Temporal interactions between cortical rhythms

Multiple local neuronal circuits support different, discrete frequencies of network rhythm in neocortex. Relationships between different frequencies correspond to mechanisms designed to minimise interference, couple activity via stable phase interactions, and control the amplitude of one frequency r...

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Main Authors: Anita K Roopun, Mark A Kramer, Lucy M Carracedo, Marcus Kaiser, Ceri H Davies, Roger D Traub, Nancy J Kopell, Miles A Whittington
Format: Article
Language:English
Published: Frontiers Media S.A. 2008-12-01
Series:Frontiers in Neuroscience
Subjects:
EEG
Online Access:http://journal.frontiersin.org/Journal/10.3389/neuro.01.034.2008/full
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spelling doaj-3427d75dd1c448f28ea5dea88e3d67b42020-11-24T23:02:57ZengFrontiers Media S.A.Frontiers in Neuroscience1662-453X2008-12-01210.3389/neuro.01.034.2008389Temporal interactions between cortical rhythmsAnita K Roopun0Mark A Kramer1Lucy M Carracedo2Marcus Kaiser3Marcus Kaiser4Ceri H Davies5Roger D Traub6Nancy J Kopell7Miles A Whittington8Newcastle UniversityBoston UniversityNewcastle UniversityNewcastle UniversityNewcastle UniversityGlaxoSmithkline plcIBM TJ Watson Research CenterBoston UniversityNewcastle UniversityMultiple local neuronal circuits support different, discrete frequencies of network rhythm in neocortex. Relationships between different frequencies correspond to mechanisms designed to minimise interference, couple activity via stable phase interactions, and control the amplitude of one frequency relative to the phase of another. These mechanisms are proposed to form a framework for spectral information processing. Individual local circuits can also transform their frequency through changes in intrinsic neuronal properties and interactions with other oscillating microcircuits. Here we discuss a frequency transformation in which activity in two coactive local circuits may combine sequentially to generate a third frequency whose period is the concatenation sum of the original two. With such an interaction, the intrinsic periodicity in each component local circuit is preserved – alternate, single periods of each original rhythm form one period of a new frequency - suggesting a robust mechanism for combining information processed on multiple concurrent spatiotemporal scales.http://journal.frontiersin.org/Journal/10.3389/neuro.01.034.2008/fullBeta RhythmEEGgamma rhythminhibitionNeocortex
collection DOAJ
language English
format Article
sources DOAJ
author Anita K Roopun
Mark A Kramer
Lucy M Carracedo
Marcus Kaiser
Marcus Kaiser
Ceri H Davies
Roger D Traub
Nancy J Kopell
Miles A Whittington
spellingShingle Anita K Roopun
Mark A Kramer
Lucy M Carracedo
Marcus Kaiser
Marcus Kaiser
Ceri H Davies
Roger D Traub
Nancy J Kopell
Miles A Whittington
Temporal interactions between cortical rhythms
Frontiers in Neuroscience
Beta Rhythm
EEG
gamma rhythm
inhibition
Neocortex
author_facet Anita K Roopun
Mark A Kramer
Lucy M Carracedo
Marcus Kaiser
Marcus Kaiser
Ceri H Davies
Roger D Traub
Nancy J Kopell
Miles A Whittington
author_sort Anita K Roopun
title Temporal interactions between cortical rhythms
title_short Temporal interactions between cortical rhythms
title_full Temporal interactions between cortical rhythms
title_fullStr Temporal interactions between cortical rhythms
title_full_unstemmed Temporal interactions between cortical rhythms
title_sort temporal interactions between cortical rhythms
publisher Frontiers Media S.A.
series Frontiers in Neuroscience
issn 1662-453X
publishDate 2008-12-01
description Multiple local neuronal circuits support different, discrete frequencies of network rhythm in neocortex. Relationships between different frequencies correspond to mechanisms designed to minimise interference, couple activity via stable phase interactions, and control the amplitude of one frequency relative to the phase of another. These mechanisms are proposed to form a framework for spectral information processing. Individual local circuits can also transform their frequency through changes in intrinsic neuronal properties and interactions with other oscillating microcircuits. Here we discuss a frequency transformation in which activity in two coactive local circuits may combine sequentially to generate a third frequency whose period is the concatenation sum of the original two. With such an interaction, the intrinsic periodicity in each component local circuit is preserved – alternate, single periods of each original rhythm form one period of a new frequency - suggesting a robust mechanism for combining information processed on multiple concurrent spatiotemporal scales.
topic Beta Rhythm
EEG
gamma rhythm
inhibition
Neocortex
url http://journal.frontiersin.org/Journal/10.3389/neuro.01.034.2008/full
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