From the above analysis, it can be found that compared with the comparative analysis of unfair/fair rate allocation in [9], the fairness of the proposed algorithm is more or comparable in each cases for cellular users.
From the simulation results, it can be found that, compared with the old model, the new one can more accurately approach the actual R-Q relation.
It can be found that compared to base water, the average viscosities of TiO2 nanofluids increased by 17, 50, and 78% for 3, 6, and 9 wt.% of particles' loading, respectively, at 20 °C.
Based on an analysis of the material removal mode, it can be found that compared with the other crystal direction on the same crystal plane, the (100)[0 10], (110)[−110], and (111)[−101] directions are more suitable for ductile cutting.
As shown in the edges indicated by the circle in Figure6, it could be found that compared with that on 6-nm-thick seed layer, the fluctuation amplitude and frequency of the roughness for the 50-nm-thick seed layer are larger and smaller than those for the 6-nm-thick seed layer, respectively, which may be caused by stack of the ZnO nanoparticles.
It can be found that, compared to Fig. 1b, c, the sample aluminized at higher temperature has more nucleation islands with smaller average diameter, hence leading to the increase of AlN NW density and decrease of the average diameter with aluminization temperature.
This solution is found that compares favorably with numerical simulations.
It can be found that comparing with the non-reciprocating legged gait, the locomotion performance of the mechanism is significantly improved by the optimized gait.
It was found that compared to OA, the novel LHA achieved superior results.
It was found that, compared with conventional HPHS, GPHS can effectively improve the hydraulic and thermal performances simultaneously.
It was found that compared with normal SHCC, the GO reinforced SHCCs show an obvious improvement in mechanical behavior.
