Tunable emission and energy transfer in TeO₂-GeO₂-ZnO and TeO₂-GeO₂-MgCl₂ glasses activated with Eu³⁺/Dy³⁺ for solid state lighting applications

Keyphrases

• Decay Curves 6%
• Decay Profiles 6%
• Deconvolution Analysis 6%
• Dipole-dipole Interaction 12%
• Double-doped 6%
• Dy3+ 100%
• Electric Dipole 12%
• Emission Characteristics 12%
• Emission Decay 12%
• Emission Spectrum 12%
• Emission Transfer 100%
• Energy Transfer 100%
• Energy Transfer Efficiency 18%
• Energy Transfer Process 12%
• Eu Doping 6%
• Eu3+ 100%
• Excitation Intensity 6%
• Excitation Spectrum 6%
• Excitation Time 6%
• Excitation Wavelength 6%
• GeO2 100%
• Global Emissions 18%
• Halides 6%
• Indium Gallium Nitride (InGaN) 6%
• Inokuti-Hirayama Model 6%
• Lighting Applications 100%
• Low Efficiency 6%
• Luminescence Response 6%
• Magnesium Chloride 100%
• Network Structure 6%
• Non-radial 12%
• Nonradiative Energy Transfer 6%
• Oxides 12%
• Parameter Values 12%
• PDE 6%
• Raman Spectra 6%
• Raman Spectroscopy 6%
• Reddish-orange 12%
• Solid-state Lighting 100%
• Spectral Deconvolution 6%
• TeO2 100%
• Time Decay 6%
• Transfer Probability 6%
• Tunability 6%
• Tunable Emission 100%
• UV Excitation 6%
• Vitreous Matrix 6%
• Warm White Light 6%
• White Emission 6%
• White Light 6%

Material Science

• Dipole-Dipole Interaction 66%
• Glass Composition 33%
• Halide 33%
• Light-Emitting Diode 33%
• Oxide Compound 66%
• Raman Spectroscopy 33%
• Transfer Process 66%
• ZnO 100%

Chemistry

• Dipole Interaction 25%
• Emission Spectra 25%
• Energy Transfer 100%
• Energy Transfer Processes 25%
• Glass Composition 12%
• Halide 12%
• Luminiscence Type 12%
• Magnesium Chloride 100%
• Nonradiative Energy Transfer 12%
• Raman Spectra 12%
• Raman Spectrometry 12%
• Raman Spectroscopy 12%
• Sweet orange 25%