Social Network Analysis and Validation of an Agent-Based Model
Karleigh Pine, Joel Klipfel, Jared Bennett, Nathaniel Bade, and Christian Manasseh

TL;DR
This paper explores methods for analyzing and validating agent-based social network models by comparing network structures over time and with real-world data, introducing a novel graph metric based on heat content asymptotics.
Contribution
It introduces a new graph pseudometric based on heat content asymptotics and demonstrates how social network analysis tools can validate ABMs without empirical data.
Findings
The heat content asymptotics metric effectively distinguishes non-isomorphic graphs.
Network comparison methods can track structural changes in ABMs over time.
Empirical network properties can validate models when real data is unavailable.
Abstract
Agent-based models (ABMs) simulate the formation and evolution of social processes at a fundamental level by decoupling agent behavior from global observations. In the case where ABM networks evolve over time as a result of (or in conjunction with) agent states, there is a need for understanding the relationship between the dynamic processes and network structure. Social networks provide a natural set of tools for understanding the emergent relationships of these systems. This work examines the utility of a collection of network comparison methods for the purpose of tracking network changes in an ABM over time or between model parameters. Among the techniques examined is a novel graph pseudometric based on heat content asymptotics, which have been shown to distinguish many isospectral graphs which are not isomorphic. Additionally, we establish the use of observations about real-world…
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Taxonomy
TopicsOpinion Dynamics and Social Influence · Complex Network Analysis Techniques · Complex Systems and Time Series Analysis
