• Laser & Optoelectronics Progress
  • Vol. 58, Issue 15, 1516003 (2021)
Xinquan Zhou1 and Zhiguo Xia1、2、*
Author Affiliations
  • 1State Key Laboratory of Luminescent Materials and Devices, Guangdong Provincial Key Laboratory of Fiber Laser Materials and Applied Techniques, School of Materials Science and Engineering, South China University of Technology, Guangzhou , Guangdong 510641, China
  • 2School of Physics and Optoelectronics, South China University of Technology, Guangzhou , Guangdong 510641, China
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    DOI: 10.3788/LOP202158.1516003 Cite this Article Set citation alerts
    Xinquan Zhou, Zhiguo Xia. Recent Advances of Energy-Trap-Dependent Multimodal Inorganic Luminescent Materials[J]. Laser & Optoelectronics Progress, 2021, 58(15): 1516003 Copy Citation Text show less
    Multimodal luminescence mechanism based on electron-hole model. (a)‒(c) Multimodal trap filling processes; (d) various forms of energy induced trap emptying and multimodal luminescence processes;(e) schematic of up-conversion persistent luminescence in Zn3Ga2GeO8∶1%Cr3+, 5%Yb3+, 0.5%Er3+ system[16];(f) schematic of up-conversion-like trapping process in CaSnO3∶Bi2+ system[17]
    Fig. 1. Multimodal luminescence mechanism based on electron-hole model. (a)‒(c) Multimodal trap filling processes; (d) various forms of energy induced trap emptying and multimodal luminescence processes;(e) schematic of up-conversion persistent luminescence in Zn3Ga2GeO8∶1%Cr3+, 5%Yb3+, 0.5%Er3+ system[16];(f) schematic of up-conversion-like trapping process in CaSnO3∶Bi2+ system[17]
    Thermo-, photo-, and mechano-responsive multimodal luminescence in UV-irradiated La1.95Ti2O7∶Pr3+ as well as its application shows[1]. (a) Thermo-luminescence spectra of sample treated under different temperatures; (b) thermo-luminescence spectra of sample irradiated by near-infrared lasers with different power densities; (c) thermo-luminescence spectra of sample exerted by different pressure loads; (d) stimulus-responsive shows under multimodal excitation resources
    Fig. 2. Thermo-, photo-, and mechano-responsive multimodal luminescence in UV-irradiated La1.95Ti2O7∶Pr3+ as well as its application shows[1]. (a) Thermo-luminescence spectra of sample treated under different temperatures; (b) thermo-luminescence spectra of sample irradiated by near-infrared lasers with different power densities; (c) thermo-luminescence spectra of sample exerted by different pressure loads; (d) stimulus-responsive shows under multimodal excitation resources
    Exploring examples of optical information storage applications. (a) Thermo-luminescence spectra of LiGa5O8∶Mn2+ glass treated under different temperatures[22];(b) 3D optical readout of images encoded in different layers with heat aid at 150 ℃[22]; (c) schematic of multilevel optical data storage and readout from multimodal luminescent phosphor (Ba2SiO4∶0.005Eu2+, 0.001Tm3+, 0.001Ho3+, 0.0005Dy3+) film [18];(d) X-ray imaging technique of bent objects[23]
    Fig. 3. Exploring examples of optical information storage applications. (a) Thermo-luminescence spectra of LiGa5O8∶Mn2+ glass treated under different temperatures[22];(b) 3D optical readout of images encoded in different layers with heat aid at 150 ℃[22]; (c) schematic of multilevel optical data storage and readout from multimodal luminescent phosphor (Ba2SiO4∶0.005Eu2+, 0.001Tm3+, 0.001Ho3+, 0.0005Dy3+) film [18];(d) X-ray imaging technique of bent objects[23]
    Exploring examples of optical anti-counterfeiting and information encryption applications. (a) Taiji image examples made by BaGa2Si2O8∶Eu2+, Eu3+, Pr3+ as well as their application of multimodal luminescence in anti-counterfeiting[2]; (b) illustration of real time multidimensional anti-counterfeiting based on Mn-doped (Na/Li)2(Zn/Mg)(Si/Ge)O4 material[28]; (c) luminous stability of leaf-shaped composite film against water immersion[28]
    Fig. 4. Exploring examples of optical anti-counterfeiting and information encryption applications. (a) Taiji image examples made by BaGa2Si2O8∶Eu2+, Eu3+, Pr3+ as well as their application of multimodal luminescence in anti-counterfeiting[2]; (b) illustration of real time multidimensional anti-counterfeiting based on Mn-doped (Na/Li)2(Zn/Mg)(Si/Ge)O4 material[28]; (c) luminous stability of leaf-shaped composite film against water immersion[28]
    Exploring examples of sensing and labeling applications. (a) Schematic of visualizing quasi-dynamic crack propagation using SrAl2O4∶Eu2+/Dy3+[34]; (b) application of stress induced carrier storage in vehicle collision monitoring[35]; (c) mechano-luminescence spectra of SrZnSO∶0.02Tb3+,0.01Eu3+ at various temperatures and ITb/IEu versus temperature, with CIE chromaticity coordinates of mechano-luminescence shown in inset[36]; (d) up-conversion persistent luminescence of Lu2Pr0.01Gd0.99Al2Ga3O12 ceramic chips stimulated by blue LED in bright environment[37]; (e) ultraviolet-C (UVC) radiation images of Ca2Al2SiO7∶Pr3+ ceramic chips placed in tree trunks in direct sunlight[38]
    Fig. 5. Exploring examples of sensing and labeling applications. (a) Schematic of visualizing quasi-dynamic crack propagation using SrAl2O4∶Eu2+/Dy3+[34]; (b) application of stress induced carrier storage in vehicle collision monitoring[35]; (c) mechano-luminescence spectra of SrZnSO∶0.02Tb3+,0.01Eu3+ at various temperatures and ITb/IEu versus temperature, with CIE chromaticity coordinates of mechano-luminescence shown in inset[36]; (d) up-conversion persistent luminescence of Lu2Pr0.01Gd0.99Al2Ga3O12 ceramic chips stimulated by blue LED in bright environment[37]; (e) ultraviolet-C (UVC) radiation images of Ca2Al2SiO7∶Pr3+ ceramic chips placed in tree trunks in direct sunlight[38]
    Xinquan Zhou, Zhiguo Xia. Recent Advances of Energy-Trap-Dependent Multimodal Inorganic Luminescent Materials[J]. Laser & Optoelectronics Progress, 2021, 58(15): 1516003
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