Formation of actin networks in microfluidic concentration gradients

The physical properties of cytoskeletal networks are contributors in a number of mechanical responses of cells including cellular deformation and locomotion, and are crucial for the proper action of living cells. Local chemical gradients modulate cytoskeletal functionality including the interactions...

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Main Authors: Natalja eStrelnikova, Florian eHerren, Cora-Ann eSchoenenberger, Thomas ePfohl
Format: Article
Language:English
Published: Frontiers Media S.A. 2016-05-01
Series:Frontiers in Materials
Subjects:
Online Access:http://journal.frontiersin.org/Journal/10.3389/fmats.2016.00020/full
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spelling doaj-9692de0bebd840fca752fa6370b0ee612020-11-24T23:47:13ZengFrontiers Media S.A.Frontiers in Materials2296-80162016-05-01310.3389/fmats.2016.00020184433Formation of actin networks in microfluidic concentration gradientsNatalja eStrelnikova0Florian eHerren1Cora-Ann eSchoenenberger2Thomas ePfohl3University of BaselUniversity of BaselUniversity of BaselUniversity of BaselThe physical properties of cytoskeletal networks are contributors in a number of mechanical responses of cells including cellular deformation and locomotion, and are crucial for the proper action of living cells. Local chemical gradients modulate cytoskeletal functionality including the interactions of the cytoskeleton with other cellular components. Actin is a major constituent of the cytoskeleton. Introducing a microfluidic-based platform, we explored the impact of concentration gradients on the formation and structural properties of actin networks. Microfluidics-controlled flow-free steady state experimental conditions allow for the generation of chemical gradients of different profiles, such as linear or step-like. We discovered specific features of actin networks emerging in defined gradients. In particular, we analyzed the effects of spatial conditions on network properties, bending rigidities of network links, and the network elasticity.http://journal.frontiersin.org/Journal/10.3389/fmats.2016.00020/fullMicrofluidicsHeterogeneous networksbundlingGradient generatorFilamentsFEM simulations
collection DOAJ
language English
format Article
sources DOAJ
author Natalja eStrelnikova
Florian eHerren
Cora-Ann eSchoenenberger
Thomas ePfohl
spellingShingle Natalja eStrelnikova
Florian eHerren
Cora-Ann eSchoenenberger
Thomas ePfohl
Formation of actin networks in microfluidic concentration gradients
Frontiers in Materials
Microfluidics
Heterogeneous networks
bundling
Gradient generator
Filaments
FEM simulations
author_facet Natalja eStrelnikova
Florian eHerren
Cora-Ann eSchoenenberger
Thomas ePfohl
author_sort Natalja eStrelnikova
title Formation of actin networks in microfluidic concentration gradients
title_short Formation of actin networks in microfluidic concentration gradients
title_full Formation of actin networks in microfluidic concentration gradients
title_fullStr Formation of actin networks in microfluidic concentration gradients
title_full_unstemmed Formation of actin networks in microfluidic concentration gradients
title_sort formation of actin networks in microfluidic concentration gradients
publisher Frontiers Media S.A.
series Frontiers in Materials
issn 2296-8016
publishDate 2016-05-01
description The physical properties of cytoskeletal networks are contributors in a number of mechanical responses of cells including cellular deformation and locomotion, and are crucial for the proper action of living cells. Local chemical gradients modulate cytoskeletal functionality including the interactions of the cytoskeleton with other cellular components. Actin is a major constituent of the cytoskeleton. Introducing a microfluidic-based platform, we explored the impact of concentration gradients on the formation and structural properties of actin networks. Microfluidics-controlled flow-free steady state experimental conditions allow for the generation of chemical gradients of different profiles, such as linear or step-like. We discovered specific features of actin networks emerging in defined gradients. In particular, we analyzed the effects of spatial conditions on network properties, bending rigidities of network links, and the network elasticity.
topic Microfluidics
Heterogeneous networks
bundling
Gradient generator
Filaments
FEM simulations
url http://journal.frontiersin.org/Journal/10.3389/fmats.2016.00020/full
work_keys_str_mv AT nataljaestrelnikova formationofactinnetworksinmicrofluidicconcentrationgradients
AT florianeherren formationofactinnetworksinmicrofluidicconcentrationgradients
AT coraanneschoenenberger formationofactinnetworksinmicrofluidicconcentrationgradients
AT thomasepfohl formationofactinnetworksinmicrofluidicconcentrationgradients
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