Scanning rates can be high in some systems a line of image is scanned every 0.488 millisecond (one millisecond is one thousandth of a second)—so a sequence of images showing how a specimen changes over time can be easily assembled.
Figures 4 and 5 show knit specimen changes in weight and thickness.
This observation was consistent with the visual observations where appearance of the coated specimen changed from colourless metallic to brownish grey on curing from 200 °C to 400 °C temperature.
Test results showed that both the strength and deformation of specimen changed with the variation of sea sand Cl− content and RCA replacement percentage.
Since the optical focus at each local spot of the fractured specimen changes due to unevenness of the specimen surface, the microscope system captured observation images at every 3 μm along the out of plane direction from the deepest level to the highest level of the fractured surface.
As it has been presented, micro-CT imaging technology coupled with 3D reconstruction based on the volumetric specimen changes allows more accurate evaluation of Poisson's ratio for bovine EOM specimens.
The reduction in the pore-water pressure after the peak indicates that the specimens change from contractive to dilative behavior during shear, as illustrated by the effective stress paths shown in Fig. 17.
The reduction in the excess pore-water pressure after the peak indicates that the specimens change from contractive to dilative behavior during shear, as illustrated by the effective stress paths shown in Fig. 11.
It may thus be that when kept at ambient temperatures, as expected in a countrywide anti-tuberculosis drug resistance survey, specimens change in such a way that cross-reacting substances are generated.
