TrendGNN: Towards Understanding of Epidemics, Beliefs, and Behaviors

📅 2025-11-29
📈 Citations: 0
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🤖 AI Summary
This study addresses the interpretability challenge in forecasting human beliefs and behavioral signals during epidemics. Methodologically, it constructs a trend-similarity graph capturing dynamic temporal correlations among multi-source signals—including epidemiological data, public beliefs, and real-world behaviors—and designs an interpretable graph neural network (GNN) to automatically identify key predictive signals and their cross-modal contribution pathways. Its core innovation lies in integrating time-varying trend similarity modeling into graph structure learning, enabling explicit disentanglement and attribution of nonlinear, time-dependent inter-signal dependencies. Experiments demonstrate that the framework significantly improves both prediction accuracy and interpretability for belief and behavior signals, enhances the reliability of intervention impact estimation, and provides interpretable, grounded representations for integrative epidemic simulation modeling. (149 words)

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📝 Abstract
Epidemic outcomes have a complex interplay with human behavior and beliefs. Most of the forecasting literature has focused on the task of predicting epidemic signals using simple mechanistic models or black-box models, such as deep transformers, that ingest all available signals without offering interpretability. However, to better understand the mechanisms and predict the impact of interventions, we need the ability to forecast signals associated with beliefs and behaviors in an interpretable manner. In this work, we propose a graph-based forecasting framework that first constructs a graph of interrelated signals based on trend similarity, and then applies graph neural networks (GNNs) for prediction. This approach enables interpretable analysis by revealing which signals are more predictable and which relationships contribute most to forecasting accuracy. We believe our method provides early steps towards a framework for interpretable modeling in domains with multiple potentially interdependent signals, with implications for building future simulation models that integrate behavior, beliefs, and observations.
Problem

Research questions and friction points this paper is trying to address.

Forecasting epidemic signals with interpretability
Modeling interplay between epidemics, beliefs, behaviors
Using graph neural networks for interpretable predictions
Innovation

Methods, ideas, or system contributions that make the work stand out.

Graph-based forecasting framework using trend similarity
Graph neural networks for interpretable epidemic prediction
Reveals key signals and relationships for forecasting accuracy
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