Assessing effects on dendritic arborization using novel Sholl analyses

Determining the shape of cell-specific dendritic arbors is a tightly regulated process that occurs during development. When this regulation is aberrant, which occurs during disease or injury, alterations in dendritic shape result in changes to neural circuitry. There has been significant progress on...

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Main Authors: Kate M O'Neill, Barbara F Akum, Survandita T Dhawan, Munjin eKwon, Christopher G Langhammer, Bonnie L Firestein
Format: Article
Language:English
Published: Frontiers Media S.A. 2015-07-01
Series:Frontiers in Cellular Neuroscience
Subjects:
Online Access:http://journal.frontiersin.org/Journal/10.3389/fncel.2015.00285/full
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spelling doaj-e0f607e0482946808bb9a08d04b455362020-11-24T23:46:44ZengFrontiers Media S.A.Frontiers in Cellular Neuroscience1662-51022015-07-01910.3389/fncel.2015.00285153510Assessing effects on dendritic arborization using novel Sholl analysesKate M O'Neill0Kate M O'Neill1Barbara F Akum2Survandita T Dhawan3Munjin eKwon4Christopher G Langhammer5Bonnie L Firestein6Rutgers, the State University of New JerseyRutgers, the State University of New JerseyRutgers, the State University of New JerseyRutgers, the State University of New JerseyRutgers, the State University of New JerseyRutgers, the State University of New JerseyRutgers, the State University of New JerseyDetermining the shape of cell-specific dendritic arbors is a tightly regulated process that occurs during development. When this regulation is aberrant, which occurs during disease or injury, alterations in dendritic shape result in changes to neural circuitry. There has been significant progress on characterizing extracellular and intrinsic factors that regulate dendrite number by our laboratory and others. Generally, changes to the dendritic arbor are assessed by Sholl analysis or simple dendrite counting. However, we have found that this general method often overlooks local changes to the arbor. Previously, we developed a program (titled Bonfire) to facilitate digitization of neurite morphology and subsequent Sholl analysis and to assess changes to root, intermediate, and terminal neurites. Here, we apply these different Sholl analyses, and a novel Sholl analysis, to uncover previously unknown changes to the dendritic arbor when we overexpress an important regulator of dendrite branching, cytosolic PSD-95 interactor (cypin) at two developmental time points. Our results suggest that standard Sholl analysis and simple dendrite counting are not sufficient for uncovering local changes to the dendritic arbor.http://journal.frontiersin.org/Journal/10.3389/fncel.2015.00285/fullNeuronmorphologyDendriteimage analysistracingsholl
collection DOAJ
language English
format Article
sources DOAJ
author Kate M O'Neill
Kate M O'Neill
Barbara F Akum
Survandita T Dhawan
Munjin eKwon
Christopher G Langhammer
Bonnie L Firestein
spellingShingle Kate M O'Neill
Kate M O'Neill
Barbara F Akum
Survandita T Dhawan
Munjin eKwon
Christopher G Langhammer
Bonnie L Firestein
Assessing effects on dendritic arborization using novel Sholl analyses
Frontiers in Cellular Neuroscience
Neuron
morphology
Dendrite
image analysis
tracing
sholl
author_facet Kate M O'Neill
Kate M O'Neill
Barbara F Akum
Survandita T Dhawan
Munjin eKwon
Christopher G Langhammer
Bonnie L Firestein
author_sort Kate M O'Neill
title Assessing effects on dendritic arborization using novel Sholl analyses
title_short Assessing effects on dendritic arborization using novel Sholl analyses
title_full Assessing effects on dendritic arborization using novel Sholl analyses
title_fullStr Assessing effects on dendritic arborization using novel Sholl analyses
title_full_unstemmed Assessing effects on dendritic arborization using novel Sholl analyses
title_sort assessing effects on dendritic arborization using novel sholl analyses
publisher Frontiers Media S.A.
series Frontiers in Cellular Neuroscience
issn 1662-5102
publishDate 2015-07-01
description Determining the shape of cell-specific dendritic arbors is a tightly regulated process that occurs during development. When this regulation is aberrant, which occurs during disease or injury, alterations in dendritic shape result in changes to neural circuitry. There has been significant progress on characterizing extracellular and intrinsic factors that regulate dendrite number by our laboratory and others. Generally, changes to the dendritic arbor are assessed by Sholl analysis or simple dendrite counting. However, we have found that this general method often overlooks local changes to the arbor. Previously, we developed a program (titled Bonfire) to facilitate digitization of neurite morphology and subsequent Sholl analysis and to assess changes to root, intermediate, and terminal neurites. Here, we apply these different Sholl analyses, and a novel Sholl analysis, to uncover previously unknown changes to the dendritic arbor when we overexpress an important regulator of dendrite branching, cytosolic PSD-95 interactor (cypin) at two developmental time points. Our results suggest that standard Sholl analysis and simple dendrite counting are not sufficient for uncovering local changes to the dendritic arbor.
topic Neuron
morphology
Dendrite
image analysis
tracing
sholl
url http://journal.frontiersin.org/Journal/10.3389/fncel.2015.00285/full
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