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Communities, clustering phase transitions, and hysteresis: pitfalls in constructing network ensembles
David Foster1, Jacob Foster, Maya Paczuski
1Complexity Science Group, University of Calgary, Calgary, Canada. ventres@gmail.com
This study introduces a biased rewiring model to generate clustered networks, preserving node degrees. It reveals that "cluster cores" emerge, impacting network analysis and null model applications due to hysteresis.
Area of Science:
- Network science
- Statistical physics
Background:
- Ensemble networks are common null models.
- Simple null models often lack real-world network clustering.
Purpose of the Study:
- Investigate a biased rewiring model to enhance network clustering.
- Preserve node degrees while incorporating triangle formation (fugacity).
Main Methods:
- Studied a biased rewiring model with fugacity.
- Analyzed phase transitions in regular and nonregular networks.
- Introduced q-clique adjacency plots for visualization.
Main Results:
- Phase transitions observed with changes in fugacity.
- Emergence of "cluster cores" in nonregular networks.
- Cluster cores are robust communities with high interconnectedness and hysteresis.
Conclusions:
- Clustering is not uniformly distributed but concentrated in cluster cores.
- Cluster cores act as emergent, robust communities.
- Hysteresis in cluster core formation poses challenges for null model applications.
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