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Updated: Jul 18, 2025

A Knowledge Graph Approach to Elucidate the Role of Organellar Pathways in Disease via Biomedical Reports
Published on: October 13, 2023
Analysis of the evolution of COVID-19 disease understanding through temporal knowledge graphs
Alessandro Negro1, Fabio Montagna1, Michael N Teng2
1Graph Aware Ltd., London, United Kingdom.
Abstract:
The COVID-19 pandemic highlighted two critical barriers hindering rapid response to novel pathogens. These include inefficient use of existing biological knowledge about treatments, compounds, gene interactions, proteins, etc. to fight new diseases, and the lack of assimilation and analysis of the fast-growing knowledge about new diseases to quickly develop new treatments, vaccines, and compounds. Overcoming these critical challenges has the potential to revolutionize global preparedness for future pandemics. Accordingly, this article introduces a novel knowledge graph application that functions as both a repository of life science knowledge and an analytics platform capable of extracting time-sensitive insights to uncover evolving disease dynamics and, importantly, researchers' evolving understanding. Specifically, we demonstrate how to extract time-bounded key concepts, also leveraging existing ontologies, from evolving scholarly articles to create a single temporal connected source of truth specifically related to COVID-19. By doing so, current knowledge can be promptly accessed by both humans and machines, from which further understanding of disease outbreaks can be derived. We present key findings from the temporal analysis, applied to a subset of the resulting knowledge graph known as the temporal keywords knowledge graph, and delve into the detailed capabilities provided by this innovative approach.
Insights
This study introduces a novel knowledge graph to rapidly analyze evolving scientific knowledge during disease outbreaks. It enables faster access to information for developing treatments and vaccines, improving pandemic preparedness.
Area of Science:
- Life Sciences
- Bioinformatics
- Computational Biology
Background:
- The COVID-19 pandemic exposed critical gaps in utilizing existing biological knowledge and analyzing new disease information for rapid response.
- Inefficient knowledge management hinders the swift development of treatments, vaccines, and compounds against novel pathogens.
- Revolutionizing global preparedness requires overcoming these challenges in knowledge assimilation and analysis.
Purpose of the Study:
- To introduce a novel knowledge graph application serving as a life science knowledge repository and analytics platform.
- To demonstrate extracting time-bounded key concepts from scholarly articles for a unified temporal source of truth on COVID-19.
- To uncover evolving disease dynamics and researchers' understanding through time-sensitive insights.
Main Methods:
- Developed a knowledge graph application integrating life science data.
- Leveraged existing ontologies to extract time-bounded key concepts from evolving scholarly articles.
- Applied temporal analysis to a subset of the knowledge graph (temporal keywords knowledge graph).
Main Results:
- Created a single, temporal, connected source of truth for COVID-19 knowledge.
- Enabled prompt access to current knowledge for both human and machine analysis.
- Extracted time-sensitive insights into evolving disease dynamics and research trends.
Conclusions:
- The novel knowledge graph application significantly enhances the ability to rapidly analyze and utilize scientific knowledge during outbreaks.
- This approach facilitates quicker development of countermeasures and improves global pandemic preparedness.
- The temporal analysis of the knowledge graph provides valuable insights into disease evolution and research landscapes.
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