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Optical characterization of antimony-based bismuth-doped thin films with different annealing temperatures

Optical characterization of antimony-based bismuth-doped thin films with different annealing temperatures
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摘要 Antimony-based bismuth-doped thin film, a new kind of super-resolution mask layer, is prepared by magnetron sputtering. The structures and optical constants of the thin films before and after annealing axe examined in detail. The as-deposited film is mainly in an amorphous state. After annealing at 170- 370 ℃, it is converted to the rhombohedral-type of structure. The extent of crystallization increased with the annealing temperature. When the thin film is annealed, its refractive index decreased in the most visible region, whereas the extinction coefficient and reflectivity are markedly increased. The results indicate that the optical parameters of the film strongly depend on its microstructure and the bonding of the atoms. Antimony-based bismuth-doped thin film, a new kind of super-resolution mask layer, is prepared by magnetron sputtering. The structures and optical constants of the thin films before and after annealing axe examined in detail. The as-deposited film is mainly in an amorphous state. After annealing at 170- 370 ℃, it is converted to the rhombohedral-type of structure. The extent of crystallization increased with the annealing temperature. When the thin film is annealed, its refractive index decreased in the most visible region, whereas the extinction coefficient and reflectivity are markedly increased. The results indicate that the optical parameters of the film strongly depend on its microstructure and the bonding of the atoms.
出处 《Chinese Optics Letters》 SCIE EI CAS CSCD 2011年第10期67-70,共4页 中国光学快报(英文版)
基金 supported by the National Basic Research Program of China (No. 2007CB935402) the National Natural Science Foundation of China(Nos. 50872139 and 60644002)
关键词 Amorphous films Annealing BISMUTH Optical constants Refractive index Thin films Amorphous films Annealing Bismuth Optical constants Refractive index Thin films
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