Download Katie Newhall Synchrony in stochastic pulse-coupled neuronal network models

Survey
yes no Was this document useful for you?
   Thank you for your participation!

* Your assessment is very important for improving the workof artificial intelligence, which forms the content of this project

Document related concepts

Catastrophic interference wikipedia , lookup

Holonomic brain theory wikipedia , lookup

Multielectrode array wikipedia , lookup

Activity-dependent plasticity wikipedia , lookup

Synaptogenesis wikipedia , lookup

Neural oscillation wikipedia , lookup

Neuropsychopharmacology wikipedia , lookup

Feature detection (nervous system) wikipedia , lookup

Premovement neuronal activity wikipedia , lookup

Nonsynaptic plasticity wikipedia , lookup

Optogenetics wikipedia , lookup

Neuroanatomy wikipedia , lookup

Neural coding wikipedia , lookup

Recurrent neural network wikipedia , lookup

Central pattern generator wikipedia , lookup

Neural modeling fields wikipedia , lookup

Convolutional neural network wikipedia , lookup

Channelrhodopsin wikipedia , lookup

Pre-Bötzinger complex wikipedia , lookup

Types of artificial neural networks wikipedia , lookup

Metastability in the brain wikipedia , lookup

Biological neuron model wikipedia , lookup

Synaptic gating wikipedia , lookup

Binding problem wikipedia , lookup

Nervous system network models wikipedia , lookup

Transcript
Katie Newhall
Synchrony in stochastic pulse-coupled neuronal network models
Many pulse-coupled dynamical systems possess synchronous attracting states.
Even stochastically driven model networks of Integrate and Fire neurons
demonstrate synchrony over a large range of parameters. We study the interplay
between fluctuations which de-synchronize and synaptic coupling which
synchronizes the network by calculating the probability to see repeated cascading
total firing events, during which all the neurons in the network fire at once. The
mean time between total firing events characterizes the perfectly synchronous
state, and is computed from a first-passage time problem in terms of a FokkerPlanck equation for a single neuron.