DeepCCI: End-to-end Deep Learning for Chemical-Chemical Interaction Prediction
April 27, 2017 ยท Declared Dead ยท ๐ ACM International Conference on Bioinformatics, Computational Biology and Biomedicine
"No code URL or promise found in abstract"
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Authors
Sunyoung Kwon, Sungroh Yoon
arXiv ID
1704.08432
Category
cs.LG: Machine Learning
Citations
52
Venue
ACM International Conference on Bioinformatics, Computational Biology and Biomedicine
Last Checked
5 months ago
Abstract
Chemical-chemical interaction (CCI) plays a key role in predicting candidate drugs, toxicity, therapeutic effects, and biological functions. In various types of chemical analyses, computational approaches are often required due to the amount of data that needs to be handled. The recent remarkable growth and outstanding performance of deep learning have attracted considerable research attention. However,even in state-of-the-art drug analysis methods, deep learning continues to be used only as a classifier, although deep learning is capable of not only simple classification but also automated feature extraction. In this paper, we propose the first end-to-end learning method for CCI, named DeepCCI. Hidden features are derived from a simplified molecular input line entry system (SMILES), which is a string notation representing the chemical structure, instead of learning from crafted features. To discover hidden representations for the SMILES strings, we use convolutional neural networks (CNNs). To guarantee the commutative property for homogeneous interaction, we apply model sharing and hidden representation merging techniques. The performance of DeepCCI was compared with a plain deep classifier and conventional machine learning methods. The proposed DeepCCI showed the best performance in all seven evaluation metrics used. In addition, the commutative property was experimentally validated. The automatically extracted features through end-to-end SMILES learning alleviates the significant efforts required for manual feature engineering. It is expected to improve prediction performance, in drug analyses.
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