Clarification and complement to "Mean-field description and propagation of chaos in networks of Hodgkin-Huxley and FitzHugh-Nagumo neurons"
Mireille Bossy, Olivier Faugeras, and Denis Talay

TL;DR
This paper clarifies the mathematical foundations and proves the propagation of chaos for mean-field models of neuron networks, also extending the modeling to ion channels and neurotransmitter dynamics.
Contribution
It provides a rigorous analysis of the well-posedness and chaos propagation in mean-field neuron models, extending previous work to include stochastic ion channel and neurotransmitter equations.
Findings
Proved well-posedness of the limit equations.
Established propagation of chaos for the models.
Extended modeling to stochastic ion channels and neurotransmitters.
Abstract
In this note, we clarify the well-posedness of the limit equations to the mean-field -neuron models proposed in Baladron et al. and we prove the associated propagation of chaos property. We also complete the modeling issue in Baladron et al. by discussing the well-posedness of the stochastic differential equations which govern the behavior of the ion channels and the amount of available neurotransmitters.
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Taxonomy
Topicsstochastic dynamics and bifurcation · Advanced Thermodynamics and Statistical Mechanics · Nonlinear Dynamics and Pattern Formation
