Sentence examples for evolution efficiency of from inspiring English sources

Then, a local search strategy based on shreds is performed, which further improves the evolution efficiency of the population in complex search space.

The Mn-Fe-V anode was the most stable electrode during the sea water electrolysis, and maintained an oxygen evolution efficiency of 87.96% even after 500 h.

When sufficiently thick oxides are deposited, all the oxide anodes containing 8 mol% or more molybdenum in cationic percentage show an initial oxygen evolution efficiency of almost 100% at a constant current density of 1000 A·m−2 in 0.5 M NaC1 solution at pH 12 and 30°C.

It has been found that the exfoliation is remarkably suppressed when the oxide is deposited under vigorous oxygen evolution at high temperature of 90°C, high current density of 600 and−2 and low electrolyte pH of 0. The anode prepared under this condition reveals an oxygen evolution efficiency of more than 99.6% even after 1500 h of the electrolysis at 1000 A·m−2.

Figure 7 Oxygen evolution efficiency of MnO 2 and Mn 1− x Mo x O 2+x in 0.5 M NaCl of pH 12 at 30°C and 1,000 Am −2 [[10]].

It has been found that the main reason for the eventual decrease in oxygen evolution efficiency was partly because of the peeling and electrochemical dissolution of the oxide layer after electrolysis.

Also, it was found that the addition of iron and vanadium would maintain a high level of oxygen evolution efficiency during electrolysis.

Furthermore, a comparative study on the recent developments in terms of hydrogen evolution efficiency along with a mechanistic approach is also described.

Manganese molybdenum double oxides, Mn1−xMoxO2+x, prepared by anodic deposition from MnSO4 Na2MoO4 solutions showed the 100% oxygen evolution efficiency at a current density of 1000 A m−2 in 0.5 M NaCl at 30 °C and pH 12, but an increase in solution temperature resulted in dissolution of the oxides as molybdate and permanganate ions.

The formation of the triple oxides seemed responsible for enhancement of both oxygen evolution efficiency and stability.

The optimal photocatalytic hydrogen evolution efficiency was achieved when the surface of CdS/SrTiO3(3) was coated with 0.2 wt% of PtO; the hydrogen evolution rate of 0.2PtO/CdS/SrTiO3(3) was about 6 times higher than that of CdS, 4 times higher than that of CdS/SrTiO3(3), and 2.5 times higher than that of 0.3CuO/CdS/SrTiO3(3).