Therefore the complexity of the interplay of these parameters on the properties of protein layers requires a highly accurate experimental approach in order to achieve systematic model descriptions [1].
The interplay of those parameters determines the selection of the appropriate technology for burning the various types of solid fuel: various ranks of coal, biomass, petroleum coke, and waste-based energy sources.
In the endeavour to assess the risks for humans during long-duration space missions, it is necessary to understand already at the cellular level the complex interplay of these parameters.
Altogether, the complex interplay of these parameters represents a "dynamic" system in data generation and interpretation.
The spatial extent of both regions depends on the interplay of the deposition parameters, especially the target current (power) and the inductively coupled plasma (ICP) power.
It was determined that oblique spray angles and long stand-off distances compromise the coating properties but in some cases, the interplay of the kinematic parameters produced non-linear behaviours.
In the analysis reported in this paper, we focus on the dynamics and interplay of the key model parameters and their effect on model output(s).
Interpretation of DLS data involves the interplay of multiple parameters, however, including the size, concentration, shape, polydispersity and surface properties of the particles.
Especially, by taking advantage of the subtle interplay between the parameters controlling NPs formation in aerosol process, it is possible to obtain either a continuous, three-dimensional network of particles (present a matrix structure) or a hollow structure.
The statistical power of a toxicology study is determined by the interplay of three key parameters: the numbers of animals in each group to be compared, the underlying background variation in the value of a given parameter in the species population being studied, and the size of the effect produced by the test material administered.
