It can be seen that in the case of rocking-flexural and shear sliding failure modes, the simulation results are almost satisfactory, but in the case of diagonal shear failure, the simulation is highly erroneous.
By continuous wave excitation of the guided mode, the simulation results show that the T-shaped photonic crystal waveguide can flexibly tune the power in two output ports.
The mixed-mode device/circuit simulation results of CMOS inverter, NAND and the NOR gates based on these devices also show that at VDD=0.5 V the switching energy, static power dissipation and the propagation delay in the case of proposed underlap device are reduced by ∼10%, ∼35% and ∼25%, respectively, over the conventional overlap device.
Compared to the pixel-domain architecture with rate-distortion optimized mode decision, simulation results show that there is a negligible loss in quality incurred by the direct conversion of transform coefficients and the proposed transform-domain mode decision algorithms, while complexity is significantly reduced.
Whatever the saturated or non-saturated mode is used, the simulation results show that in CBR traffic mode, the average throughput of MMDA (CLFRF) and MMDA (MCBF) is close, but in VBR traffic mode the average throughput of MMDA (MCBF) is better than MMDA (CLFRF).
The features of the instability are close to those of the electron tearing mode reported in previous simulation results.
The influence of anisotropy, loss and dispersion of HMM on tunneling modes is discussed based on simulation results.
Both co-current and counter-current operating modes are investigated and the simulation results are compared with corresponding predictions for an industrial adiabatic fixed bed reactor operated at the same feed conditions.
In [15] and [16], SSI was used to extract the critical modes of the system from simulation results of test cases.
Performances of Bragg-CDG for TE and TM-mode are investigated, and the simulation results are consistent with the 1-D PC theory.
