片段(逻辑)
化学
水准点(测量)
试验装置
连接器
独特性
基本事实
流量(数学)
自回归模型
集合(抽象数据类型)
计算机科学
算法
组合化学
生物系统
人工智能
数学
计量经济学
数学分析
操作系统
生物
程序设计语言
地理
大地测量学
几何学
作者
Jieyu Jin,Dong Wang,Guqin Shi,Jingxiao Bao,Jike Wang,Qian Zhang,Peichen Pan,Dan Li,Xiaojun Yao,Huanxiang Liu,Tingjun Hou,Yu Kang
标识
DOI:10.1021/acs.jmedchem.3c01009
摘要
Recently, deep generative models have been regarded as promising tools in fragment-based drug design (FBDD). Despite the growing interest in these models, they still face challenges in generating molecules with desired properties in low data regimes. In this study, we propose a novel flow-based autoregressive model named FFLOM for linker and R-group design. In a large-scale benchmark evaluation on ZINC, CASF, and PDBbind test sets, FFLOM achieves state-of-the-art performance in terms of validity, uniqueness, novelty, and recovery of the generated molecules and can recover over 92% of the original molecules in the PDBbind test set (with at least five atoms). FFLOM also exhibits excellent potential applicability in several practical scenarios encompassing fragment linking, PROTAC design, R-group growing, and R-group optimization. In all four cases, FFLOM can perfectly reconstruct the ground-truth compounds and generate over 74% of molecules with novel fragments, some of which have higher binding affinity than the ground truth.
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