One electrode is used as 'fixed' electrode, influencing the other attracting electrode's pull-in voltage.
The type of top electrode influences the values of parasitic resistances, open circuit voltage and short circuit current.
The composition of the electrode influences the mechanism controlling the interface.
In this report, we aim to investigate how the thickness of Si-based electrode influences the cycling performance, rate performance and impedance.
Cycle testing of the NCM/graphite cell shows that a moisture content in the negative electrode influences capacity fading more significantly than in the positive electrode.
For the hybrid supercapacitor it was observed that the ruthenium-based positive electrode influenced the capacitive performance of carbon-based negative electrode and that an accurate balance of carbon loading in the negative electrode was necessary.
The active state, combined with diffusion mechanisms within the cylindrical pores, contributed to the functionality of the particles according to the LiCoO2/AC content, and surface characteristics of the electrode influenced the impedance distribution.
A detailed electrochemical study was performed to elucidate how surface morphology and redox reaction behaviors underlying these electrodes influence the cyclic behavior of the electrode.
Using [EMIm][BF4] as an example we demonstrate that the physical properties of the activated carbon used in the electrodes influence the permissible operating potential of an EDLC, and also that the binder material employed can have further effects.
