation algorithm is introduced. The technique achieves low runtimes while keeping high accuracies. The developed workflow is evaluated on a large-scale data set of 264 co-crystallized fragments with their corresponding elaborated ligands. Using our approach for fragment-based ligand growing, we were able to generate putative ligands within an RMSD of less than 2 angstrom compared to its crystallized structure. Additionally, we were able to show the benefit of a monolithic tethered docking like methodology compared to state of the art docking. We incorporated our method, NAOMInext, in a clearly arranged graphical user interface that assists the user by defining valuable constraints to improve and accelerate the sampling workflow. In combination with predefined synthetic reaction rules NAOMInext efficiently suggests ideas for the next generation of novel lead compounds. (C) 2018 Elsevier Masson SAS. All rights reserved.
机译:自从数十年以来,小分子设计是强烈的使用,并且基于碎片的药物发现(FBDD)方法仍然受到普及。最近的出版物考虑综合可行的De Novo Desim Design强调了新方法的持续需求。制作算法和工具的持续发展,其中直观使用,可接受的运行时和大规模数据集上的彻底评估工作流程仍然是一种好奇心。在这里,我们提出了一种直观的综合可行片段生长的方法。从其结晶的结构构建块内的片段开始通过共价键形成连接,以构建较大的配体。迭代地,在结合位点内产生构象,并批量获得最佳合适的。为了应对大型柔性构建的组合爆炸,介绍了一种新型动态适应算法。该技术在保持高精度的同时实现低的堆积时间。开发的工作流程在大规模数据集的264个共结晶片段中评估,其具有相应的阐述配体。使用我们对片段基配体生长的方法,与其结晶结构相比,我们能够在少于2埃的RMSD的RMSD内产生推定配体。此外,与技术对接的状态相比,我们能够展示单片系列对接的益处。我们在一个明确排列的图形用户界面中注册了我们的方法,它通过定义有价值的约束来帮助用户来改进和加速采样工作流程。结合预定义的合成反应规则Naominext有效地表明了下一代新型铅化合物的思想。 (c)2018年Elsevier Masson SAS。版权所有。

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