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Published in 2021 at "Advanced Materials Interfaces"
DOI: 10.1002/admi.202001897
Abstract: Living cells sense and respond to mechanical signals through specific mechanisms generating traction force. The quantification of cell forces using micropillars can be limited by micropillar stiffness, technological aspects of fabrications, and microcontact printing of…
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Keywords:
sio2 parylene;
cellular force;
force;
parylene micropillars ... See more keywords
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Published in 2019 at "Nano letters"
DOI: 10.1021/acs.nanolett.8b02568
Abstract: Living cells interact with their immediate environment by exerting mechanical forces, which regulate important cell functions. Elucidation of such force patterns yields deep insights into the physics of life. Here we present a top-down nanostructured,…
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Keywords:
microscopy;
ultraflexible nanowire;
nanowire array;
force ... See more keywords
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Published in 2018 at "npj Computational Materials"
DOI: 10.1038/s41524-018-0069-8
Abstract: Epithelial cells can assemble into cohesive monolayers with rich morphologies on substrates due to competition between elastic, edge, and interfacial effects. Here we present a molecularly based thermodynamic model, integrating monolayer and substrate elasticity, and…
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Keywords:
microscopy;
landscapes cohesive;
force;
traction ... See more keywords
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Published in 2020 at "Physical Review E"
DOI: 10.1103/physreve.101.032406
Abstract: The bending of nanostructures (NSs), such as nanopillars and nanowires, caused by cell adhesion is an interesting phenomenon and is important for the measurements of cellular forces, understanding the biological behavior of cells, and disease…
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Keywords:
physical understanding;
caused cellular;
cellular force;
bending nanostructures ... See more keywords