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Type I Membranes, Phase Resetting Curves, and Synchrony

Neural Computation · 1996 · Vol. 8(5) · pp. 979–1001
Bard Ermentrout

Abstract

Type I membrane oscillators such as the Connor model (Connor et al. 1977) and the Morris-Lecar model (Morris and Lecar 1981) admit very low frequency oscillations near the critical applied current. Hansel et al. (1995) have numerically shown that synchrony is difficult to achieve with these models and that the phase resetting curve is strictly positive. We use singular perturbation methods and averaging to show that this is a general property of Type I membrane models. We show in a limited sense that so called Type II resetting occurs with models that obtain rhythmicity via a Hopf bifurcation. We also show the differences between synapses that act rapidly and those that act slowly and derive a canonical form for the phase interactions.

Nonlinear Dynamics and Pattern Formationstochastic dynamics and bifurcationPhotoreceptor and optogenetics researchPhase response curveHopf bifurcationType (biology)Perturbation (astronomy)MathematicsBifurcationProperty (philosophy)Control theory (sociology)Singular perturbationPhase (matter)

MeSH terms

Cell MembraneNeuronsSynapsesNeural Networks, Computer
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References
Synchrony in Excitatory Neural Networks
Neural Computation · 1995 · 602 citations
Biological rhythms and the behavior of populations of coupled oscillators
Journal of Theoretical Biology · 1967 · 1,998 citations
Voltage oscillations in the barnacle giant muscle fiber
Biophysical Journal · 1981 · 2,300 citations
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