In the experimental measurements we assume constant scattering, therefore we are not trying to estimate the perturbation, Δ D r, λ), as was done in simulations.
If the same had been done in a simulation in which the Ca2+ diffusion was modeled deterministically, a significant difference would not have been noticed, because the [Ca2+] at the RyR would have been the same, or more precisely, would have varied with the same mean, in each run.
While much work has been done in protocol and system design, simulation, and experimental study for wireless ad hoc and sensor networks, the theoretical research, however, falls short of the expectation of the future networking deployment.
Simulation has been done in 45 nm CMOS environment.
Simulation has been done in the time domain with CST microwave studio commercial software.
To show the limitation of DGKD, simulation has been done in a relatively large-scale environment without kidnapping happening under the conditions shown in Table 1.
The simulation has been done in static and moving ground case scenarios for different yaw angles ranging from −30° to 60°.
A simulation has been done in which we assume that P 1 N 0 = P 2 N 0 = SNR p. We vary SNR p and evaluate the corresponding probability of PDCG.
Dark-matter simulations have been done in the past, but because sufficient computing power has not been available until recently, these earlier simulations had grains that were the size of thousands of galaxies.
To carry out this objective, some simulations have been done in Matlab.
