Coupled analysis of in vitro and histology tissue samples to quantify structure-function relationship.

The structure/function relationship is fundamental to our understanding of biological systems at all levels, and drives most, if not all, techniques for detecting, diagnosing, and treating disease. However, at the tissue level of biological complexity we encounter a gap in the structure/function rel...

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Main Authors: Evrim Acar, George E Plopper, Bülent Yener
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2012-01-01
Series:PLoS ONE
Online Access:http://europepmc.org/articles/PMC3316529?pdf=render
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spelling doaj-873b3078fcab41099b8c2a4663e442962020-11-25T01:46:56ZengPublic Library of Science (PLoS)PLoS ONE1932-62032012-01-0173e3222710.1371/journal.pone.0032227Coupled analysis of in vitro and histology tissue samples to quantify structure-function relationship.Evrim AcarGeorge E PlopperBülent YenerThe structure/function relationship is fundamental to our understanding of biological systems at all levels, and drives most, if not all, techniques for detecting, diagnosing, and treating disease. However, at the tissue level of biological complexity we encounter a gap in the structure/function relationship: having accumulated an extraordinary amount of detailed information about biological tissues at the cellular and subcellular level, we cannot assemble it in a way that explains the correspondingly complex biological functions these structures perform. To help close this information gap we define here several quantitative temperospatial features that link tissue structure to its corresponding biological function. Both histological images of human tissue samples and fluorescence images of three-dimensional cultures of human cells are used to compare the accuracy of in vitro culture models with their corresponding human tissues. To the best of our knowledge, there is no prior work on a quantitative comparison of histology and in vitro samples. Features are calculated from graph theoretical representations of tissue structures and the data are analyzed in the form of matrices and higher-order tensors using matrix and tensor factorization methods, with a goal of differentiating between cancerous and healthy states of brain, breast, and bone tissues. We also show that our techniques can differentiate between the structural organization of native tissues and their corresponding in vitro engineered cell culture models.http://europepmc.org/articles/PMC3316529?pdf=render
collection DOAJ
language English
format Article
sources DOAJ
author Evrim Acar
George E Plopper
Bülent Yener
spellingShingle Evrim Acar
George E Plopper
Bülent Yener
Coupled analysis of in vitro and histology tissue samples to quantify structure-function relationship.
PLoS ONE
author_facet Evrim Acar
George E Plopper
Bülent Yener
author_sort Evrim Acar
title Coupled analysis of in vitro and histology tissue samples to quantify structure-function relationship.
title_short Coupled analysis of in vitro and histology tissue samples to quantify structure-function relationship.
title_full Coupled analysis of in vitro and histology tissue samples to quantify structure-function relationship.
title_fullStr Coupled analysis of in vitro and histology tissue samples to quantify structure-function relationship.
title_full_unstemmed Coupled analysis of in vitro and histology tissue samples to quantify structure-function relationship.
title_sort coupled analysis of in vitro and histology tissue samples to quantify structure-function relationship.
publisher Public Library of Science (PLoS)
series PLoS ONE
issn 1932-6203
publishDate 2012-01-01
description The structure/function relationship is fundamental to our understanding of biological systems at all levels, and drives most, if not all, techniques for detecting, diagnosing, and treating disease. However, at the tissue level of biological complexity we encounter a gap in the structure/function relationship: having accumulated an extraordinary amount of detailed information about biological tissues at the cellular and subcellular level, we cannot assemble it in a way that explains the correspondingly complex biological functions these structures perform. To help close this information gap we define here several quantitative temperospatial features that link tissue structure to its corresponding biological function. Both histological images of human tissue samples and fluorescence images of three-dimensional cultures of human cells are used to compare the accuracy of in vitro culture models with their corresponding human tissues. To the best of our knowledge, there is no prior work on a quantitative comparison of histology and in vitro samples. Features are calculated from graph theoretical representations of tissue structures and the data are analyzed in the form of matrices and higher-order tensors using matrix and tensor factorization methods, with a goal of differentiating between cancerous and healthy states of brain, breast, and bone tissues. We also show that our techniques can differentiate between the structural organization of native tissues and their corresponding in vitro engineered cell culture models.
url http://europepmc.org/articles/PMC3316529?pdf=render
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AT georgeeplopper coupledanalysisofinvitroandhistologytissuesamplestoquantifystructurefunctionrelationship
AT bulentyener coupledanalysisofinvitroandhistologytissuesamplestoquantifystructurefunctionrelationship
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