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Controlled Synthesis and Optical Properties of Lanthanide-doped Na3ZrF7 Nanocrystals 被引量:3

Controlled Synthesis and Optical Properties of Lanthanide-doped Na_3ZrF_7 Nanocrystals
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摘要 In this paper,we report for the first time the controlled synthesis of lanthanide ion(Ln3+)-doped tetragonal-phase Na3Zr F7nanocrystals(NCs)via a high-temperature co-precipitation approach.The as-synthesized Na3Zr F7NCs are systematically studied by utilizing the XRD,TEM as well as high-resolution photoluminescence(PL)spectroscopy.The morphology and size for the as-synthesized Na3Zr F7NCs can be finely controlled by changing the experimental parameters such as the amount of precursor,solvent ratio,reaction temperature and time.By utilizing the red-emitting Eu3+ion as an efficient optical/structural probe,the successful hetero-valence doping of Ln3+activators in the lattices of Na3Zr F7NCs is well-established regardless of their different valences and radii between host Zr4+ion and Ln3+dopant.As a result,intense upconversion(UC)luminescence(UCL)ranging from UV to visible and to NIR spectral regions can be readily achieved after the doping of typical UCL couples of Yb3+/Er3+,Yb3+/Tm3+and Yb3+/Ho3+into the lattices of Na3Zr F7NCs when excited by using a 980-nm NIR diode laser. In this paper,we report for the first time the controlled synthesis of lanthanide ion(Ln^(3+))-doped tetragonal-phase Na_3Zr F_7 nanocrystals(NCs)via a high-temperature co-precipitation approach.The as-synthesized Na_3Zr F_7 NCs are systematically studied by utilizing the XRD,TEM as well as high-resolution photoluminescence(PL)spectroscopy.The morphology and size for the as-synthesized Na_3Zr F_7 NCs can be finely controlled by changing the experimental parameters such as the amount of precursor,solvent ratio,reaction temperature and time.By utilizing the red-emitting Eu^(3+)ion as an efficient optical/structural probe,the successful hetero-valence doping of Ln^(3+)activators in the lattices of Na_3Zr F_7 NCs is well-established regardless of their different valences and radii between host Zr^(4+)ion and Ln^(3+)dopant.As a result,intense upconversion(UC)luminescence(UCL)ranging from UV to visible and to NIR spectral regions can be readily achieved after the doping of typical UCL couples of Yb^(3+)/Er^(3+),Yb^(3+)/Tm^(3+)and Yb^(3+)/Ho^(3+)into the lattices of Na_3Zr F_7 NCs when excited by using a 980-nm NIR diode laser.
出处 《Chinese Journal of Structural Chemistry》 SCIE CAS CSCD 2018年第11期1737-1748,共12页 结构化学(英文)
基金 supported by the Strategic Priority Research Program of CAS(XDB20000000) the NSFC(Nos.21390392,21473205,and 21731006) Youth Innovation Promotion Association of CAS the Natural Science Foundation of Fujian Province(No.2017J01038)
关键词 lanthanide ion Na3ZrF7 NANOCRYSTALS upconversion luminescence lanthanide ion Na3ZrF7 nanocrystals upconversion luminescence
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