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Multisite-Occupancy-Driven Efficient Multiple Energy Transfer: A Straightforward Strategy to Achieve Single-Composition White-Light Emission in Ce<sup>3+</sup>-, Tb<sup>3+</sup>-, and Mn<sup>2+</sup>-Doped Silicate Phosphors

Xubo Tong, Jin Han, Ronghui Cai, Yanting Xu, Pianpian Wu, Han Zhou, Xinmin Zhang

2020Inorganic Chemistry26 citationsDOI

Abstract

= 89) was fabricated by integrating the phosphor on an n-UV 365 nm chip. These results show that the materials present potential application in the field of phosphor-converted white LEDs.

Topics & Concepts

PhosphorChemistryLuminescencePhotoluminescenceAnalytical Chemistry (journal)Quantum efficiencyDopingThermal stabilitySpectroscopyOrthosilicateColor temperatureQuenching (fluorescence)Solid-state lightingFluorescenceLight-emitting diodeOptoelectronicsOpticsMaterials sciencePhysicsTetraethyl orthosilicateOrganic chemistryChromatographyQuantum mechanicsLuminescence Properties of Advanced MaterialsPerovskite Materials and ApplicationsLuminescence and Fluorescent Materials
Multisite-Occupancy-Driven Efficient Multiple Energy Transfer: A Straightforward Strategy to Achieve Single-Composition White-Light Emission in Ce<sup>3+</sup>-, Tb<sup>3+</sup>-, and Mn<sup>2+</sup>-Doped Silicate Phosphors | Litcius