The proof of the control logic and components models has been performed by simulations predefined scenarios, i.e. with and without solar irradiance and with given energy demands by the user.
Evaluation of the entire control system is performed by simulation, which demonstrates its feasibility and effectiveness.
First a sensitivity analysis of the optical absorption for the intrinsic layer of a nano-disk patterned thin-film amorphous silicon-based solar cell as a function of TCO thickness (10 50 nm) was performed by simulation.
Several tests were performed by simulation to evaluate the control responses to different correlated series of input variables, such as feed grade, tonnage, particle size distribution, and solid percentage.
The experiments were performed by simulation (implemented in Java), where the sensor field is composed of (n) sensor nodes, with a communication range of (r_c), that are distributed in a two-dimensional squared sensor field (Q = [0, s] times [0, s]).
Taking in account several years of experience with calculation tools provided by United States Nuclear Regulatory Commission (U.S. NRC), the complex simulation is performed by simulations tools such as nuclear package SCALE, reactor core simulator PARCS and thermal-hydraulics code TRACE.
Evaluations of convergence as well as performance of the mechanism and the required amount of redundancy of the system are performed by simulations.
The validation of this hypothesis is performed by simulations of the reaction diffusion system in a representative tridimensional unit cell, coupled with a model of scaffold degradation by hydrolysis.
Sensitivity analysis has been performed by numerical simulation, starting from an initial Gaussian distribution of mean g0 and standard deviation σ.
The design optimization and performance analyses of the HI-SANS have been performed by Monte Carlo simulations.
