Effects of Bi3+ Ion-Doped on the Microstructure and Photoluminescence of La0.97Pr0.03VO4 Phosphor | Zendy

Hao-Long Chen | Zendy; Hung-Rung Shih | Zendy; Sean Wu | Zendy; YeeShin Chang | Zendy

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Effects of Bi3+ Ion-Doped on the Microstructure and Photoluminescence of La0.97Pr0.03VO4 Phosphor

Author(s) -

Hao-Long Chen,

Hung-Rung Shih,

Sean Wu,

YeeShin Chang

Publication year - 2021

Publication title -

advances in technology innovation

Language(s) - English

Resource type - Journals

eISSN - 2518-2994

pISSN - 2415-0436

DOI - 10.46604/aiti.2021.5635

Subject(s) - phosphor , chromaticity , photoluminescence , doping , materials science , ion , monoclinic crystal system , analytical chemistry (journal) , crystal structure , optoelectronics , chemistry , optics , crystallography , physics , organic chemistry , chromatography

The objective of this paper is to enhance the emission intensity of La0.97Pr0.03VO4 single-phased white light emitting phosphor. The Bi3+ ion-doped La0.97Pr0.03VO4 single-phased white light emitting phosphors are synthesized using a sol-gel method. The structure and photoluminescence properties of (La0.97-yBiy)Pr0.03VO4 (y = 0-0.05) phosphor are also examined. The XRD results show that the structure of La0.97Pr0.03VO4 phosphors with different concentrations of Bi3+ ion doping keeps the monoclinic structure. The SEM results show that the phosphor particles become smoother when the Bi3+ ion is doped. The excitation band for La0.97Pr0.03VO4 phosphor exhibits a blue shift from 320 nm to 308 nm as the Bi3+ ion contents are increased. The maximum emission intensity is achieved for a Bi3+ ion content of 0.5 mol%, which is about 30% greater than that with no Bi3+ ion doped. The CIE chromaticity coordinates are all located in the near white light region for different Bi3+ ion-doped La0.97Pr0.03VO4 phosphors.

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