Dissecting Sholl Analysis into Its Functional Components

Summary: Sholl analysis has been an important technique in dendritic anatomy for more than 60 years. The Sholl intersection profile is obtained by counting the number of dendritic branches at a given distance from the soma and is a key measure of dendritic complexity; it has applications from evalua...

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Main Authors: Alex D. Bird, Hermann Cuntz
Format: Article
Language:English
Published: Elsevier 2019-06-01
Series:Cell Reports
Online Access:http://www.sciencedirect.com/science/article/pii/S2211124719305777
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spelling doaj-eacc8a9454e34ce4bbfb1edb8e8101c52020-11-25T02:23:54ZengElsevierCell Reports2211-12472019-06-01271030813096.e5Dissecting Sholl Analysis into Its Functional ComponentsAlex D. Bird0Hermann Cuntz1Frankfurt Institute for Advanced Studies, Frankfurt-am-Main 60438, Germany; Ernst Strüngmann Institute (ESI) for Neuroscience in Cooperation with Max Planck Society, Frankfurt-am-Main 60528, Germany; Corresponding authorFrankfurt Institute for Advanced Studies, Frankfurt-am-Main 60438, Germany; Ernst Strüngmann Institute (ESI) for Neuroscience in Cooperation with Max Planck Society, Frankfurt-am-Main 60528, GermanySummary: Sholl analysis has been an important technique in dendritic anatomy for more than 60 years. The Sholl intersection profile is obtained by counting the number of dendritic branches at a given distance from the soma and is a key measure of dendritic complexity; it has applications from evaluating the changes in structure induced by pathologies to estimating the expected number of anatomical synaptic contacts. We find that the Sholl intersection profiles of most neurons can be reproduced from three basic, functional measures: the domain spanned by the dendritic arbor, the total length of the dendrite, and the angular distribution of how far dendritic segments deviate from a direct path to the soma (i.e., the root angle distribution). The first two measures are determined by axon location and hence microcircuit structure; the third arises from optimal wiring and represents a branching statistic estimating the need for conduction speed in a neuron. : Bird and Cuntz show how Sholl analysis, a one-dimensional representation of a dendritic tree, can be reproduced from three basic properties of a neuron that define its connectivity, density of synaptic inputs, and balance between material and signal delay costs, thus linking an intuitive and accessible neuronal representation with function. Keywords: Sholl analysis, root angle, dendrite, morphology, connectivityhttp://www.sciencedirect.com/science/article/pii/S2211124719305777
collection DOAJ
language English
format Article
sources DOAJ
author Alex D. Bird
Hermann Cuntz
spellingShingle Alex D. Bird
Hermann Cuntz
Dissecting Sholl Analysis into Its Functional Components
Cell Reports
author_facet Alex D. Bird
Hermann Cuntz
author_sort Alex D. Bird
title Dissecting Sholl Analysis into Its Functional Components
title_short Dissecting Sholl Analysis into Its Functional Components
title_full Dissecting Sholl Analysis into Its Functional Components
title_fullStr Dissecting Sholl Analysis into Its Functional Components
title_full_unstemmed Dissecting Sholl Analysis into Its Functional Components
title_sort dissecting sholl analysis into its functional components
publisher Elsevier
series Cell Reports
issn 2211-1247
publishDate 2019-06-01
description Summary: Sholl analysis has been an important technique in dendritic anatomy for more than 60 years. The Sholl intersection profile is obtained by counting the number of dendritic branches at a given distance from the soma and is a key measure of dendritic complexity; it has applications from evaluating the changes in structure induced by pathologies to estimating the expected number of anatomical synaptic contacts. We find that the Sholl intersection profiles of most neurons can be reproduced from three basic, functional measures: the domain spanned by the dendritic arbor, the total length of the dendrite, and the angular distribution of how far dendritic segments deviate from a direct path to the soma (i.e., the root angle distribution). The first two measures are determined by axon location and hence microcircuit structure; the third arises from optimal wiring and represents a branching statistic estimating the need for conduction speed in a neuron. : Bird and Cuntz show how Sholl analysis, a one-dimensional representation of a dendritic tree, can be reproduced from three basic properties of a neuron that define its connectivity, density of synaptic inputs, and balance between material and signal delay costs, thus linking an intuitive and accessible neuronal representation with function. Keywords: Sholl analysis, root angle, dendrite, morphology, connectivity
url http://www.sciencedirect.com/science/article/pii/S2211124719305777
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