Multicolor Photoluminescence in ITQ-16 Zeolite Film

doi:10.1007/s40242-016-6079-5

Abstract

Abstract:

Exploring the native defects of zeolites is highly important for understanding the properties of zeolites, such as catalysis and optics. Here, ITQ-16 films were prepared via the secondary growth method in the presence of Ge atoms. Various intrinsic defects of ITQ-16 films were fully studied through photoluminescence and FTIR characterizations. It was found that both the as-synthesized and calcined ITQ-16 films displayed multicolor photoluminescence including ultraviolet, blue, green and red emissions by exciting upon appropriate wavelengths. The results indicate that Si-OH and non-bridging oxygen hole centers(NBOHCs) are responsible for the origin of green and red emissions at 540-800 nm, while according to a variety of emission bands of calcined ITQ-16 film, blue emission bands at around 446 and 462 nm are attributed to peroxy free radicals(≡SiO₂·), ultraviolet emissions ranging from 250 nm to 450 nm are suggested originating from a singlet-to-triplet transition of two-fold-coordinated Si and Ge, respectively.

Key words: Zeolite beta, Film, ITQ-16, Defect, Photoluminescence

CHEN Yanli, DONG Xinglong, ZHANG Zhenyu, FENG Lai. Multicolor Photoluminescence in ITQ-16 Zeolite Film[J]. Chemical Research in Chinese Universities, 2016, 32(5): 713-718.

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