Cell shape in vitro can be directed by geometrically defined micropatterned adhesion substrates. However conventional methods are limited by the fixed micropattern design, which cannot recapitulate the dynamic changes of the cell microenvironment. Here, we manipulate the shape of living cells in real time by using a tightly focused pulsed laser to introduce additional geometrically defined adhesion sites. The sub-micrometer resolution of the laser patterning allowed us to identify the critical distances between cell adhesion sites required for cell shape extension and contraction. This easy-to-handle method allows the precise control of specific actin-based structures that regulate cell architecture. Actin filament bundles or branched meshw...
Cells probe their environment and adapt their shape accordingly via the organization of focal adhesi...
Culturing cells in three-dimensional (3D) environments has been shown to significantly influence cel...
International audienceIn tissues, cell microenvironment geometry and mechanics strongly impact on ce...
Cell shape in vitro can be directed by geometrically-defined micropatterned adhesion substrates. How...
International audienceCell shape in vitro can be directed by geometrically defined micropatterned ad...
This article discusses the adhesion of C2C12 mouse myoblast cells to a microstructured polydimethyls...
Stem cell shape and mechanical properties in vitro can be directed by geometrically defined micropat...
The last decade has seen exciting and unprecedented work at the interface between biology and materi...
Material signals in the form of surface topographies, proved to be potent regulators of cell functio...
International audienceThe actin cytoskeleton is a key component of the cellular architecture. Howeve...
International audienceIn situ, cells are highly sensitive to geometrical and mechanical constraints ...
In vivo cell niches are complex architectures that provide a wide range of biochemical and mechanica...
International audienceThe actin cytoskeleton is a key component of the cellular architecture. Howeve...
Cell adhesion to the extracellular matrix is crucial to many physiological events since it underlies...
Cells probe their environment and adapt their shape accordingly via the organization of focal adhesi...
Culturing cells in three-dimensional (3D) environments has been shown to significantly influence cel...
International audienceIn tissues, cell microenvironment geometry and mechanics strongly impact on ce...
Cell shape in vitro can be directed by geometrically-defined micropatterned adhesion substrates. How...
International audienceCell shape in vitro can be directed by geometrically defined micropatterned ad...
This article discusses the adhesion of C2C12 mouse myoblast cells to a microstructured polydimethyls...
Stem cell shape and mechanical properties in vitro can be directed by geometrically defined micropat...
The last decade has seen exciting and unprecedented work at the interface between biology and materi...
Material signals in the form of surface topographies, proved to be potent regulators of cell functio...
International audienceThe actin cytoskeleton is a key component of the cellular architecture. Howeve...
International audienceIn situ, cells are highly sensitive to geometrical and mechanical constraints ...
In vivo cell niches are complex architectures that provide a wide range of biochemical and mechanica...
International audienceThe actin cytoskeleton is a key component of the cellular architecture. Howeve...
Cell adhesion to the extracellular matrix is crucial to many physiological events since it underlies...
Cells probe their environment and adapt their shape accordingly via the organization of focal adhesi...
Culturing cells in three-dimensional (3D) environments has been shown to significantly influence cel...
International audienceIn tissues, cell microenvironment geometry and mechanics strongly impact on ce...