In this paper, a process simulation model was developed to predict the film thickness distribution by understanding system design parameters that affect the uniformity of film thickness.
What qualitative research studies lack in scale they often make up for in depth or "thickness" of understanding in addressing issues that could not otherwise be tackled (see below and Table 2 for examples).
The insight gained into the role of particle matrix debonding extent and inclusion wall thickness is useful in understanding the possible failure mechanisms of syntactic foams under tensile and flexural loading conditions and in tailoring their parameters for specific applications.
Understanding the effect of thickness on the mechanical properties of these films is crucial for their applications.
A rational design with thin plies requires understanding the effect of ply thickness on each damage mechanism.
Maps of magnetic thickness and magnetization can be valuable in understanding further the temperature, composition, and structure of Earth's lithosphere.
Understanding the effect of (1) insulator thickness and (2) electrode kinetics on electric field distributions in the singularity-induced micro-electroporation configuration is particularly important.
Consequently, understanding the normal baseline peripapillary choroidal thickness may aid in elucidating the pathophysiology of these diseases, and might be a useful tool in clinical detection.
In order to predict the impacts (or DDS reached) to a system the understanding the hazard and its intensity (e.g., ashfall thickness) is vital.
Understanding the sources of the intersubject variability is central to the understanding and improvement of RNFL thickness measurements as a test for glaucomatous damage.
