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Area of Science:

  • Complex Systems
  • Network Science
  • Statistical Physics

Background:

  • Higher-order interactions shape collective behavior in dynamical processes.
  • The role of these interactions in driving rare events and fluctuations remains largely unexplored.
  • Understanding fluctuations is crucial for predicting system behavior.

Purpose of the Study:

  • To investigate the emergence of fluctuations and rare events in random walks on higher-order networks.
  • To analyze how network structure, specifically higher-order interactions, impacts dynamical fluctuations.
  • To develop a theoretical framework for fluctuations in higher-order systems.

Main Methods:

  • Utilizing large deviation theory to analyze quenched (fixed) hypergraph structures.
  • Employing a saddle-point approximation for annealed (time-evolving) scenarios.
  • Modeling random walks on higher-order networks.

Main Results:

  • In quenched networks, nodes with more higher-order interactions suppress rare events, while others promote them.
  • In annealed networks, dynamical fluctuations are amplified.
  • Optimal higher-order configurations can predict extreme fluctuations.

Conclusions:

  • Higher-order interactions play a critical role in modulating rare events and fluctuations.
  • The study provides a theoretical foundation for understanding dynamics in higher-order networks.
  • Findings have implications for fields relying on network analysis and dynamical systems.