Using a thin-film model, the depth of the degraded layer and its mechanical properties are also extracted.
Mechanical properties have been extracted from nano-indentation measurements, giving hardness values for TiN/AlN bilayer in the range of the reported values for TiN coatings.
In current work, a non-destructive contact ultrasonic approach and an associated testing procedure are presented and employed to quantify and relate the acoustically extracted mechanical properties of pharmaceutical compacts to direct porosity and tensile strength measurements.
Based on formulated functions, a reverse analysis with dual sharp indenters, which was previously proposed by the author, is improved to extract mechanical properties of materials.
Our results on interfacial friction and shear strength could have direct implication on the AFM three-point bending tests that are widely used in extracting mechanical properties of one-dimensional nanostructures including CNTs and NWs [37, 38].
A complementary set of approaches are non-invasive, using reverse inference methods to extract mechanical properties from cell geometries [ 14– 16].
The mechanical properties of the film were extracted by means of nano-indentations and impact tests, and compared to the corresponding ones of an effective state of the art (Ti46Al54 N coating.
The mechanical properties of each RVE were extracted from the modeling results of the RVE undergone three load tests, i.e., uniaxial tensile test, lateral expansion test, and axial torsional test, using appropriately derived formulae.
Such storage did not alter mechanical properties when compared to freshly extracted samples.
Finally, we made use of embryos in which myosin phosphorylation is increased and extracted the mechanical properties of the amnioserosa using the same framework.
