Track: Machine learning: computational method and/or computational results
Keywords: biosynthesis, enzyme, metabolism, chemical reactions, graph neural networks, forward synthesis
TL;DR: We present a novel approach that harnesses graph-based deep learning to predict the primary products of enzyme-catalyzed reactions, considering both the protein sequence and substrates involved.
Abstract: The identification of biocatalyzed reaction products plays a critical role in enzyme function prediction, drug discovery, and metabolic engineering. Uncovering the products of biocatalyzed reactions experimentally is both time-consuming and costly, which underscores the urgent need for computational methods. Previous machine learning methods have largely focused on spontaneous, non-biocatalyzed reactions but do not perform well when applied to biocatalyzed reactions specifically. We present a novel approach that harnesses graph-based deep learning to predict the primary products of enzyme-catalyzed reactions, considering both the protein sequence and substrates involved. On the recently published dataset EnzymeMap, we find that our method based on graph-editing outperforms existing transformer-based approaches.
Submission Number: 51
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