Effect of calcination temperature on the photocatalytic reduction and oxidation processes of hydrothermally synthesized titania nanotubes

Engineering & Materials Science

• Calcination 100%
• Nanotubes 98%
• Titanium 75%
• Oxidation 68%
• Acetaldehyde 40%
• Paramagnetic resonance 35%
• Temperature 31%
• Nanorods 19%
• Nanostructures 15%
• Crystallinity 15%
• Spectroscopy 14%
• Transmission electron microscopy 13%
• X ray diffraction 12%
• Methane 12%
• Carbon dioxide 12%
• Scanning electron microscopy 10%

Chemical Compounds

• Photocatalytic Reduction 96%
• Photocatalytic Oxidation 91%
• Calcination Temperature 76%
• Nanotube 62%
• Acetaldehyde 26%
• Charge Separation 25%
• EPR Spectroscopy 22%
• Surface Area 16%
• Reduction 11%
• Nanorod 11%
• Methane 10%
• Carbon Dioxide 10%
• Hydrothermal Method 10%
• Crystallinity 9%
• Transmission Electron Microscopy 8%
• Nanomaterial 8%
• Scanning Electron Microscopy 7%
• Length 7%
• X-Ray Diffraction 6%
• Oxidation Reaction 5%
• Surface 4%

Physics & Astronomy

• roasting 88%
• nanotubes 74%
• titanium 64%
• oxidation 57%
• acetaldehyde 37%
• polarization (charge separation) 30%
• electron paramagnetic resonance 23%
• temperature 23%
• Titania 19%
• carbon dioxide 13%
• nanorods 12%
• methane 11%
• crystallinity 11%
• trapping 9%
• transmission electron microscopy 8%
• scanning electron microscopy 8%
• diffraction 6%
• spectroscopy 6%
• x rays 5%