Thin films and devices can be studied with grazing-incidence small and wide angle scattering.
Using in vitro models, the mechanics as well as surgical techniques for mitral valves (MV) and MV devices can be studied in a more controlled environment with minimal monetary investment and risk.
The performance of preferred device infrastructure can be studied by estimating stress-induced mobility gain.
Finally, the potential of simultaneous transmission and reception to provide fast discovery on the context of device-to-device (D2D) communication can be studied.
Alternative designs can be compared and the mechanisms affecting device efficiency in class-F can be studied at chip-level.
This device can be used to study barrier integrity and the kinetics of nanomaterial induced damage to epithelial barriers in physiologically relevant conditions.
This device can be useful for studying the effects of localized pH or osmotic gradients inside myocytes, estimating intracellular ion diffusion rates, and inducing regional changes in other important intracellular ions.
The NMR signal and T 1 values obtained from the large format container with the single-sided sensor suggested that this device can be used to study tomato paste spoilage in factory process environments.
In conclusion, the device can be used in basic studies of retinal vessel behavior.
To provide the difference in power between the synthesized and the original profiles, an electricity storage device can be added to the microgrid under study.
