Abstract:
PROBLEM TO BE SOLVED: To provide a laminate which has a functional film provided on a fluoroplastic film, of which the functional film exerts characteristics according to design and which is excellent in long-term durability. SOLUTION: The laminate having the fluoroplastic film and the functional film has a film containing an oxide of one or more kinds of metals selected from a group comprising Sn, Cr, Ir and Pt between the fluoroplastic film and the functional film.
Abstract:
PROBLEM TO BE SOLVED: To obtain a glass laminate effectively prevented in the deterioration of its heat ray reflecting layer at the time of heat treatment and having a low haze value even if heat treatment is applied. SOLUTION: A glass laminate is constituted in the order of a glass substrate 10, a bottom reflection preventing layer 11, a lower barrier layer 14, a heat ray reflecting layer 15, an upper barrier layer 16, a central reflection preventing layer 17, a lower barrier layer 18, a heat ray reflecting layer 19, an upper barrier layer 20 and a top reflection barrier layer 21 and at least one of the lower barrier layers contains Zn and a specific material X.
Abstract:
PROBLEM TO BE SOLVED: To obtain a film which develops sharp blue, green, bronze and gray tones by one coating process and to improve wear resistance and chemical resistance by incorporating gold, bismuth oxide or other oxides. SOLUTION: Gold develops a transmission tone of orange, red, purple and blue. When palladium and platinum are used with gold, they develop bronze and gray tones, respectively. The total content of noble metals is preferably controlled to >0 and 0 and
Abstract:
PROBLEM TO BE SOLVED: To produce a laminated body hard to be stuck with inorg. contaminants or easy to remove them and having superior film strength and weather resistance by successively forming a silicon-base layer and a carbon- base layer each having a specified geometric film thickness on a glass substrate. SOLUTION: A silicon-base layer having 0.5-3 nm geometric film thickness and a carbon-base layer 2 having 3-50 nm geometric film thickness are successively formed on a glass substrate 11. An amorphous carbon film is suitable for use as the carbon-base layer 2. This film is apolar, hardly forms a hydrogen bond and has no strong interaction with other substance. An Si-base inorg. contaminant does therefore not stick on the carbon layer 2. The carbon layer 2, is. e.g. a layer of 100% carbon, hydrogen added carbon or fluorine added carbon.
Abstract:
PURPOSE:To remove a thin film appropriately and efficiently by applying a water-soluble substance on the part of the surface of a substrate from which the thin film is to be removed, drying the substance to form a coating film of the substance and then washing the thin film-coated substrate with water to remove the film. CONSTITUTION:A water-soluble substance is firstly applied on the specified part of the surface of a substrate from which a thin film is to be removed, and the substance is dried to form a thin film of the substance. The film-coated substrate is then washed with water to remove the film. Namely, a coating film of an easily water-soluble substance is formed between the thin film to be removed and the substrate, and then the film is washed with water and removed along with the substance. Consequently, since the substance does not contain a filler and is dissolved itself in water, the film need not be mechanically removed when lifted off, and the substance is not spiked as the filler is not left.
Abstract:
PURPOSE:To improve the cleanness of the surface of a substrate by coating the surface with a specified water-soluble salt. CONSTITUTION:The method for cleaning a substrate comprises coating the surface of a substrate selected from among glass, plastics, ceramic, single crystal and a product prepared by coating such a substrate with an inorganic or organic substance with an aqueous solution containing about 0.01 mol/l of at least one water-soluble salt selected from among halides, (bi) carbonates, nitrates, sulfates, phosphates, silicates, organic acid salts, borates and double salts of Li, Na, K, etc., to form a film of the water-soluble salt, washing this substrate with a detergent comprising water and/or a surfactant to remove dirt from the surface of the coating film.
Abstract:
PROBLEM TO BE SOLVED: To provide a method for manufacturing a thin-film based solar cell module whose thin-film based solar cell element does not break easily, whose resin layer and thin-film based solar cell element and whose resin layer and glass substrate can have increased boundary face adhesive strength, in which occurrence of bubbles attributable to a liquid-state curable resin composition is suppressed, and whose side surfaces are firmly encapsulated.SOLUTION: A liquid layer-shaped section forming photocurable resin composition 26 is supplied to a region enclosed with an uncured dam-like section 28 which is formed on a reverse side member 12 to dispose a surface member 10 on top of the layer-shaped section forming photocurable resin composition 26 in a pressure-reduced atmosphere, and then the layer-shaped section forming photocurable resin composition 26 and the uncured dam-like section 28 are hardened in an atmospheric pressure atmosphere to form a resin layer. Also, a step part 14 is formed on the periphery of the reverse side member 12, and the step part 14 of the reverse side member 12 and the periphery of the surface member 10 are sealed together in a sealing section which is created by fusing and then solidifying a sealing material section 34.
Abstract:
PROBLEM TO BE SOLVED: To provide a sealing material for sealing a laser, capable of improving the seal reliability between glass substrates by relaxing the residual stress produced on the joint interface between the glass substrate and a sealing layer. SOLUTION: The sealing material for sealing the laser contains: sealing glass comprising low melting point glass; a low-expansion filler of 5-25% mass ratio; a laser absorbing material of 1-10% mass ratio; and a hollow bead of 0.5-7% mass ratio. The sealing material is baked and stuck to a sealing area of the glass substrate 3 to form a sealing material layer 6. The sealing material-stuck glass substrate 3 is layered on the glass substrate 2 while interposing the sealing material layer 6 between them. The sealing material layer 6 is irradiated with a laser beam 7 and melted to seal the space between the glass substrates 2 and 3. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a glass substrate for flat panel display in which yellowing occurring when a silver electrode is formed on the surface of the glass substrate is suppressed. SOLUTION: In the glass substrate for flat panel display after the silver electrode is formed on the surface of the glass substrate, average K content (mass% expressed in terms of K 2 O) in the surface layer from the surface of the glass substrate on the side of which the silver electrode is formed to 10 μm depth is higher than that in the inner layer from the surface of the glass substrate to 100-110 μm depth. COPYRIGHT: (C)2008,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a transparent conductive zinc oxide film manufacturing method in which the properties of the obtained film is stable without controlling water content residual in a film deposition tank of a sputtering apparatus, and to provide a transparent substrate having a transparent conductive film with transmissive tone less in light absorption at the wavelengths of 370-450 nm and suitable for display applications. SOLUTION: In the transparent conductive film manufacturing method for depositing the transparent conductive film on a base material by a sputtering method by using a zinc oxide target containing gallium, the zinc oxide target containing gallium of 0.1-10 mass % in terms of Ga2 O3 to the total quantity of the target is used for the target, and the sputtering atmosphere comprises gaseous hydrogen and inert gas. The transparent substrate having the transparent conductive film is characterized by that the transmissivity at the wavelength of 550 nm is >=80%, and the transmissivity (the mean value) at the wavelength of 370-450 nm is >=75%.