Switching transformations for decentralized control of opinion patterns in signed networks: application to dynamic task allocation
Anastasia Bizyaeva, Giovanna Amorim, Maria Santos, Alessio Franci,, Naomi Ehrich Leonard

TL;DR
This paper introduces a decentralized method using switching transformations to control and switch opinion patterns in signed networks, with applications in multi-robot coordination and dynamic task allocation.
Contribution
It presents a novel decentralized approach leveraging switching transformations to control opinion patterns in signed networks, applicable to multi-agent decision-making.
Findings
The method can reliably switch opinions to desired patterns.
Structural balance ensures predictable dynamics and monotonicity.
Applications demonstrated in multi-robot coordination scenarios.
Abstract
We propose a new decentralized design method to control opinion patterns on signed networks of agents making decisions about two options and to switch the network from any opinion pattern to a new desired one. Our method relies on switching transformations, which switch the sign of an agent's opinion at a stable equilibrium by flipping the sign of its local interactions with its neighbors. The global dynamical behavior of the switched network can be predicted rigorously when the original, and thus the witched, networks are structurally balanced. Structural balance ensures that the network dynamics are monotone, which makes the study of the basin of attraction of the various opinion patterns amenable to rigorous analysis through monotone systems theory. We illustrate the utility of the approach through scenarios motivated by multi-robot coordination and dynamic task allocation.
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Taxonomy
TopicsOpinion Dynamics and Social Influence · Complex Network Analysis Techniques · Distributed Control Multi-Agent Systems
