Abstract:
PURPOSE: A method for producing a low-dimensional carbon-contained composite and a method for producing a carbon block are provided to add a carbon nano tube with point/line contact properties and grapheme with surface contact properties, thereby increasing electric conductivity of a carbon composite. CONSTITUTION: Graphene and a low-dimensional carbon material are added to pitch. The grapheme, the low-dimensional carbon material, and the pitch are uniformly distributed through a post-processing process. Pressing molding of a carbon composite is performed by a press device. A molded product is thermally processed at 150~350 degrees for 2~6 hours. The molded product is carbonized at 1000~1500 degrees after oxidation stabilization. The oxidation stabilization of the molded product is performed under a low temperature for a long time. Therefore, a carbon block with high electric conductivity is manufactured.
Abstract:
PURPOSE: A liquid-vapor inversion aerosol deposition method and an apparatus thereof are provided to manufacture a nanoparticle coated film, a carbon nanotube coated film, and a graphene coating film by directly forming an aerosol with micro droplets dispersed with material powder. CONSTITUTION: A liquid-vapor inversion aerosol deposition method comprises the following steps: spraying micro droplets dispersed with material powder; heating the sprayed micro droplets to form an aerosol; and spraying the aerosol to deposit to a substrate. A liquid-vapor inversion aerosol deposition apparatus includes a micro nozzle spraying the micro droplets, a heating chamber forming the aerosol, a spray nozzle spraying the aerosol inside the heating chamber, and a deposition chamber including the substrate in the inside.
Abstract:
Transparent conductive F-doped tin oxide glass for defogging is provided to have excellent heat resistance, chemical resistance and abrasion resistance and to include FTO transparent oxide conductive having low resistance and high transmittance. Transparent conductive F-doped tin oxide glass for defogging is made by laminating a glass plate layer, a dielectric barrier layer, a functional layer, a metal electrode layer, a plastic interlayer and a glass plate layer in the order. A molar ratio of F/Sn in the functional layer is 0.5~2. A thickness of the FTO transparency conductive film layer is 0.1~1.3 mum. The dielectric barrier layer is made by SiO2 or mixing a transition metal selected from Ti, Zn and Al with SiO2. A thickness of the thickness is 5 ~ 200 nm.
Abstract:
A nano particle charge storing device is provided to form nano particles of which a size is uniform to high density into a single layer using a new process and to leak no current. A nano particle charge storing device contains a first insulating layer, a high density nano particle film and a second insulating layer formed on the nano particle film. The metal organic film is metallocene(M(C5H5)2, M is metal) or a metallocene derivative. The nano particle film is metal, alloy, semiconducting metal and a metal compound. The energy is selected between photon, electron beam, radiation ray and microwave.
Abstract:
High efficient photocatalytic parts are provided to enable light to be irradiated on a surface of the matrix uniformly and three dimensionally even when light is irradiated in one direction onto the shape of a matrix, and to improve specific surface area of the matrix or a photocatalyst, and a manufacturing method of the high efficient photocatalytic parts is provided. A manufacturing method of a three-dimensional photocatalytic part comprises the steps of: forming an anodizable metal or alloy wire; and anodizing a surface of a formed matrix to form a uniform nanoporous oxide film on the surface of the matrix. A manufacturing method of a three-dimensional photocatalytic part comprises the steps of: forming an anodizable metal or alloy into the form of a foam; and anodizing a surface of a formed matrix to form a uniform nanoporous oxide film on the surface of the matrix. A manufacturing method of a three-dimensional photocatalytic part comprises the steps of: forming an anodizable metal or alloy into the form of a mesh; and anodizing a surface of a formed matrix to form a uniform nanoporous oxide film on the surface of the matrix. The metal matrix comprises metal having photocatalytic activity after anodizing. The manufacturing method further comprises the step of supporting a photocatalyst onto the nanoporous film obtained after anodizing. The photocatalyst is TiO2 nanoparticles or TiO2 nanotubes.