The phrase "analysis of the oxide" is correct and usable in written English.
It can be used in scientific or technical contexts when discussing the examination or study of oxide materials or compounds.
Example: "The analysis of the oxide revealed significant impurities that could affect its performance in the application."
Alternatives: "examination of the oxide" or "study of the oxide".
An in-depth XPS analysis of the oxide layer for 18 M and 10 M solutions detected a gradual decrease in the oxidation number of iron as well as the reduction of sulphate ions to sulphides and the formation of iron sulphides in the bottom part of the oxide layer.
XPS analysis of the oxide layer formed on Pt electrodes in sulfuric acid has been performed.
Recorded temperature profiles, SEM analysis of the oxide agglomerates as well as calculations of the metal oxygen equilibrium thermo-chemistry for the three metals confirm this scenario.
The compositional analysis of the oxide coating using EDX and XRF revealed that the cathodizing induced the selective consumption of tantalum oxide in the outermost layer.
The macroscopic texture and grain misorientation analysis of the oxide films showed that the improved corrosion performance and reduced hydrogen pick up can be correlated with increased oxide texture strength, the improved oxide grain alignment resulting in longer, more protective columnar grain growth.
The M S analysis of the oxide layer on nickel alloy C22 shows that the oxide film on the nickel alloy is semiconducting when formed in both 0.1- and 1-M KOH solutions.
Mott Schottky analysis of the oxides was used to evaluate the relationship between parent metal composition and oxide properties, namely flat band potential and donor density.
Thermal analysis of the uranium oxide indicated the entrapment of nearly 5% of electrolyte, bmimCl, during electrodeposition, which decomposes in the range 553 653 K.
A comprehensive fundamental analysis of the manganese oxide deposition and transformation processes is presented with the emphasis on the evolution of the deposited layer morphology.
Complex plane analysis of the formed oxide film indicates that the corrosion resistance increases as the concentration of chloride ions increases.
Complementary, in-depth chemical analysis of the surface oxide regions of the coatings by means of X-ray photoelectron spectroscopy (XPS) was performed and revealed that the surface oxide composition is primarily determined by the oxygen concentration in the coating bulk.
