Electrode material of mesh shaped titanium oxide film, manufacturing method thereof, and application thereof

Abstract

Provided is a manufacturing method for an electrode material of a mesh shaped titanium oxide film. The method comprises: placing a pair of meshed components at interval, the meshed components being configured oppositely; arranging power supply leads on the same peripheral portion of the lower ends of the meshed components, and on ends of the linear materials, extending raised tips out of the meshed components. When the meshed components are used as electrodes, the raised ends can discharge. The pair of meshed components are made of a titanium conductive linear material. Dielectric mediums are arranged on the lower ends of the meshed components, and the lower ends form a pair of fence discharging electrodes. The meshed components discharge to form mesh shaped electrodes. At the same time when the meshed components discharge, dielectric fence discharge occurs on the fence discharging electrodes. The metal wire diameter of the material is small, and the electrode material has small grid distance, thereby reducing cost. Provided is an ozone ion generating device to generate ozone , and the device can effectively discharge through the electrodes formed by the meshed components.

Description

technical field

[0001] The present invention relates to an electrode material, in particular to an electrode material of mesh-shaped titanium oxide film, its manufacturing method and its application. The application refers to using the electrode material as an electrode material of an ozone-ion generator. Background technique

[0002] In the known technology, ozone (O3) has a strong oxidation effect and is applied to sterilization, deodorization, decolorization and removal of organic substances for various purposes by utilizing its oxidative power. Generally, by applying a high voltage between a pair of electrodes, oxygen molecules (O2) in the air can be dissociated when the air is expelled, producing negative ions (anions) (O‐), which are then produced by recombination with other oxygen molecules ozone. The inventors of the present invention proposed Japanese Patent Laid-Open No. 2008-226678 (Patent Document 1) as an electrode material that can be used in an ozone ion gene...

Examples

Embodiment 1

[0034] figure 1 It is an explanatory diagram of a manufacturing method of an electrode material of a mesh-shaped titanium oxide film according to the present invention, (A) is a perspective view, and (B) is a front view.

[0035] The electrode material manufacturing method of the present invention: the mesh member 1 is made of a titanium conductive linear material, and a pair of mesh members 1 and 1 are arranged so as to face each other at a distance. Then, at the same peripheral portion of the mesh-shaped part 1, at the end of the thread material, the protruding needle point is outside the mesh-shaped part. When the mesh-shaped part 1 is used as an electrode, it can be discharged by this protruding end. .

[0036] The lower end of the above-mentioned mesh parts 1, 1 is installed with a metal plate 5;

[0037] Also, on the surface facing the metal plates 5, 5, a dielectric 3 made of ceramic resin, polyimide resin, or silicone resin is provided. The metal plates 5, 5 constit...

Embodiment 2

[0044] exist figure 2In the shown embodiment, a pair of mesh-shaped parts 1 are placed at a distance and arranged opposite to each other; then, the lower end of the mesh-shaped parts 1 and the same peripheral portion are provided with power supply leads 4, and at the end of the wire-shaped material , the protruding needle point is outside the mesh-shaped part 1. When the mesh-shaped part 1 is used as an electrode, the protruding end can discharge; the pair of mesh-shaped parts 1 are made of titanium conductive linear material ;

[0045] Dielectric 3 is set to the lower end of the mesh-shaped part, and the lower end constitutes a pair of grid discharge electrodes 2, and the discharge between the mesh-shaped parts 1 constitutes the mesh-shaped electrode 1, and when the discharge occurs between the mesh-shaped parts 1, A dielectric barrier discharge is generated between the barrier discharge electrodes 2 .

[0046] Compared with the first embodiment, the metal plate 5 is remov...

Embodiment 3

[0048] exist image 3 In the shown embodiment, the metal plate 5 is removed on the basis of the first embodiment, and the bent portion 6 is provided at the lower end of the mesh-shaped member 1, 1 to enclose the power supply lead 4, and the dielectric 3 is covered in the part including the bent portion 6. The portion where the dielectric 3 is provided constitutes the barrier discharge electrode 2 .

[0049] In the above examples, the dielectric material 3 of the mesh electrode 1 shows a different structure at the metal plate or grid discharge electrode 2, but in the following Figure 4 , showing a structure in which the dielectric is formed for the mesh member 1 itself.

technical field

[0001] The present invention relates to an electrode material, in particular to an electrode material of mesh-shaped titanium oxide film, its manufacturing method and its application. The application refers to using the electrode material as an electrode material of an ozone-ion generator. Background technique

[0002] In the known technology, ozone (O3) has a strong oxidation effect and is applied to sterilization, deodorization, decolorization and removal of organic substances for various purposes by utilizing its oxidative power. Generally, by applying a high voltage between a pair of electrodes, oxygen molecules (O2) in the air can be dissociated when the air is expelled, producing negative ions (anions) (O‐), which are then produced by recombination with other oxygen molecules ozone. The inventors of the present invention proposed Japanese Patent Laid-Open No. 2008-226678 (Patent Document 1) as an electrode material that can be used in an ozone ion gene...

Examples

Embodiment 1

[0034] figure 1 It is an explanatory diagram of a manufacturing method of an electrode material of a mesh-shaped titanium oxide film according to the present invention, (A) is a perspective view, and (B) is a front view.

[0035] The electrode material manufacturing method of the present invention: the mesh member 1 is made of a titanium conductive linear material, and a pair of mesh members 1 and 1 are arranged so as to face each other at a distance. Then, at the same peripheral portion of the mesh-shaped part 1, at the end of the thread material, the protruding needle point is outside the mesh-shaped part. When the mesh-shaped part 1 is used as an electrode, it can be discharged by this protruding end. .

[0036] The lower end of the above-mentioned mesh parts 1, 1 is installed with a metal plate 5;

[0037] Also, on the surface facing the metal plates 5, 5, a dielectric 3 made of ceramic resin, polyimide resin, or silicone resin is provided. The metal plates 5, 5 constit...

Embodiment 2

[0044] exist figure 2In the shown embodiment, a pair of mesh-shaped parts 1 are placed at a distance and arranged opposite to each other; then, the lower end of the mesh-shaped parts 1 and the same peripheral portion are provided with power supply leads 4, and at the end of the wire-shaped material , the protruding needle point is outside the mesh-shaped part 1. When the mesh-shaped part 1 is used as an electrode, the protruding end can discharge; the pair of mesh-shaped parts 1 are made of titanium conductive linear material ;

[0045] Dielectric 3 is set to the lower end of the mesh-shaped part, and the lower end constitutes a pair of grid discharge electrodes 2, and the discharge between the mesh-shaped parts 1 constitutes the mesh-shaped electrode 1, and when the discharge occurs between the mesh-shaped parts 1, A dielectric barrier discharge is generated between the barrier discharge electrodes 2 .

[0046] Compared with the first embodiment, the metal plate 5 is remov...

Embodiment 3

[0048] exist image 3 In the shown embodiment, the metal plate 5 is removed on the basis of the first embodiment, and the bent portion 6 is provided at the lower end of the mesh-shaped member 1, 1 to enclose the power supply lead 4, and the dielectric 3 is covered in the part including the bent portion 6. The portion where the dielectric 3 is provided constitutes the barrier discharge electrode 2 .

[0049] In the above examples, the dielectric material 3 of the mesh electrode 1 shows a different structure at the metal plate or grid discharge electrode 2, but in the following Figure 4 , showing a structure in which the dielectric is formed for the mesh member 1 itself.

Images