FPP-Hunter: Expert-Guided Discovery Of Functional Path Patterns

In the context of using big data to improve healthcare and life sciences and with a specific focus on drug discovery, we consider the problem of formulating biomedical mechanism-of-action (MOA) hypotheses that can explain how specific drugs treat specific diseases. Our aim is to enable scalable mining and interpretation of MOA hypotheses enabling drug discovery and repurposing on large-scale biomedical knowledge graphs (KGs).The approach that we introduce to address this problem centers on expert-guided generation of candidate MOA hypotheses in the form of regular-path KG patterns between the KG nodes for the entities of interest, such as drugs and diseases. We call those patterns that represent promising candidate MOAs functional path patterns (FPPs), and call the proposed approach FPP-Hunter. The results of a drug-disease case study that we have conducted with the biomedical KG ROBOKOP suggest that the proposed approach has the potential to address scalability challenges in forming promising MOA hypotheses using large-scale KGs, in drug repurposing and potentially beyond.

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Publication Details

Published
2024-12-15
DOI
https://doi.org/10.1109/bigdata62323.2024.10825729
Primary Topic
Biomedical Text Mining and Ontologies
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article
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article

FPP-Hunter: Expert-Guided Discovery Of Functional Path Patterns

Daniel Korn, Kara Schatz, Jon-Michael Beasley, Alexander Tropsha et al.
Biomedical Text Mining and Ontologies
article

FPP-Hunter: Expert-Guided Discovery Of Functional Path Patterns

Daniel Korn, Kara Schatz, Jon-Michael Beasley, Alexander Tropsha, Rada Chirkova, Pei-Yu Hou
article en

Abstract

In the context of using big data to improve healthcare and life sciences and with a specific focus on drug discovery, we consider the problem of formulating biomedical mechanism-of-action (MOA) hypotheses that can explain how specific drugs treat specific diseases. Our aim is to enable scalable mining and interpretation of MOA hypotheses enabling drug discovery and repurposing on large-scale biomedical knowledge graphs (KGs).The approach that we introduce to address this problem centers on expert-guided generation of candidate MOA hypotheses in the form of regular-path KG patterns between the KG nodes for the entities of interest, such as drugs and diseases. We call those patterns that represent promising candidate MOAs functional path patterns (FPPs), and call the proposed approach FPP-Hunter. The results of a drug-disease case study that we have conducted with the biomedical KG ROBOKOP suggest that the proposed approach has the potential to address scalability challenges in forming promising MOA hypotheses using large-scale KGs, in drug repurposing and potentially beyond.

University of North Carolina at Chapel Hill (US), North Carolina State University (US)
Openalex Percentile: Top 78%
Biomedical Text Mining and Ontologies
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FPP-Hunter: Expert-Guided Discovery Of Functional Path Patterns — Daniel Korn, Kara Schatz, et al. · (2024) | TGRS Research Map | TGRS