A range of optical and mechanical experiments are performed on composites and surrogate systems in order to quantify properties and guide system design.
Classical systems engineering approach is not always suitable to manage such feature, and new tools and methods are required, capable to identify, analyze and quantify properties of the system-of-systems as a whole.
Models developed from vis NIR and mid-IR spectral libraries are effective and useful to quantify properties suggesting soil mineralogy, reactivity, fertility and acidity of tropical Brazilian soils; however, mid-IR is the greatest potential spectral range.
Therefore, in addition to features directly describing epithelial cells, we also quantify properties of epithelial nuclei, which are available from the segmentation described above.
The relation between the quantified property change and the radiant exposure has been modelled.
For texture, it is a measure of the intensity variation of a surface which quantifies properties such as smoothness and regularity.
Texture is a measure of the variation of the intensity of a surface, quantifying properties such as smoothness, coarseness, and regularity.
The distributions of these quantified properties across the media thickness were characterized and their relationship with the mechanical properties from a previous study was determined.
In this study, we approach the problem by quantifying properties of internal bone architecture that may reflect different loading patterns in metatarsophalangeal joints in humans and great apes.
To date, the fibre-type dependent findings related to contractile properties have not been replicated in the exercising human given the methodological constraints addressed earlier of isolating fibre-type contributions to whole-body locomotion [84], quantifying properties of diffusion and other factors associated with intramuscular blood supply [85, 86].
