Isodose curves, cumulative dose values, and system design data such as throughputs, over-dose-ratios, and efficiencies have been simulated as functions of product density.
Dispersions of phase velocities, electromechanical coupling coefficients K2, temperature coefficient of delay (TCD) and sensitivity in the multilayer structures were simulated as functions of normalized thicknesses of ZnO (hZnO/λ) and TeO2 (hTeO2/λ) films.
The current transient and its derivative were simulated as functions of equilibrium stoichiometry through the numerical analysis for lithium transport under the condition for potentiostatic lithium injection into the electrode subjected to the limitation placed by the 'pinning' of the phase boundary and the impermeable constraint to lithium.
Based on the stress-induced nucleation model for transformation, the change in the reverse transformation IF by the prestrain could be simulated as a function of both the prestrain and vibration frequency.
Using the transfer function method, the sequential expression of the three genes can be simulated as shown in Figure 11 d).
Water fluxes between soil layers and into the fine roots are formulated as functions of water potential gradients and resistances, while leaf gas exchange is simulated as a function of stomatal conductance and leaf-air mole fraction differences.
Gas and adsorbed compounds were simulated as a function of reactor length in different unmeasured conditions, which simulations can be used as a tool in catalyst reactor design.
The single-cell output of such networks was simulated as a function of noise entity; their population-averaged output was computed and used to investigate the expected variability in transfer function identification.
The pH and the current density evolutions are simulated as a function of the immersion time and the results are compared with measurements.
The CVs were simulated as a function of the scan rate at various chemical diffusivities, D̃Li+ of lithium in the oxide by numerical analysis, assuming 'cell-impedance controlled' lithium transport across the electrode ∣ electrolyte interface.
