Actomyosin contractility is the major force-generating machinery that shapes cells and tissues during morphogenesis. New evidence from Drosophila demonstrates that these forces are spatially organized by a combination of biochemical and mechanical signals that provide dynamic feedback in a complex cellular environment
Forces arising from contractile actomyosin filaments help shape tissue form during morphogenesis. De...
During development, mechanical forces cause changes in size, shape, number, position, and gene expre...
During development, mechanical forces cause changes in size, shape, number, position, and gene expre...
Actomyosin contractility is the major force-generating machinery that shapes cells and tissues durin...
Contractile actin-myosin networks generate forces that drive cell shape changes and tissue remodelin...
International audienceCells are active materials; they can change shape using internal energy to bui...
International audienceTissue morphogenesis is driven by coordinated cellular deformations. Recent st...
Cellular contractility, driven by actomyosin networks coupled to cadherin cell-cell adhesion junctio...
International audienceSculpting organism shape requires that cells produce forces with proper direct...
AbstractEmbryonic development involves global changes in tissue shape and architecture that are driv...
<div><p>Mechanics has an important role during morphogenesis, both in the generation of forces drivi...
Mechanics has an important role during morphogenesis, both in the generation of forces driving cell ...
In this work, we combine genetic perturbation, time-lapse imaging and quantitative image analysis to...
Thesis: Ph. D., Massachusetts Institute of Technology, Computational and Systems Biology Program, 20...
Contraction of cortical actomyosin networks driven by myosin activation controls cell shape changes ...
Forces arising from contractile actomyosin filaments help shape tissue form during morphogenesis. De...
During development, mechanical forces cause changes in size, shape, number, position, and gene expre...
During development, mechanical forces cause changes in size, shape, number, position, and gene expre...
Actomyosin contractility is the major force-generating machinery that shapes cells and tissues durin...
Contractile actin-myosin networks generate forces that drive cell shape changes and tissue remodelin...
International audienceCells are active materials; they can change shape using internal energy to bui...
International audienceTissue morphogenesis is driven by coordinated cellular deformations. Recent st...
Cellular contractility, driven by actomyosin networks coupled to cadherin cell-cell adhesion junctio...
International audienceSculpting organism shape requires that cells produce forces with proper direct...
AbstractEmbryonic development involves global changes in tissue shape and architecture that are driv...
<div><p>Mechanics has an important role during morphogenesis, both in the generation of forces drivi...
Mechanics has an important role during morphogenesis, both in the generation of forces driving cell ...
In this work, we combine genetic perturbation, time-lapse imaging and quantitative image analysis to...
Thesis: Ph. D., Massachusetts Institute of Technology, Computational and Systems Biology Program, 20...
Contraction of cortical actomyosin networks driven by myosin activation controls cell shape changes ...
Forces arising from contractile actomyosin filaments help shape tissue form during morphogenesis. De...
During development, mechanical forces cause changes in size, shape, number, position, and gene expre...
During development, mechanical forces cause changes in size, shape, number, position, and gene expre...