Method for photoelectrocatalytic degradation of organic matters by glass based TiO2 nanometer pipe array electrode
A nanotube array and photocatalytic technology, which is applied in the field of environmental pollution control, can solve the problems of affecting the photon quantum efficiency, limiting the application range, and the opacity of the nanotube array film, so as to achieve high performance of photocatalytic oxidation of organic matter and increase absorption. Effect
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Embodiment 1
[0022] The cleaned conductive glass is heated to remove water molecules on its surface, and after cooling, a layer of 2 μm thick titanium film is sputtered on the surface of the conductive glass by a magnetron sputtering apparatus in an argon protective gas atmosphere to obtain a conductive glass Ti-based thin film electrodes.
[0023] The conductive glass-based titanium film electrode is used as the anode, and the platinum sheet is used as the counter electrode to assemble a double-electrode system, and ethylene glycol is added to the reaction vessel, and then ammonium fluoride solid is added to the ethylene glycol so that the mass percentage of fluoride ions in the solution up to 0.15%. Adjust the anodic oxidation voltage to 30V, and after 1 hour of reaction, a transparent glass-based TiO can be obtained 2 Nanotube array thin film sample, the tube diameter is 80nm, tube length is 1μm (see figure 2 ).
[0024] Glass-based TiO 2 The nanotube array thin film sample was rin...
Embodiment 2
[0033] The cleaned conductive glass is heated to remove water molecules on its surface, and after cooling, a 1 μm thick titanium film is sputtered on the surface of the conductive glass by a magnetron sputtering apparatus in an argon protective gas atmosphere to obtain a conductive glass Ti-based thin film electrodes.
[0034] The cleaned conductive glass-based titanium film electrode is used as the anode, and the platinum sheet is used as the counter electrode to assemble a double-electrode system, and an aqueous solution of hydrofluoric acid is added to the reaction vessel as the electrolyte. The mass percentage of fluorine ions in the electrolyte reaches 0.1%. The anodic oxidation voltage is 15V, and after 30 minutes of reaction, a transparent glass-based TiO with a diameter of 50nm and a length of 0.3μm can be obtained. 2 Nanotube array film samples.
[0035] Glass-based TiO 2 The nanotube array thin film sample was rinsed with water and dried in an oven. After cooling t...
Embodiment 3
[0038] The cleaned conductive glass is heated to remove water molecules on its surface, and after cooling, a layer of 2 μm thick titanium film is sputtered on the surface of the conductive glass by a magnetron sputtering apparatus in an argon protective gas atmosphere to obtain a conductive glass Ti-based thin film electrodes.
[0039] The cleaned conductive glass-based titanium film electrode is used as the anode, and the platinum sheet is used as the counter electrode to assemble a double-electrode system, and ethylene glycol is added to the reaction vessel, and then ammonium fluoride solid is added to the ethylene glycol to make the fluorine in the solution The mass percentage of ions reaches 0.15%. Adjust the anodic oxidation voltage to 60V, and after 3 hours of reaction, a transparent glass-based TiO with a diameter of 120nm and a length of 1.8μm can be obtained. 2 Nanotube array film samples.
[0040] Glass-based TiO 2 The nanotube array thin film sample was rinsed wi...
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