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Generating Bipartite Networks with a Prescribed Joint Degree Distribution
Asma Azizi1, Jeremy Dewar1, Tong Wu2
1Department of Mathematics, Tulane University, New Orleans, LA 70118, USA.
Summary
New algorithms construct bipartite networks preserving node degree and joint-degree distributions. These B2K algorithms accurately model complex systems like social and biological networks.
Area of Science:
- Network Science
- Graph Theory
- Computational Social Science
Background:
- Bipartite networks model interactions between two distinct sets of entities.
- Real-world networks often exhibit correlations between node degrees and their neighbors' degrees.
- Preserving these structural properties is crucial for accurate network modeling.
Purpose of the Study:
- To introduce novel algorithms for constructing bipartite networks.
- To ensure the generated networks preserve both degree and joint-degree distributions.
- To evaluate the effectiveness of these algorithms in capturing network structure.
Main Methods:
- Development of bipartite 2K (B2K) algorithms.
- Generation of an ensemble of networks with prescribed degree sequences.
- Preservation of the joint-degree distribution (degree of neighbors for nodes of same degree).
- Utilizing the NetworkX software environment for analysis.
Main Results:
- B2K algorithms successfully preserve specified degree and joint-degree distributions.
- Comparison with other methods on a romance network dataset.
- Observed preservation of additional network properties (e.g., clustering coefficients) in low-degree networks.
Conclusions:
- B2K algorithms provide a robust method for constructing realistic bipartite networks.
- The joint-degree distribution is a critical property to preserve, especially in sparse networks.
- These algorithms enhance the fidelity of network models for systems with low average node degrees.
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