In the present work, the correlation between these two mechanical properties on the one hand, and the pulse velocity on the other, was studied.
Since the cell is being formed under the influence of an external mechanical field, its mechanical properties, on the one hand, should be such that they enable it to function under the conditions of this field.
In physical metallurgy, the study of relationships between macrostructure, microstructure, and atomic structure on the one hand and physical and mechanical properties on the other has broadened from metals to other materials such as ceramics, polymers, and composites.
Our work aims at knowing the impact of substrate mechanical properties on those adhesion and motility mechanisms by modifying bulk rigidity, surface energy and composition of a bio-compatible poly-di-methyl-siloxane (PDMS) substrate.
Therefore, the stress-strain response embodies the dependence of mechanical properties on the strain rates.
Organic plastic materials also demonstrate a strong dependence of fiber mechanical properties on temperature.
Material microstructure and the mechanical properties on the extrudates cross-section were also explored.
The composite and versatile structure of the cytoskeleton confers complex mechanical properties on cells.
The effects of the plate mechanical properties on the vibration amplitude and sound radiation were investigated.
However, the effects of the substrate's mechanical properties on electrical contact conductance are not fully understood.
