The results of this study show that the increased discharge rates result in increased surface temperature distributions on the principal surface of the battery.
The present results show that increased discharge rates and increased operating temperature results in increased temperature of the cold plates.
Furthermore, it is observed that increased discharge rates and increased operating conditions or BCs result in increased surface temperature distributions of the battery.
In general, on-elements gave an increased discharge when the light was switched on, and an inhibition of the background discharge when the light was switched off.
Warm receptors respond in a similar fashion to that of cold receptors, except that they show a dynamic response of increased discharge frequency to warming and a transient inhibition of discharge to cooling.
Higher levels in spring were possibly due to increased discharge and organic matter (Adams 2003).
This increased discharge leads to a 58% increase in the maximum WUA for the fish community.
The use of modified increased discharge inflow hydrograph shape resulted in higher solute uniformity.
Whereas, at increased discharge energy the EDG/EDM action becomes prominent (Satyarthi and Pandey 2013b) and results in increased SR.
The increase in servo voltage leading to an increased discharge gap causes the reduction of the spark intensity.
The increased SR may be attributed to the formation of bigger size craters due to increased discharge energy and grain dislodgement due to increased feed rate.
