DeepDrug:一个通用的基于图的深度学习框架,用于药物-药物相互作用和药物-靶标相互作用预测

IF 0.6 4区 生物学 Q4 MATHEMATICAL & COMPUTATIONAL BIOLOGY
Qijin Yin, Rui Fan, Xusheng Cao, Qiao Liu, Rui Jiang, Wanwen Zeng
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引用次数: 6

摘要

ddi和dti预测的计算方法对于加速药物发现过程至关重要。我们提出了一种新的深度学习方法DeepDrug,在一个统一的框架内解决这两个问题。DeepDrug能够提取药物和靶蛋白的综合特征,因此在一系列实验中显示出优越的预测性能。下游应用表明,DeepDrug在促进药物重新定位和发现针对特定疾病的潜在药物方面非常有用。生物化学研究人员非常需要精确预测药物相互作用的计算方法,如药物-药物相互作用(ddi)和药物-靶标相互作用(DTIs)。尽管已经提出和开发了许多方法来分别预测ddi和dti,但由于缺乏对相应化学结构中嵌入的内在性质的系统评估,它们的成功仍然受到限制。在本文中,我们开发了DeepDrug,这是一个深度学习框架,通过使用残差图卷积网络(Res - GCNs)和卷积网络(cnn)来学习基于结构和序列的药物和蛋白质的综合表示来克服上述限制。结果在一系列系统实验中,DeepDrug优于最先进的方法,包括二元类ddi、多类别/多标签ddi、二元类DTIs分类和DTIs回归任务。此外,我们可视化了DeepDrug Res - GCN模块学习到的结构特征,显示了化学性质和药物类别的兼容和一致的模式,为支持DeepDrug的强大预测能力提供了额外的证据。最终,我们应用DeepDrug对整个DrugBank数据库进行药物重新定位,以发现针对SARS - CoV - 2的潜在候选药物,其中10种排名最高的药物中有7种被重新定位,可能用于治疗2019年冠状病毒病(COVID - 19)。综上所述,我们认为DeepDrug是准确预测ddi和dti的有效工具,并为了解这些生化关系的潜在机制提供了有希望的见解。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
DeepDrug: A general graph-based deep learning framework for drug-drug interactions and drug-target interactions prediction
Computational methods for DDIs and DTIs prediction are essential for accelerating the drug discovery process. We proposed a novel deep learning method DeepDrug, to tackle these two problems within a unified framework. DeepDrug is capable of extracting comprehensive features of both drug and target protein, thus demonstrating a superior prediction performance in a series of experiments. The downstream applications show that DeepDrug is useful in facilitating drug repositioning and discovering the potential drug against specific disease. Background Computational approaches for accurate prediction of drug interactions, such as drug‐drug interactions (DDIs) and drug‐target interactions (DTIs), are highly demanded for biochemical researchers. Despite the fact that many methods have been proposed and developed to predict DDIs and DTIs respectively, their success is still limited due to a lack of systematic evaluation of the intrinsic properties embedded in the corresponding chemical structure. Methods In this paper, we develop DeepDrug, a deep learning framework for overcoming the above limitation by using residual graph convolutional networks (Res‐GCNs) and convolutional networks (CNNs) to learn the comprehensive structure‐ and sequence‐based representations of drugs and proteins. Results DeepDrug outperforms state‐of‐the‐art methods in a series of systematic experiments, including binary‐class DDIs, multi‐class/multi‐label DDIs, binary‐class DTIs classification and DTIs regression tasks. Furthermore, we visualize the structural features learned by DeepDrug Res‐GCN module, which displays compatible and accordant patterns in chemical properties and drug categories, providing additional evidence to support the strong predictive power of DeepDrug. Ultimately, we apply DeepDrug to perform drug repositioning on the whole DrugBank database to discover the potential drug candidates against SARS‐CoV‐2, where 7 out of 10 top‐ranked drugs are reported to be repurposed to potentially treat coronavirus disease 2019 (COVID‐19). Conclusions To sum up, we believe that DeepDrug is an efficient tool in accurate prediction of DDIs and DTIs and provides a promising insight in understanding the underlying mechanism of these biochemical relations.
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来源期刊
Quantitative Biology
Quantitative Biology MATHEMATICAL & COMPUTATIONAL BIOLOGY-
CiteScore
5.00
自引率
3.20%
发文量
264
期刊介绍: Quantitative Biology is an interdisciplinary journal that focuses on original research that uses quantitative approaches and technologies to analyze and integrate biological systems, construct and model engineered life systems, and gain a deeper understanding of the life sciences. It aims to provide a platform for not only the analysis but also the integration and construction of biological systems. It is a quarterly journal seeking to provide an inter- and multi-disciplinary forum for a broad blend of peer-reviewed academic papers in order to promote rapid communication and exchange between scientists in the East and the West. The content of Quantitative Biology will mainly focus on the two broad and related areas: ·bioinformatics and computational biology, which focuses on dealing with information technologies and computational methodologies that can efficiently and accurately manipulate –omics data and transform molecular information into biological knowledge. ·systems and synthetic biology, which focuses on complex interactions in biological systems and the emergent functional properties, and on the design and construction of new biological functions and systems. Its goal is to reflect the significant advances made in quantitatively investigating and modeling both natural and engineered life systems at the molecular and higher levels. The journal particularly encourages original papers that link novel theory with cutting-edge experiments, especially in the newly emerging and multi-disciplinary areas of research. The journal also welcomes high-quality reviews and perspective articles.
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