Characterization of structure and role of different textures in polycrystalline Si films
Source abstract
Abstract
Abstract Plasma enhanced chemical vapor deposited polycrystalline Si films were prepared at 300 °C, with varying SiF 4 and/or H 2 flow rates under otherwise fixed conditions. The changes in the SiF 4 and/or H 2 flow rates caused changes in the structural properties, defects, and the surface morphology of the Si films. The occurrence of a dominant 〈1 1 0〉 texture for film with [H 2 ] = 0 sccm and under high SiF 4 flow rate corresponded with low hydrogen coverage. While with an increase in the hydrogen flow rate the 〈3 1 1〉 texture becomes a predominant plan for grains growth, suggesting a reduction in the grain size for 〈1 1 0〉 texture and an increase in the nucleation rate for 〈3 1 1〉 texture. The film surface roughness investigation shows that it greatly affected the grains orientation. Finally we found that the degree of preferred orientation is an important factor in controlling the oxidation of the film and its stability.
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Research context
OpenAlex topics: Thin-Film Transistor Technologies · Semiconductor materials and devices · ZnO doping and properties
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References (35)
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