Both the grain size and the amount of twin boundaries are dependent on the processing parameters, which demonstrates that grain boundary engineering is applicable to those materials.
Both experimental and simulation results appear to be consistent with the results of measurements of the basic hygrothermal parameters, which demonstrates the robustness of the results.
Moreover, the presentation of the fuzzy balancing controller is not considerably affected by changes in the environmental parameters, which demonstrates the effectiveness of the fuzzy controller in minimizing the seesaw tilt angle in the time domain, although the system is caused by unpredicted loading variation.
In the second case, simulation results have proved that the expected transmission loss and the corresponding standard deviation vary in different direction with the change of different risk tolerance parameters, which demonstrates the effectiveness and validity of the proposed model.
Participants presented levels of blood pressure above the desirable parameters, which demonstrates a long-term additional factor of systemic deregulation and an increased risk of CVD, disability, and adverse health outcomes.
RDW is a parameter, which demonstrates variations in the dimensions of circulating erythrocytes (i.e. anisocytosis).
The only parameter which demonstrated a more significant change in the cemented group compared with that of the uncemented group was CD14/42a.
The databases are illustrated through point clouds of lamination parameter coordinates, which demonstrate the effect of applying common design heuristics, including ply angle, ply percentage and ply contiguity constraints.
Finally, we conduct the in-depth simulations under various parameter configurations, which demonstrate that our proposed robust power allocation scheme can achieve higher performance in comparison to the existing scheme in the literature.
Some experimental data from a tubular filter are presented, which demonstrate typical effects of the important parameters.
