Comparative analysis of Ga2O3/In2O3 incorporation in (Co-ZnS/Se) chalcogenide composite materials
Source abstract
Abstract
By comparing the basic properties of the new materials, the doping mechanism and design principles can be comprehended more clearly. The exploration and scientific assessment of applied fields for new compounds is still lacking. Here, a new material (In2O3/Ga2O3)0.1(Co)0.5(ZnS/Se)0.4 ceramics were fabricated via the solid-state sintering, and the thin films with same composition were obtained by PLD method at 25 °C-2 Pa and 800 °C-12 Pa. The crystal structure in ceramics but the amorphous structure in thin films was confirmed by XRD. The physics growth mode of island and layer-plus-island for this film were established. The morphology of the film was characterized by AFM and SEM. Chemical valence +3, +2 and +3, +3 of In, Ga and Co, respectively, were proved by XPS. Ga-Co, Ga/In-O and ZnS Bonds vibration information was tested by Raman spectra. The more abundant energy level and smaller optical band gap in (In2O3)0.1(Co)0.5(ZnS/Se)0.4 was reflected by optical properties. The better electric direction application potential in (Ga2O3)0.1(Co)0.5(ZnS/Se)0.4 was confirmed by Hall Effect testing. What's important, the ability to alter the basic properties of materials according to our requirement by changing the different doping elements had been achieved.
Source: openalex_inverted_index · Quality: baseline
Research context
OpenAlex topics: Ga2O3 and related materials · ZnO doping and properties · Transition Metal Oxide Nanomaterials
SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.
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