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Machine-OlF-Action: A unified framework for developing and interpreting machine-learning models for chemosensory research
Bioinformatics ( IF 5.8 ) Pub Date : 2021-01-08 , DOI: 10.1093/bioinformatics/btaa1104
Anku Gupta 1 , Mohit Choudhary 1 , Sanjay Kumar Mohanty 2 , Aayushi Mittal 2 , Krishan Gupta 1 , Aditya Arya 3 , Suvendu Kumar 2 , Nikhil Katyayan 2 , Nilesh Kumar Dixit 2 , Siddhant Kalra 2 , Manshi Goel 1 , Megha Sahni 1 , Vrinda Singhal 2 , Tripti Mishra 3 , Debarka Sengupta 1, 2, 4, 5 , Gaurav Ahuja 2
Affiliation  

Machine Learning-based techniques are emerging as state-of-the-art methods in chemoinformatics to selectively, effectively, and speedily identify biologically-relevant molecules from large databases. So far, a multitude of such techniques have been proposed, but unfortunately due to their sparse availability, and the dependency on high-end computational literacy, their wider adaptation faces challenges, at least in the context of G-Protein Coupled Receptors (GPCRs)-associated chemosensory research. Here we report Machine-OlF-Action (MOA), a user-friendly, open-source computational framework, that utilizes user-supplied SMILES (simplified molecular-input line-entry system) of the chemicals, along with their activation status, to synthesize classification models. MOA integrates a number of popular chemical databases collectively harboring ∼103 million chemical moieties. MOA also facilitates customized screening of user-supplied chemical datasets. A key feature of MOA is its ability to embed molecules based on the similarity of their local neighborhood, by utilizing a state of the art model interpretability framework LIME. We demonstrate the utility of MOA in identifying previously unreported agonists for human and mouse olfactory receptors OR1A1 and MOR174-9 by leveraging the chemical features of their known agonists and non-agonists. In summary, here we develop an ML-powered software playground for performing supervisory learning tasks involving chemical compounds.

中文翻译:

Machine-OlF-Action:用于开发和解释用于化学感应研究的机器学习模型的统一框架

基于机器学习的技术正在成为化学信息学中最先进的方法,可以选择性、有效且快速地从大型数据库中识别生物学相关分子。到目前为止,已经提出了许多这样的技术,但不幸的是,由于它们的可用性稀少,以及对高端计算素养的依赖,它们更广泛的适应性面临挑战,至少在 G 蛋白偶联受体 (GPCR) 的背景下是这样。 -相关的化学感应研究。这里我们报告Machine-OlF-Action(MOA),一个用户友好的开源计算框架,它利用用户提供的化学品的 SMILES(简化的分子输入行输入系统)及其激活状态来合成分类模型。MOA 整合了许多流行的化学数据库,共同拥有约 1.03 亿个化学部分。MOA 还有助于对用户提供的化学数据集进行自定义筛选。MOA 的一个关键特征是它能够通过利用最先进的模型可解释性框架 LIME,根据分子的局部邻域的相似性嵌入分子。我们通过利用 MOA 已知激动剂和非激动剂的化学特征,证明了 MOA 在识别以前未报道的人类和小鼠嗅觉受体 OR1A1 和 MOR174-9 激动剂方面的效用。总之,
更新日期:2021-01-08
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