During the 1st cycle, the voltage plateau appears at ~0.7 V mainly due to the reduction of Fe3+ and Fe2+ to Fe0, and then the curve slopes down to the cut voltage of 0.01 V, which are typical characteristics of voltage trends for the Fe3O4 electrodes [22, 23, 24, 25, 26].
The metrics in the screenshot are, from upper left to bottom right, system frequency, area control error (ACE), power flow, voltage magnitude trend, mode trend, key voltage profile, voltage sensitivity, and oscillation damping ratio.
DFTs (voltage and energy) trended higher for lower LVEF but this trend is not statistically significant (P = 0.58 for DFT voltage and P = 0.69 for DFT energy).
The proposed method calculates ICC values by capturing the off-trend voltage drop and the voltages are extracted from Service and Management Center of electric vehicles.
In this experiment, increasing the deposition potential to 1.7 V reduced the ECD signals for all concentrations of ricin compared to results using lower deposition voltages; however, this trend was not observed using fluorescence detection.
As indicated in SEM images, the effect of voltage shows the same trend for all three configurations of the nozzle.
It is found that the current of the circuit decreases with the increasing of load resistance while the voltage has a reverse trend.
The BTBT barrier width at the source side gradually decreases with the increasing of the Gate1 voltage, but this decreasing trend starts to saturate when the Gate1 voltage is higher than 1 V.
These points were easily recognizable as the deteriorated strongly from the general trend of voltage decrease below the 3 V stated above, however it is likely that the other points are also biased through this effect, although probably only slightly.
The sp3 contents calculated by using Raman spectra and the surface hardness values as a function of substrate pulse voltage showed the similar trend with the residual stress values.
