Sentence examples for behavior of the oxide from inspiring English sources

Specifically, during the MAO process on titanium, we varied the applied voltage and pH value of the electrolytes, and observed the behavior of the oxide layer formation and discharge channel evolvement in several stages as a function of treatment time.

In an attempt to develop new methods to fabricate in-situ catalytic layers for microreactor, the plasma electrolytic oxidation (PEO) process for coating deposition was utilized and the growth behavior of the oxide film was studied.

The EIS analysis presented here takes advantage of the high-frequency domain at which the constant-phase element (CPE) behavior of the oxide film reverts to a capacitive response and the Cole-Cole representations of the complex capacitance to extract the high-frequency capacitance of the oxide film without reference to the nature of the time-constant distribution within the oxide film.

These results can be associated with a semiconducting/oxide-like behavior of the oxide film.

According to the impedance spectra in the metal/oxide/electrolyte configuration, the equivalent circuit, shown in Figure 2, represents the impedance behavior of the oxide films.

The results can only be consistently interpreted by an at least partial removal or detachment of the carbon layer, partially restoring the initial impedance and the semiconducting behavior of the oxide.

The electrical conductance behavior of the oxides LaMO3 was also considered as an important parameter that affected to sensitivity of the sensors Pt/YSZ/LaMO3, particularly in the high operating temperature.

Three potential ranges resulting in different cycling behaviors of the oxide EC have been identified.

The microstructure, composition and oxidation behavior of the aluminum oxide films were characterized respectively by transmission electron microscopy, Auger electron spectrometer and derivative thermogravimetry.

A conceptual separation between the electrochemical behavior of (1) the oxide layer (visible in the higher frequencies of EIS) and (2) the oxide layer – solution interface (visible in the lower frequencies of EIS) was able to explain the effect of hydrogen on the low-frequency EIS impedance results.

The reaction behavior of this oxide residue is detailed and discussed for the development of long-life zinc electrodes.