Growth and Characterization of Sputtered ZnO:ZnGa₂O₄ Dual-Phase Films on Sapphire Substrates for NO Gas-Sensing Applications

Keyphrases

• Sapphire Substrate 100%
• Nitric Oxide Gas 100%
• Nitric Oxide Gas Sensor 100%
• Dual Phase 100%
• ZnGa2O4 100%
• Gas Sensing Applications 100%
• Nitric Oxide 50%
• Scanning Electron Microscopy 50%
• Technology Development 25%
• Annealing 25%
• Nanostructures 25%
• X Ray Diffraction 25%
• Atomic Force Microscopy 25%
• Fast Response 25%
• Recovery Time 25%
• Response Time 25%
• X-ray Diffraction Pattern 25%
• Radio Frequency Magnetron Sputtering 25%
• Grain Boundary 25%
• Highly Selective 25%
• Microstructure 25%
• Gas Sensor 25%
• Preferred Orientation 25%
• Early Detection 25%
• C-plane 25%
• Sensing Response 25%
• Gas Concentration 25%
• Automobile 25%
• Sensor Response 25%
• Operating Temperature 25%
• Recrystallization 25%
• Combustion 25%
• High Response 25%
• Respiratory System 25%
• Metropolis 25%
• Gas Sensing Mechanism 25%
• Hazardous Gases 25%
• Gas Level 25%
• Environmental Security 25%
• Poisonous Gas 25%
• Polluting Industries 25%

Engineering

• Sapphire Substrate 100%
• Sensing Application 100%
• Gas Sensor 100%
• Ray Diffraction 20%
• Atomic Force Microscopy 20%
• Response Time 20%
• Recovery Time 20%
• Radio Frequency 20%
• X-Ray Diffraction Pattern 20%
• Magnetron 20%
• Nanomaterial 20%
• Polycrystalline 20%
• Micrograph 20%
• Preferred Orientation 20%
• Sensing Mechanisms 20%
• Early Detection 20%
• Sensor Response 20%
• Operating Temperature 20%
• Quick Response 20%

Material Science

• Sapphire 100%
• ZnO 100%
• Nitric Oxide 100%
• Gas Sensor 50%
• Film 30%
• X-Ray Diffraction 20%
• Scanning Electron Microscopy 20%
• Carbon Dioxide 10%
• Diffraction Pattern 10%
• Magnetron Sputtering 10%
• Surface (Surface Science) 10%
• Nanostructure 10%
• Atomic Force Microscopy 10%
• Grain Boundary 10%
• Sensing Mechanisms 10%