A large dataset curation and benchmark for drug target interaction

Alex Golts; Vadim Ratner; Yoel Shoshan; Moshe Raboh; Sagi Polaczek; Michal Ozery-Flato; Daniel Shats; Liam Hazan; Sivan Ravid; Efrat Hexter

arXiv · 2401.17174

A large dataset curation and benchmark for drug target interaction

Alex Golts·Vadim Ratner·Yoel Shoshan·Moshe Raboh·Sagi Polaczek·Michal Ozery-Flato·Daniel Shats·Liam Hazan·Sivan Ravid·Efrat Hexter

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Abstract

Bioactivity data plays a key role in drug discovery and repurposing. The resource-demanding nature of \textit{in vitro} and \textit{in vivo} experiments, as well as the recent advances in data-driven computational biochemistry research, highlight the importance of \textit{in silico} drug target interaction (DTI) prediction approaches. While numerous large public bioactivity data sources exist, research in the field could benefit from better standardization of existing data resources. At present, different research works that share similar goals are often difficult to compare properly because of different choices of data sources and train/validation/test split strategies. Additionally, many works are based on small data subsets, leading to results and insights of possible limited validity. In this paper we propose a way to standardize and represent efficiently a very large dataset curated from multiple public sources, split the data into train, validation and test sets based on different meaningful strategies, and provide a concrete evaluation protocol to accomplish a benchmark. We analyze the proposed data curation, prove its usefulness and validate the proposed benchmark through experimental studies based on an existing neural network model.

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Alex Golts, Vadim Ratner, Yoel Shoshan, Moshe Raboh, Sagi Polaczek, Michal Ozery-Flato, Daniel Shats, Liam Hazan, Sivan Ravid, Efrat Hexter. 2024-01-30. A large dataset curation and benchmark for drug target interaction. https://arxiv.org/abs/2401.17174

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