In this research, we extend Implicit Monte Carlo Diffusion (IMD) to account for frequency dependence, and we implement the difference formulation[2] as a source manipulation variance reduction technique.
The finite volume method [26] is used to implement the difference schemes for boundary temperature points, and the total probability in the system will always be unity due to the trapezoidal rule.
The fixed-effect model was chosen because of the small number of trials available for each comparison, and difficulty in estimating between studies variance, if random-effect model, was implemented, and the difference in DIC was less than 5.
This chapter presents a reconfigurable hardware accelerator that implements the finite difference time domain (FDTD) method.
A quantitative analysis for determining how conservative the results from the analytical solution are with respect to results obtained with a commercial software implementing the finite-difference method is presented.
The suggested formulation (denominated j-formulation) is applied to three common types of MHD wall-bounded flows by implementing the finite-difference technique: (i) high Hartmann number fully developed flows in a rectangular duct with conducting walls; (ii) quasi-two-dimensional duct flow in the entry into a magnet; and (iii) flow past a magnetic obstacle.
In our model, for simplicity, we implemented the asymmetrical divisions by random differences of the heritable characteristics taken from a Gaussian distribution.
This may be due to the inclusion of some less experienced staff in the later cohort and greater recognition in Liberia of what management skills included as the Basic Package of Health Services was implemented; however, the differences in baseline self-rated management skills of the third cohort was not statistically significant (P-values > 0.05).
We are especially interested in how the different institutions will be able to implement the training, what the differences between their respective study participants are and how this is mirrored in the effect(s) of the training.
We implement the staggered finite-difference algorithm to solve the coupled partial differential equations for the scattered electrical fields.
