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NUL

Higher-order coordination and emergent communication across human, AI, and animal systems

Northeastern University London Network Science Institute
✓ Fully Funded 🎓 Computer Science 🎓 Mathematics 🎓 Physics network science multi-agent systems complex systems higher-order interactions emergent communication animal communication collective behavior statistical mechanics

Explore how group-level interaction structures shape coordination and emergent communication in humans, AI agents, and animals. Apply interdisciplinary methods across network science, experiments, and simulations to unify understanding of collective behavior.

AI-generated overview

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Why This Research Matters

This research advances knowledge of collective dynamics by bridging human social behavior, AI communication, and animal coordination. Insights from this work can improve multi-agent AI design, enhance understanding of animal cultures, and inform strategies to manage social systems and ecological communities.

complex systems theoretical physics algebraic topology

Project Description

Project Overview

This project investigates how the structure of group interactions affects coordination, norm formation, and the emergence of communication systems across human populations, multi-agent AI systems, and animal societies. It addresses whether a single mathematical framework can describe convention formation in these diverse systems.

Part of the ERC Consolidator Grant “RUNES,” the research integrates online behavioural experiments, multiagent simulations, and analysis of animal communication data, aiming to understand the role of higher-order interaction topology in shaping collective outcomes.

What You Will Do

You will design and conduct large-scale online coordination experiments extending the naming-game framework to group-level interaction topologies. This includes manipulating group size, overlap, and clustering using platforms like Prolific. You will fit higher-order contagion models and apply information-theoretic decompositions to experimental data.

In AI systems, you will study how interaction topologies shape communication protocol complexity, working with LLM agents and reinforcement-learning frameworks to test topological effects independent of agent architecture. Animal communication data from sperm whales and zebrafish will be analyzed with higher-order statistics to correlate communication patterns with collective behaviors.

Expected Outcomes

You will produce a cross-system synthesis identifying common topological and information-theoretic features that predict coordination and collective outcomes across humans, AI, and animals. This work will contribute to foundational complex systems science and provide new insights into emergent communication and coordination mechanisms.

Why This Matters

Understanding how group interactions foster coordination and communication across systems has broad implications for social science, AI development, and biology. It helps explain human social dynamics, improves design of AI communication protocols, and enhances knowledge of animal behavior and conservation.

Entry Requirements

MSc (or equivalent) in Physics, Mathematics, Computer Science, or related quantitative field; strong modelling, computational, and coding skills; experience with network science, multi-agent systems, statistical mechanics, or computational social science; programming proficiency in Python, Julia, Rust, or C++; highly collaborative with strong communication skills.

How to Apply

Candidates may contact Prof. Giovanni Petri with informal enquiries before the application deadline; shortlisted candidates will be interviewed at the end of TBC.

Eligibility

UK/Home
EU
International

Supervisor Profile

PG
Prof. Giovanni Petri
Northeastern University London, Network Science Institute
9966 Citations
42 h-index
Google Scholar

Prof. Giovanni Petri leads research on network science, focusing on higher-order interactions and their effects on social and biological systems. His work combines mathematical modeling, data analysis, and interdisciplinary approaches to uncover how group structure influences information flow and coordination. He has contributed notably to understanding social learning in sperm whales and complex systems theory.

Key Publications

2020 2035 citations
Networks beyond pairwise interactions: Structure and dynamics
2021 1062 citations
The physics of higher-order interactions in complex systems
2019 996 citations
Simplicial models of social contagion
2014 920 citations
Homological scaffolds of brain functional networks
2017 326 citations
The shape of collaborations

Research Contributions

Studied the structure and dynamics of networks beyond pairwise interactions, advancing understanding in higher-order network theory.
This work enables more accurate modeling of complex systems with interactions that go beyond simple pairs, influencing various scientific domains.
Explored the physics of higher-order interactions in complex systems, highlighting their effects on system behavior.
Provided a fundamental theoretical framework that has been applied in physics and network science to better explain complex phenomena.
Developed simplicial models of social contagion to capture spreading dynamics in social networks more comprehensively.
Improved understanding of social contagion processes which can inform strategies for managing information spread and epidemics.
Analyzed homological scaffolds of brain functional networks to uncover topological features of brain connectivity.
Contributed to neuroscience by providing new tools to analyze brain data, potentially aiding in understanding brain function and disorders.

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