The extracellular matrix (ECM) is essential for regulating cell behavior and tissue function [1]. Local ECM structure and mechanics are increasingly recognized as important mechanical effectors of cell responses and tissue regeneration [2]. This is illustrated by the fact that either the rigidity of ECM [3] or local tension regulate cellular mechanotransduction pathways, and their dysregulation results in many different types of diseases [4,5]. It was speculated that cell contractions, generated by the cross-bridging interaction of actin and myosin II motors, maintain a tensional homeostasis in response to mechanical disturbance. The question is what is exactly the tensional homeostasis, if any
Mechanical forces are important regulators of connective tissue homeostasis. Our recent experiments ...
Many different cell types respond to substrate elasticity as sensitively as more well studied solubl...
Living organisms are made up of a multitude of individual cells that are surrounded by biomolecules ...
The extracellular matrix (ECM) is essential for regulating cell behavior and tissue function [1]. Lo...
International audienceSince the emergence of mechanobiology, mechanical signals have been shown to i...
Mechanical homeostasis is an emerging mechanobiology concept that describes the critical biological ...
Mechanical signals from the extracellular microenvironment such as substrate stiffness and compressi...
Living tissue is able to withstand large stresses in everyday life, yet it also actively adapts to d...
Biological tissues present a grand challenge for mechanicians. Not only are their mechanical propert...
AbstractThe extracellular matrix (ECM) is a major component of the biomechanical environment with wh...
Physiological tissue exists in a state of tension. Maintenance of this tension at a set level, a pr...
Adherent cells generate forces through acto-myosin contraction to move, change shape, and sense the ...
Cell contraction regulates how cells sense their mechanical environment. We sought to identify the s...
Living cells and tissues are constantly subjected to mechanical tension.1 This is apparent for force...
Studies of cellular mechanotransduction have converged upon the idea that cells sense extracellular ...
Mechanical forces are important regulators of connective tissue homeostasis. Our recent experiments ...
Many different cell types respond to substrate elasticity as sensitively as more well studied solubl...
Living organisms are made up of a multitude of individual cells that are surrounded by biomolecules ...
The extracellular matrix (ECM) is essential for regulating cell behavior and tissue function [1]. Lo...
International audienceSince the emergence of mechanobiology, mechanical signals have been shown to i...
Mechanical homeostasis is an emerging mechanobiology concept that describes the critical biological ...
Mechanical signals from the extracellular microenvironment such as substrate stiffness and compressi...
Living tissue is able to withstand large stresses in everyday life, yet it also actively adapts to d...
Biological tissues present a grand challenge for mechanicians. Not only are their mechanical propert...
AbstractThe extracellular matrix (ECM) is a major component of the biomechanical environment with wh...
Physiological tissue exists in a state of tension. Maintenance of this tension at a set level, a pr...
Adherent cells generate forces through acto-myosin contraction to move, change shape, and sense the ...
Cell contraction regulates how cells sense their mechanical environment. We sought to identify the s...
Living cells and tissues are constantly subjected to mechanical tension.1 This is apparent for force...
Studies of cellular mechanotransduction have converged upon the idea that cells sense extracellular ...
Mechanical forces are important regulators of connective tissue homeostasis. Our recent experiments ...
Many different cell types respond to substrate elasticity as sensitively as more well studied solubl...
Living organisms are made up of a multitude of individual cells that are surrounded by biomolecules ...