Exploring brain function from anatomical connectivity
The intrinsic relationship between the architecture of the brain and the range of sensory and behavioral phenomena it produces is a relevant question in neuroscience. Here, we review recent knowledge gained on the architecture of the anatomical connectivity by means of complex network analysis. It h...
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doaj-446fb5472b0d48deaff33ee2bd57f08e2020-11-24T23:19:28ZengFrontiers Media S.A.Frontiers in Neuroscience1662-453X2011-06-01510.3389/fnins.2011.000839008Exploring brain function from anatomical connectivityGorka eZamora-López0Gorka eZamora-López1Changsong eZhou2Changsong eZhou3Jürgen eKurths4Jürgen eKurths5Jürgen eKurths6Jürgen eKurths7Humboldt UniversityHumboldt UniversityHong Kong Baptist UniversityHong Kong Baptist UniversityHumboldt UniversityHumboldt UniversityPotsdam Institute for Climate Impact ResearchUniversity of AberdeenThe intrinsic relationship between the architecture of the brain and the range of sensory and behavioral phenomena it produces is a relevant question in neuroscience. Here, we review recent knowledge gained on the architecture of the anatomical connectivity by means of complex network analysis. It has been found that corticocortical networks display a few prominent characteristics: (i) modular organization, (ii) abundant alternative processing paths and (iii) the presence of highly connected hubs. Additionally, we present a novel classification of cortical areas of the cat according to the role they play in multisensory connectivity. All these properties represent an ideal anatomical substrate supporting rich dynamical behaviors, as-well-as facilitating the capacity of the brain to process sensory information of different modalities segregated and to integrate them towards a comprehensive perception of the real world. The result here exposed are mainly based in anatomical data of cats’ brain, but we show how further observations suggest that, from worms to humans, the nervous system of all animals might share fundamental principles of organization.http://journal.frontiersin.org/Journal/10.3389/fnins.2011.00083/fullintegrationsegregationbrain connectivitycortical networkscortical hubshierarchical networks |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Gorka eZamora-López Gorka eZamora-López Changsong eZhou Changsong eZhou Jürgen eKurths Jürgen eKurths Jürgen eKurths Jürgen eKurths |
spellingShingle |
Gorka eZamora-López Gorka eZamora-López Changsong eZhou Changsong eZhou Jürgen eKurths Jürgen eKurths Jürgen eKurths Jürgen eKurths Exploring brain function from anatomical connectivity Frontiers in Neuroscience integration segregation brain connectivity cortical networks cortical hubs hierarchical networks |
author_facet |
Gorka eZamora-López Gorka eZamora-López Changsong eZhou Changsong eZhou Jürgen eKurths Jürgen eKurths Jürgen eKurths Jürgen eKurths |
author_sort |
Gorka eZamora-López |
title |
Exploring brain function from anatomical connectivity |
title_short |
Exploring brain function from anatomical connectivity |
title_full |
Exploring brain function from anatomical connectivity |
title_fullStr |
Exploring brain function from anatomical connectivity |
title_full_unstemmed |
Exploring brain function from anatomical connectivity |
title_sort |
exploring brain function from anatomical connectivity |
publisher |
Frontiers Media S.A. |
series |
Frontiers in Neuroscience |
issn |
1662-453X |
publishDate |
2011-06-01 |
description |
The intrinsic relationship between the architecture of the brain and the range of sensory and behavioral phenomena it produces is a relevant question in neuroscience. Here, we review recent knowledge gained on the architecture of the anatomical connectivity by means of complex network analysis. It has been found that corticocortical networks display a few prominent characteristics: (i) modular organization, (ii) abundant alternative processing paths and (iii) the presence of highly connected hubs. Additionally, we present a novel classification of cortical areas of the cat according to the role they play in multisensory connectivity. All these properties represent an ideal anatomical substrate supporting rich dynamical behaviors, as-well-as facilitating the capacity of the brain to process sensory information of different modalities segregated and to integrate them towards a comprehensive perception of the real world. The result here exposed are mainly based in anatomical data of cats’ brain, but we show how further observations suggest that, from worms to humans, the nervous system of all animals might share fundamental principles of organization. |
topic |
integration segregation brain connectivity cortical networks cortical hubs hierarchical networks |
url |
http://journal.frontiersin.org/Journal/10.3389/fnins.2011.00083/full |
work_keys_str_mv |
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