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Mining higher-order triadic interactions
Marta Niedostatek1,2, Anthony Baptista1,2,3, Jun Yamamoto4
1School of Mathematical Sciences, Queen Mary University of London, London, UK.
This study introduces the Triadic Perceptron Model (TPM) to analyze higher-order interactions in complex systems. It reveals how triadic interactions influence mutual information and develops a method to identify them in biological data.
Area of Science:
- Complex Systems Biology
- Network Science
- Computational Biology
Background:
- Complex systems exhibit higher-order interactions beyond simple pairwise connections.
- Triadic interactions, involving one node regulating two others, are crucial in biological systems but often overlooked.
- Existing models primarily focus on pairwise interactions, neglecting higher-order dynamics.
Purpose of the Study:
- To propose a model for understanding how triadic interactions affect system dynamics.
- To develop an algorithm for extracting triadic interactions from data.
- To identify novel triadic interactions in biological datasets, specifically gene expression data.
Main Methods:
- Development of the Triadic Perceptron Model (TPM) to quantify the effect of triadic interactions on mutual information.
- Formulation of the Triadic Interaction Mining (TRIM) algorithm for extracting triadic interactions from node metadata.
- Application of the TRIM algorithm to gene expression data.
Main Results:
- The Triadic Perceptron Model demonstrates that triadic interactions can modulate mutual information between connected nodes.
- The Triadic Interaction Mining algorithm successfully extracts potential triadic interactions from complex datasets.
- New candidate triadic interactions relevant to Acute Myeloid Leukemia were identified in gene expression data.
Conclusions:
- Triadic interactions play a significant, often ignored, role in the dynamics of complex systems.
- The proposed Triadic Perceptron Model and TRIM algorithm provide a novel framework for studying higher-order interactions.
- This approach can enhance understanding of complex biological systems, with potential applications in ecology and climate science.
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