Literature DB >> 19763323

Theoretical models of spontaneous activity generation and propagation in the developing retina.

Keith B Godfrey1, Stephen J Eglen.   

Abstract

Spontaneous neural activity is present in many parts of the developing nervous system, including visual, auditory and motor areas. In the developing retina, nearby neurons are spontaneously active and produce propagating patterns of activity, known as retinal waves. Such activity is thought to instruct the refinement of retinal axons. In this article we review several computational models used to help evaluate the mechanisms that might be responsible for the generation of retinal waves. We then discuss the models relative to the molecular mechanisms underlying wave activity, including gap junctions, neurotransmitters and second messenger systems. We examine how well the models represent these mechanisms and propose areas for future modelling research. The retinal wave models are also discussed in relation to models of spontaneous activity in other areas of the developing nervous system.

Mesh:

Year:  2009        PMID: 19763323     DOI: 10.1039/b907213f

Source DB:  PubMed          Journal:  Mol Biosyst        ISSN: 1742-2051


  9 in total

1.  Cellular mechanisms underlying spatiotemporal features of cholinergic retinal waves.

Authors:  Kevin J Ford; Aude L Félix; Marla B Feller
Journal:  J Neurosci       Date:  2012-01-18       Impact factor: 6.167

2.  Detecting pairwise correlations in spike trains: an objective comparison of methods and application to the study of retinal waves.

Authors:  Catherine S Cutts; Stephen J Eglen
Journal:  J Neurosci       Date:  2014-10-22       Impact factor: 6.167

Review 3.  Modeling developmental patterns of spontaneous activity.

Authors:  Julijana Gjorgjieva; Stephen J Eglen
Journal:  Curr Opin Neurobiol       Date:  2011-06-16       Impact factor: 6.627

4.  Quantitative differences in developmental profiles of spontaneous activity in cortical and hippocampal cultures.

Authors:  Paul Charlesworth; Ellese Cotterill; Andrew Morton; Seth G N Grant; Stephen J Eglen
Journal:  Neural Dev       Date:  2015-01-28       Impact factor: 3.842

5.  A reaction-diffusion model of cholinergic retinal waves.

Authors:  Benjamin Lansdell; Kevin Ford; J Nathan Kutz
Journal:  PLoS Comput Biol       Date:  2014-12-04       Impact factor: 4.475

6.  Gap junctions set the speed and nucleation rate of stage I retinal waves.

Authors:  Malte Kähne; Sten Rüdiger; Alexandre Hiroaki Kihara; Benjamin Lindner
Journal:  PLoS Comput Biol       Date:  2019-04-29       Impact factor: 4.475

7.  A biophysical model explains the spontaneous bursting behavior in the developing retina.

Authors:  Dora Matzakos-Karvouniari; Lionel Gil; Elaine Orendorff; Olivier Marre; Serge Picaud; Bruno Cessac
Journal:  Sci Rep       Date:  2019-02-12       Impact factor: 4.379

8.  Retinal Wave Patterns Are Governed by Mutual Excitation among Starburst Amacrine Cells and Drive the Refinement and Maintenance of Visual Circuits.

Authors:  Hong-Ping Xu; Timothy J Burbridge; Meijun Ye; Minggang Chen; Xinxin Ge; Z Jimmy Zhou; Michael C Crair
Journal:  J Neurosci       Date:  2016-03-30       Impact factor: 6.167

9.  Large-scale synchronized activity in the embryonic brainstem and spinal cord.

Authors:  Yoko Momose-Sato; Katsushige Sato
Journal:  Front Cell Neurosci       Date:  2013-04-05       Impact factor: 5.505

  9 in total

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