Attractor-Based Coevolving Dot Product Random Graph Model
Shiwen Yang, Daniel L. Sussman

TL;DR
This paper introduces a novel attractor-based coevolving random graph model that captures polarizing and flocking behaviors in dynamic networks by modeling latent node positions influenced by group-based attractors.
Contribution
The paper presents the ABCDPRGM, a new framework for analyzing time-series network data with evolving latent positions influenced by attractors, including estimators with proven consistency.
Findings
Developed estimators for model parameters with proven consistency.
Provided a framework to quantify influences driving polarizing or flocking behaviors.
Demonstrated convergence rates under specific assumptions.
Abstract
We introduce the attractor-based coevolving dot product random graph model (ABCDPRGM) to analyze time-series network data manifesting polarizing or flocking behavior. Graphs are generated based on latent positions under the random dot product graph regime. We assign group membership to each node. When evolving through time, the latent position of each node will change based on its current position and two attractors, which are defined to be the centers of the latent positions of all of its neighbors who share its group membership or who have different group membership than it. Parameters are assigned to the attractors to quantify the amount of influence that the attractors have on the trajectory of the latent position of each node. We developed estimators for the parameters, demonstrated their consistency, and established convergence rates under specific assumptions. Through the…
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Taxonomy
TopicsAdvanced Decision-Making Techniques · Technology and Security Systems · Advanced Computing and Algorithms
