Mean-field limit of a stochastic particle system smoothly interacting through threshold hitting-times and applications to neural networks with dendritic component
James Inglis (TOSCA, NEUROMATHCOMP), Denis Talay (TOSCA)

TL;DR
This paper investigates the convergence of a stochastic particle system modeling neural networks with dendritic structures, leading to a new McKean-Vlasov type equation, with implications for understanding neural dynamics.
Contribution
It introduces a novel particle system interaction through threshold hitting times and derives its mean-field limit, connecting neural models with advanced stochastic analysis.
Findings
Proves convergence of the particle system to a McKean-Vlasov equation
Models neural networks with dendritic components more accurately
Provides mathematical framework for neural dynamics with threshold interactions
Abstract
In this article we study the convergence of a stochastic particle system that interacts through threshold hitting times towards a novel equation of McKean-Vlasov type. The particle system is motivated by an original model for the behavior of a network of neurons, in which a classical noisy integrate-and-fire model is coupled with a cable equation to describe the dendritic structure of each neuron.
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Taxonomy
TopicsMarkov Chains and Monte Carlo Methods · stochastic dynamics and bifurcation · Quantum chaos and dynamical systems
