In this work, we investigate whether stiffening in compression is a feature of single cells and whether the intracellular polymer networks that comprise the cytoskeleton (all of which stiffen with increasing shear strain) stiffen or soften when subjected to compressive strains. We find that individual cells, such as fibroblasts, stiffen at physiologically relevant compressive strains, but genetic ablation of vimentin diminishes this effect. Further, we show that unlike networks of purified F-actin or microtubules, which soften in compression, vimentin intermediate filament networks stiffen in both compression and extension, and we present a theoretical model to explain this response based on the flexibility of vimentin filaments and their s...
The mechanical properties of tissues play a critical role in their normal and pathophysiological fun...
Recent experimental evidence indicates a role for the intermediate filament vimentin in regulating c...
Fibrous networks are ideal functional materials since they provide mechanical rigidity at low weight...
AbstractVimentin intermediate filament expression is a hallmark of epithelial-to-mesenchymal transit...
Both animal and plant tissue exhibit a nonlinear rheological phenomenon known as compression stiffen...
Softcover, 17x24Cells are the basic unit of living organisms and consist of a cytoplasm, which is en...
The proper functions of tissues depend on the ability of cells to withstand stress and maintain shap...
AbstractThe mechanical properties of a cell determine many aspects of its behavior, and these mechan...
Intermediate filaments (often abbreviated as IFs), in addition to microtubules and microfilaments, a...
The mechanical properties of biological cells are determined by the cytoskeleton, a composite biopol...
The cytoskeleton is a complex network of interconnected biopolymers intimately involved in the gener...
Contractile stress generation by adherent cells is largely determined by the interplay of forces wit...
In many developmental and pathological processes, including cellular migration during normal develop...
Mesenchymal stem cells (MSCs) are being studied extensively due to their potential as a therapeutic ...
The viscoelasticity of the crosslinked semiflexible polymer networks—such as the internal cytoskelet...
The mechanical properties of tissues play a critical role in their normal and pathophysiological fun...
Recent experimental evidence indicates a role for the intermediate filament vimentin in regulating c...
Fibrous networks are ideal functional materials since they provide mechanical rigidity at low weight...
AbstractVimentin intermediate filament expression is a hallmark of epithelial-to-mesenchymal transit...
Both animal and plant tissue exhibit a nonlinear rheological phenomenon known as compression stiffen...
Softcover, 17x24Cells are the basic unit of living organisms and consist of a cytoplasm, which is en...
The proper functions of tissues depend on the ability of cells to withstand stress and maintain shap...
AbstractThe mechanical properties of a cell determine many aspects of its behavior, and these mechan...
Intermediate filaments (often abbreviated as IFs), in addition to microtubules and microfilaments, a...
The mechanical properties of biological cells are determined by the cytoskeleton, a composite biopol...
The cytoskeleton is a complex network of interconnected biopolymers intimately involved in the gener...
Contractile stress generation by adherent cells is largely determined by the interplay of forces wit...
In many developmental and pathological processes, including cellular migration during normal develop...
Mesenchymal stem cells (MSCs) are being studied extensively due to their potential as a therapeutic ...
The viscoelasticity of the crosslinked semiflexible polymer networks—such as the internal cytoskelet...
The mechanical properties of tissues play a critical role in their normal and pathophysiological fun...
Recent experimental evidence indicates a role for the intermediate filament vimentin in regulating c...
Fibrous networks are ideal functional materials since they provide mechanical rigidity at low weight...