AbstractCell/matrix adhesions are modulated by cytoskeletal or external stresses and adapt to the mechanical properties of the extracellular matrix. We propose that this mechanosensitivity arises from the activation of a mechanosensor located within the adhesion itself. We show that this mechanism accounts for the observed directional growth of focal adhesions and the reduction or even cessation of their growth when cells adhere to a soft extracellular matrix. We predict quantitatively that both the elasticity and the thickness of the matrix play a key role in the dynamics of focal adhesions. Two different types of dynamics are expected depending on whether the thickness of the matrix is of order of or much larger than the adhesion size. In...
AbstractFocal adhesions are micrometer-sized protein aggregates that connect actin stress fibers to ...
Cell-matrix adhesions have since long been recognized to be critical for the survival and proliferat...
In living cells, adhesion structures have the astonishing ability to grow and strengthen under force...
AbstractCell/matrix adhesions are modulated by cytoskeletal or external stresses and adapt to the me...
AbstractCell focal adhesions are micrometer-sized aggregates of proteins that anchor the cell to the...
Strong mechanical forces can, obviously, disrupt cell-cell and cell-matrix adhesions, e.g., cyclic u...
Spatial patterning of biochemical cues on the micro- and nanometer scale controls numerous cellular ...
AbstractIn this work, a chemomechanical model describing the growth dynamics of cell-matrix adhesion...
AbstractExtracellular matrices determine cellular fate decisions through the regulation of intracell...
SummaryBackgroundThe spatiotemporal regulation of adhesion to the extracellular matrix is important ...
By forming attachments and contracting, cells are able to exert forces on their surroundings and inf...
Cell mechanical recognition of extracellular matrix determines the cell activities and functions. Fo...
Focal adhesions (FAs) are important adhesion sites between eukaryotic cells and the extracellular ma...
Focal adhesions (FAs) are important adhesion sites between eukaryotic cells and the extracellular ma...
Integrin-mediated adhesions between cells and the extracellular matrix are fundamental for cell func...
AbstractFocal adhesions are micrometer-sized protein aggregates that connect actin stress fibers to ...
Cell-matrix adhesions have since long been recognized to be critical for the survival and proliferat...
In living cells, adhesion structures have the astonishing ability to grow and strengthen under force...
AbstractCell/matrix adhesions are modulated by cytoskeletal or external stresses and adapt to the me...
AbstractCell focal adhesions are micrometer-sized aggregates of proteins that anchor the cell to the...
Strong mechanical forces can, obviously, disrupt cell-cell and cell-matrix adhesions, e.g., cyclic u...
Spatial patterning of biochemical cues on the micro- and nanometer scale controls numerous cellular ...
AbstractIn this work, a chemomechanical model describing the growth dynamics of cell-matrix adhesion...
AbstractExtracellular matrices determine cellular fate decisions through the regulation of intracell...
SummaryBackgroundThe spatiotemporal regulation of adhesion to the extracellular matrix is important ...
By forming attachments and contracting, cells are able to exert forces on their surroundings and inf...
Cell mechanical recognition of extracellular matrix determines the cell activities and functions. Fo...
Focal adhesions (FAs) are important adhesion sites between eukaryotic cells and the extracellular ma...
Focal adhesions (FAs) are important adhesion sites between eukaryotic cells and the extracellular ma...
Integrin-mediated adhesions between cells and the extracellular matrix are fundamental for cell func...
AbstractFocal adhesions are micrometer-sized protein aggregates that connect actin stress fibers to ...
Cell-matrix adhesions have since long been recognized to be critical for the survival and proliferat...
In living cells, adhesion structures have the astonishing ability to grow and strengthen under force...