Statistics of spike trains in conductance-based neural networks: Rigorous results
B. Cessac

TL;DR
This paper rigorously establishes the existence and uniqueness of a Gibbs distribution for spike train statistics in conductance-based neural networks, providing explicit formulas and applicable to non-stationary stimuli.
Contribution
It introduces a rigorous mathematical framework for spike train statistics in conductance-based neural networks, including explicit Gibbs potential computation.
Findings
Existence and uniqueness of Gibbs distribution for spike trains.
Explicit computation of the Gibbs potential.
Applicability to non-stationary stimuli.
Abstract
We consider a conductance based neural network inspired by the generalized Integrate and Fire model introduced by Rudolph and Destexhe. We show the existence and uniqueness of a unique Gibbs distribution characterizing spike train statistics. The corresponding Gibbs potential is explicitly computed. These results hold in presence of a time-dependent stimulus and apply therefore to non-stationary dynamics.
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Taxonomy
TopicsNeural dynamics and brain function · stochastic dynamics and bifurcation · Neural Networks and Applications
