Comparing Classical Pathways and Modern Networks: Towards the Development of an Edge Ontology
Long J. Lu, Andrea Sboner, Yuanpeng J. Huang, Hao Xin Lu, Tara A., Gianoulis, Kevin Y. Yip, Philip M. Kim, and Gaetano T. Montelione, Mark B., Gerstein

TL;DR
This paper explores integrating classical biological pathways with modern network data, highlighting the need for a standardized edge ontology to better represent pathway interactions and crosstalk.
Contribution
It proposes a prototype for an edge ontology to unify pathway representations and improve the integration of classical and modern network data.
Findings
Embedding pathways in large-scale networks reveals crosstalk.
Current edge representations are inadequate for detailed pathway information.
A prototype edge ontology is proposed as a foundational step.
Abstract
Pathways are integral to systems biology. Their classical representation has proven useful but is inconsistent in the meaning assigned to each arrow (or edge) and inadvertently implies the isolation of one pathway from another. Conversely, modern high-throughput experiments give rise to standardized networks facilitating topological calculations. Combining these perspectives, we can embed classical pathways within large-scale networks and thus demonstrate the crosstalk between them. As more diverse types of high-throughput data become available, we can effectively merge both perspectives, embedding pathways simultaneously in multiple networks. However, the original problem still remains - the current edge representation is inadequate to accurately convey all the information in pathways. Therefore, we suggest that a standardized, well-defined, edge ontology is necessary and propose a…
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Taxonomy
TopicsBioinformatics and Genomic Networks · Gene Regulatory Network Analysis · Computational Drug Discovery Methods
