The mechanism of mechanotransduction, i.e., how mechanical forces are converted into biochemical activities inside the cell is a central question in cell biology.
Mechanical forces are known to influence the expression of certain genes in mechanically stimulated cells when compared to non stimulated cells [52], [54], [55].
Mechanical forces are central to developmental, physiological and pathological processes1.
Whether mechanical forces are transduced directly through cadherins is unknown.
Studies in lab-grown cells suggest that mechanical forces are as important in regulating biological function as chemicals and genes.
PTH is the major determinant of all remodeling, structural as well as homeostatic; mechanical forces are the major determinant of where that remodeling occurs.
Mechanical forces are increasingly recognized to regulate morphogenesis, but how this is accomplished in the context of the multiple tissue types present within a developing organ remains unclear.
These mechanical forces are important in cellular division, a highly orchestrated process that when it goes wrong can lead to cancer and birth defects.
Passive mechanical forces are the product of mechanical instabilities that trigger out-of-plane buckling and clefting deformations of adjacent tissues.
Mechanical forces are an important contributor to cell fate specification and cell migration during embryonic development in animals.
The method can transform one simple glass slide into a micro-scale flow cell (through double-sided tape), and no hydrodynamic or mechanical forces are required to isolate and extend DNA molecules (Figure 1a).
