Heterogeneous Collective Opinion Dynamics
Overview
This collaborative project introduces a <text style='color: #4cb7feff'><b>Bayesian framework</b></text> for <text style='color: #F9D779'><b>opinion dynamics</b></text>, moving beyond deterministic models to formally <text style='color: #4cb7feff'><b>model uncertainty</b></text> within <text style='color: #4cb7feff'><b>social networks</b></text>. By treating opinions as probability distributions rather than fixed points, we explore how agents update their beliefs when faced with noisy or conflicting information. The research investigates how <text style='color: #4cb7feff'><b>heterogeneity</b></text> in network topology (centrality) and quality of information (certainty) changes the dynamics collective consensus. In this work we combined network science with probabilistic inference to provide a mathematical foundation for understanding how opinion dynamics evolves in complex, decentralized systems, offering key insights for both social modeling and the design of resilient multi-agent AI.
Functional Summary
This research introduces a Bayesian Framework for opinion dynamics, moving beyond deterministic models to formally model uncertainty within social networks. Published in Scientific Reports (Nature).

Simulation of Opinion Evolution on Heterogeneous Networks
Bayesian Inference
Treats opinions as probability distributions (PDFs) rather than fixed points, allowing agents to update beliefs based on the certainty of information.
Network Heterogeneity
Investigates how diversity in topology (centrality) and information quality affects the speed and stability of collective consensus.
Key Insight
We found that uncertainty acts as a buffer against polarization, and that highly central agents can accelerate consensus only if their information certainty matches their social influence.
Opinion Update Logic
Research Stack
A purely computational research project leveraging scientific computing libraries.