This chapter briefly describes how cell-generated mechanical forces (both by individual cells and multicellular systems) can be measured and quantified in vitro by traction force microscopy (TFM), and discusses their implications in biology. We highlight some of the most relevant works performed in this area of research with particular attention to their applications in musculoskeletal tissue engineering and regenerative medicine. This chapter is meant to provide a quick and concise guide about the use of in vitro tools to quantify mechanical forces, providing a valuable and straightforward resource for researchers for their cell mechanicsebased studies
The interactions between biochemical processes and mechanical signaling play important roles durin...
Animal cells sense and transduce physical forces. In everyday physiological activities, tissues com...
One challenge in biotribology is a complete explanation of cell motility. As the basic unit of life,...
Cells generate mechanical forces (traction forces, TFs) while interacting with the extracellular mat...
This report outlines the formulation of a procedure to study the relationship between cytoskeletal s...
While performing several functions, adherent cells deform their surrounding substrate via stable adh...
While performing several functions, adherent cells deform their surrounding substrate via stable adh...
AbstractThe interactions between biochemical and mechanical signals during cell adhesion, migration,...
Animal cells continuously sense and respond to mechanical force. Quantifying these forces remains a ...
The interactions between biochemical and mechanical signals during cell adhesion, migration, spreadi...
Quantitative measurements of cell-generated forces have heretofore required that cells be cultured o...
This thesis deals with methods used to measure cell traction forces. In order to study and measure t...
Measuring cell-generated forces by Traction Force Microscopy (TFM) has become a standard tool in cel...
The physical basis of disease has been neglected in the current focus of medicine despite evidences ...
AbstractThe measurement of cellular traction forces on soft elastic substrates has become a standard...
The interactions between biochemical processes and mechanical signaling play important roles durin...
Animal cells sense and transduce physical forces. In everyday physiological activities, tissues com...
One challenge in biotribology is a complete explanation of cell motility. As the basic unit of life,...
Cells generate mechanical forces (traction forces, TFs) while interacting with the extracellular mat...
This report outlines the formulation of a procedure to study the relationship between cytoskeletal s...
While performing several functions, adherent cells deform their surrounding substrate via stable adh...
While performing several functions, adherent cells deform their surrounding substrate via stable adh...
AbstractThe interactions between biochemical and mechanical signals during cell adhesion, migration,...
Animal cells continuously sense and respond to mechanical force. Quantifying these forces remains a ...
The interactions between biochemical and mechanical signals during cell adhesion, migration, spreadi...
Quantitative measurements of cell-generated forces have heretofore required that cells be cultured o...
This thesis deals with methods used to measure cell traction forces. In order to study and measure t...
Measuring cell-generated forces by Traction Force Microscopy (TFM) has become a standard tool in cel...
The physical basis of disease has been neglected in the current focus of medicine despite evidences ...
AbstractThe measurement of cellular traction forces on soft elastic substrates has become a standard...
The interactions between biochemical processes and mechanical signaling play important roles durin...
Animal cells sense and transduce physical forces. In everyday physiological activities, tissues com...
One challenge in biotribology is a complete explanation of cell motility. As the basic unit of life,...