Membrane nanowaves in single and collective cell migration.

We report the characterization of three-dimensional membrane waves for migrating single and collective cells and describe their propagation using wide-field optical profiling technique with nanometer resolution. We reveal the existence of small and large membrane waves the amplitudes of which are in...

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Main Authors: Omar F Zouani, Veronika Gocheva, Marie-Christine Durrieu
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2014-01-01
Series:PLoS ONE
Online Access:http://europepmc.org/articles/PMC4028249?pdf=render
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spelling doaj-20ca43d5e9a642fd9c1af1ae6a7f804a2020-11-25T01:26:54ZengPublic Library of Science (PLoS)PLoS ONE1932-62032014-01-0195e9785510.1371/journal.pone.0097855Membrane nanowaves in single and collective cell migration.Omar F ZouaniVeronika GochevaMarie-Christine DurrieuWe report the characterization of three-dimensional membrane waves for migrating single and collective cells and describe their propagation using wide-field optical profiling technique with nanometer resolution. We reveal the existence of small and large membrane waves the amplitudes of which are in the range of ∼ 3-7 nm to ∼ 16-25 nm respectively, through the cell. For migrating single-cells, the amplitude of these waves is about 30 nm near the cell edge. Two or more different directions of propagation of the membrane nanowaves inside the same cell can be observed. After increasing the migration velocity by BMP-2 treatment, only one wave direction of propagation exists with an increase in the average amplitude (more than 80 nm near the cell edge). Furthermore for collective-cell migration, these membrane nanowaves are attenuated on the leader cells and poor transmission of these nanowaves to follower cells was observed. After BMP-2 treatment, the membrane nanowaves are transmitted from the leader cell to several rows of follower cells. Surprisingly, the vast majority of the observed membrane nanowaves is shared between the adjacent cells. These results give a new view on how single and collective-cells modulate their motility. This work has significant implications for the therapeutic use of BMPs for the regeneration of skin tissue.http://europepmc.org/articles/PMC4028249?pdf=render
collection DOAJ
language English
format Article
sources DOAJ
author Omar F Zouani
Veronika Gocheva
Marie-Christine Durrieu
spellingShingle Omar F Zouani
Veronika Gocheva
Marie-Christine Durrieu
Membrane nanowaves in single and collective cell migration.
PLoS ONE
author_facet Omar F Zouani
Veronika Gocheva
Marie-Christine Durrieu
author_sort Omar F Zouani
title Membrane nanowaves in single and collective cell migration.
title_short Membrane nanowaves in single and collective cell migration.
title_full Membrane nanowaves in single and collective cell migration.
title_fullStr Membrane nanowaves in single and collective cell migration.
title_full_unstemmed Membrane nanowaves in single and collective cell migration.
title_sort membrane nanowaves in single and collective cell migration.
publisher Public Library of Science (PLoS)
series PLoS ONE
issn 1932-6203
publishDate 2014-01-01
description We report the characterization of three-dimensional membrane waves for migrating single and collective cells and describe their propagation using wide-field optical profiling technique with nanometer resolution. We reveal the existence of small and large membrane waves the amplitudes of which are in the range of ∼ 3-7 nm to ∼ 16-25 nm respectively, through the cell. For migrating single-cells, the amplitude of these waves is about 30 nm near the cell edge. Two or more different directions of propagation of the membrane nanowaves inside the same cell can be observed. After increasing the migration velocity by BMP-2 treatment, only one wave direction of propagation exists with an increase in the average amplitude (more than 80 nm near the cell edge). Furthermore for collective-cell migration, these membrane nanowaves are attenuated on the leader cells and poor transmission of these nanowaves to follower cells was observed. After BMP-2 treatment, the membrane nanowaves are transmitted from the leader cell to several rows of follower cells. Surprisingly, the vast majority of the observed membrane nanowaves is shared between the adjacent cells. These results give a new view on how single and collective-cells modulate their motility. This work has significant implications for the therapeutic use of BMPs for the regeneration of skin tissue.
url http://europepmc.org/articles/PMC4028249?pdf=render
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