In [14], using numerical optimization, optimal operators are preliminary derived for ridge and roof edges, and then specialized for step edges.
Therefore, we also develop pair-perturbation influence functions for the direction of the optimal response in ridge analysis to uncover the masked unusual points while applying a single-perturbation scheme.
However, if there are outliers in the data, the direction of the optimal response found via ridge analysis will, of course, be affected.
The purpose of this study was to examine the effect of soil ridging and plastic film, covering the ridges, on rainwater harvest and alfalfa yield and to identify the optimal design of the ridge-furrow system.
Based on the analysis result of ridge max, the optimal enzymatic synthesis conditions were predicted as follows: reaction time 6.7 h, temperature 30.6 °C, enzyme amount 34.5%, substrate molar ratio 1 4.3; and the optimal actual yield was 93.2%.
Using the ridge analysis the optimal conditions are: Equilibrium contact time for the removal of Pb II) was 136 min, whereas the optimum amount of adsorbent dose was 0.4 g and pH was 5.4.
Future advancement can be achieved when an overlap of this flood exposure with the central non-exposed ridge ensures an optimal slope pinning to the upper level without any kink and consequently enhances the overall characteristics of 3D topographies.
The optimal conditions forthe TAA obtained using ridge analysis were 54%, 61 °C, 64 min and 49%, 64 °C, 60 min, for whole grain and bran of soft wheat, respectively.
In a ridge max analysis, the optimal condition for α-chymotrypsin immobilization included a reaction temperature of 21.7 °C, a pH of 7.6, and an incubation time of 1.1 h.
The estimated ridge of maximum responses and optimal conditions for Y1 and Y2 using canonical analysis were 100% and 67.27%, respectively.
