The determination of the coverage profile is shown in Figure 2. The structural code coverage metrics of interest have to be formalized and based on that the coverage preservation criteria have to be determined.
The determination of the coverage profile for a given code transformation and the realization of a coverage-preserving compiler are not the focus of this article.
Figure 2 Determination of a coverage profile.
We have tested experimentally the recently developed theoretical model for the determination of surface coverage of spherical particle monolayer by means of diffusion current measurements.
Presently, various methods are reviewed that allow the accurate experimental determination of the coverage of bubbles by particles, under both stagnant and non-stagnant conditions.
Our results suggest that the voltammetric characterization of thin porous films may have practical applications for, e.g., detection and determination of surface coverage of bacteria, cells or other objects in the micron size range.
This study's focus on overdispersed datasets, and hence on the positive values of k familiar to biologists, has thus influenced the determination of CI coverage in some regions of parameter space.
We present a new method for determination of surface coverage of GNPs based on the linear relationship of the gold/sulfur (Au/S) ratio measured by ICP MS, and the GNP size, measured by TEM.
However, we find that due to the possible diversity of organisms and environments, and the confounding effects of the atmosphere and clouds, determination of substantial coverage by biologically produced pigments would be difficult with broadband colors alone and would likely require spectrally resolved data.
For determination of surface coverages, 5′-fluorescein, 3′- CH2 3-thiol-labeled oligonucleotides were used for preparing the DNA–nanoparticle conjugates [ 21].
Parallel voltammetric experiments allowed the determination of the surface coverage.
