Optical temperature sensing in Er³⁺-Yb³⁺ codoped CaWO₄ and the laser induced heating effect on the luminescence intensity saturation

Keyphrases

• Heating Effect 100%
• Laser Heating 100%
• Optical Temperature Sensing 100%
• Er3+ 100%
• Yb3+ 100%
• Luminescence Intensity 100%
• CaWO4 100%
• Fluorescence Intensity 25%
• Temperature Effect 25%
• Rate Equations 25%
• Thermometry 25%
• Doping Concentration 25%
• Ion Concentration 25%
• Decay Curves 25%
• Pumping Power 25%
• Emission Intensity 25%
• Green Upconversion Emission 25%
• Maximum Sensitivity 25%
• Solid-state Method 25%
• Saturation Phenomenon 25%
• Upconversion Emission 25%
• Intensity Ratio Method 25%
• 980 Nm Laser 25%
• Luminescence Decay 25%
• Temperature Sensing 25%
• Sensing Ability 25%
• Steady-state Rate 25%
• High-temperature Solid-state Reaction 25%

Engineering

• Mols 100%
• Heating Effect 100%
• Induced Heating 100%
• Saturation Intensity 100%
• Fluorescence Intensity 50%
• Temperature Dependence 50%
• State Rate 50%
• Rate Equation 50%
• Dopant Concentration 50%
• Ion Concentration 50%
• Laser Excitation 50%
• Theoretical Curve 50%
• Pumping Power 50%
• Emission Intensity 50%
• State Reaction 50%
• Thermal Effect 50%

Material Science

• Luminescence 100%
• Theoretical Calculation 33%
• Doping (Additives) 33%