Mining Reaction and Diffusion Dynamics in Social Activities
Taichi Murayama, Yasuko Matsubara, Yasushi Sakurai

TL;DR
FluxCube is a novel physics-informed neural network model that effectively forecasts and interprets the co-evolving online user activities by modeling latent interactions and influence flows between queries and locations.
Contribution
The paper introduces FluxCube, combining reaction-diffusion and ecological models with neural networks for interpretable, accurate forecasting of social activity dynamics.
Findings
FluxCube outperforms comparable models in forecasting accuracy.
Each component of FluxCube enhances overall performance.
Case studies demonstrate FluxCube's ability to extract meaningful latent interactions.
Abstract
Large quantifies of online user activity data, such as weekly web search volumes, which co-evolve with the mutual influence of several queries and locations, serve as an important social sensor. It is an important task to accurately forecast the future activity by discovering latent interactions from such data, i.e., the ecosystems between each query and the flow of influences between each area. However, this is a difficult problem in terms of data quantity and complex patterns covering the dynamics. To tackle the problem, we propose FluxCube, which is an effective mining method that forecasts large collections of co-evolving online user activity and provides good interpretability. Our model is the expansion of a combination of two mathematical models: a reaction-diffusion system provides a framework for modeling the flow of influences between local area groups and an ecological system…
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Taxonomy
TopicsOpinion Dynamics and Social Influence · Complex Network Analysis Techniques · Complex Systems and Time Series Analysis
