A generative spike train model with time-structured higher order correlations

Emerging technologies are revealing the spiking activity in ever larger neural ensembles. Frequently, this spiking is far from independent, with correlations in the spike times of different cells. Understanding how such correlations impact the dynamics and function of neural ensembles remains an im...

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Main Authors: James eTrousdale, Yu eHu, Eric eShea-Brown, Krešimir eJosić
Format: Article
Language:English
Published: Frontiers Media S.A. 2013-07-01
Series:Frontiers in Computational Neuroscience
Subjects:
Online Access:http://journal.frontiersin.org/Journal/10.3389/fncom.2013.00084/full
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spelling doaj-8249ba8d9fa145f6bdfc0d214f53f66e2020-11-24T23:04:53ZengFrontiers Media S.A.Frontiers in Computational Neuroscience1662-51882013-07-01710.3389/fncom.2013.0008455760A generative spike train model with time-structured higher order correlationsJames eTrousdale0Yu eHu1Eric eShea-Brown2Krešimir eJosić3Krešimir eJosić4University of HoustonUniversity of WashingtonUniversity of WashingtonUniversity of HoustonUniversity of HoustonEmerging technologies are revealing the spiking activity in ever larger neural ensembles. Frequently, this spiking is far from independent, with correlations in the spike times of different cells. Understanding how such correlations impact the dynamics and function of neural ensembles remains an important open problem.Here we describe a new, generative model for correlated spike trains that can exhibit many of the features observed in data. Extending prior work in mathematical finance, this generalized thinning and shift (GTaS) model creates marginally Poisson spike trains with diverse temporal correlation structures.We give several examples which highlight the model's flexibility and utility. For instance, we use it to examine how a neural network responds to highly structured patterns of inputs.We then show that the GTaS model is analytically tractable, and derive cumulant densities of all orders in terms of model parameters. The GTaS framework can therefore be an important tool in the experimental and theoretical exploration of neural dynamics.http://journal.frontiersin.org/Journal/10.3389/fncom.2013.00084/fullspiking neuronsneuronal networkscorrelationsNeuronal modelingneuronal network modelPoint Processes
collection DOAJ
language English
format Article
sources DOAJ
author James eTrousdale
Yu eHu
Eric eShea-Brown
Krešimir eJosić
Krešimir eJosić
spellingShingle James eTrousdale
Yu eHu
Eric eShea-Brown
Krešimir eJosić
Krešimir eJosić
A generative spike train model with time-structured higher order correlations
Frontiers in Computational Neuroscience
spiking neurons
neuronal networks
correlations
Neuronal modeling
neuronal network model
Point Processes
author_facet James eTrousdale
Yu eHu
Eric eShea-Brown
Krešimir eJosić
Krešimir eJosić
author_sort James eTrousdale
title A generative spike train model with time-structured higher order correlations
title_short A generative spike train model with time-structured higher order correlations
title_full A generative spike train model with time-structured higher order correlations
title_fullStr A generative spike train model with time-structured higher order correlations
title_full_unstemmed A generative spike train model with time-structured higher order correlations
title_sort generative spike train model with time-structured higher order correlations
publisher Frontiers Media S.A.
series Frontiers in Computational Neuroscience
issn 1662-5188
publishDate 2013-07-01
description Emerging technologies are revealing the spiking activity in ever larger neural ensembles. Frequently, this spiking is far from independent, with correlations in the spike times of different cells. Understanding how such correlations impact the dynamics and function of neural ensembles remains an important open problem.Here we describe a new, generative model for correlated spike trains that can exhibit many of the features observed in data. Extending prior work in mathematical finance, this generalized thinning and shift (GTaS) model creates marginally Poisson spike trains with diverse temporal correlation structures.We give several examples which highlight the model's flexibility and utility. For instance, we use it to examine how a neural network responds to highly structured patterns of inputs.We then show that the GTaS model is analytically tractable, and derive cumulant densities of all orders in terms of model parameters. The GTaS framework can therefore be an important tool in the experimental and theoretical exploration of neural dynamics.
topic spiking neurons
neuronal networks
correlations
Neuronal modeling
neuronal network model
Point Processes
url http://journal.frontiersin.org/Journal/10.3389/fncom.2013.00084/full
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