Behavioral and Topological Heterogeneities in Network Versions of Schelling's Segregation Model
<|reference_start|>Behavioral and Topological Heterogeneities in Network Versions of Schelling's Segregation Model: Agent-based models of residential segregation have been of persistent interest to various research communities since their origin with James Sakoda and popularization by Thomas Schelling. Frequently, these models have sought to elucidate the extent to which the collective dynamics of individual preferences may cause segregation to emerge. This open question has sustained relevance in U.S. jurisprudence. Previous investigation of heterogeneity of behaviors (preferences) by Xie & Zhou has shown reductions in segregation. Meanwhile, previous investigation of heterogeneity of social network topologies by Gandica, Gargiulo, and Carletti has shown no significant impact to observed segregation levels. In the present study, we examined effects of the concurrent presence of both behavioral and topological heterogeneities in network segregation models. Simulations were conducted using both Schelling's and Xie & Zhou's preference models on 2D lattices with varied levels of densification to create topological heterogeneities (i.e., clusters, hubs). Results show a richer variety of outcomes, including novel differences in resultant segregation levels and hub composition. Notably, with concurrent increased representations of heterogeneous preferences and heterogenous topologies, reduced levels of segregation emerge. Simultaneously, we observe a novel dynamic of segregation between tolerance levels as highly tolerant nodes take residence in dense areas and push intolerant nodes to sparse areas mimicking the urban-rural divide.<|reference_end|>
@article{deter2024behavioral,
    title={Behavioral and Topological Heterogeneities in Network Versions of
  Schelling's Segregation Model},
    author={Will Deter and Hiroki Sayama},
    journal={arXiv preprint arXiv:2408.05623},
    year={2024},
    archivePrefix={arXiv},
    eprint={2408.05623},
    primaryClass={physics.soc-ph cs.SI}
}