Abstract:
A resin substrate with a transparent electrode having a low resistance, and a manufacturing method thereof including: a deposition step wherein a transparent electrode layer of indium tin oxide is formed on a transparent film substrate by a sputtering method, and a crystallization step wherein the transparent electrode layer is crystallized. In the deposition step, a sputtering deposition is performed using a sputtering target containing indium oxide and tin oxide, while a sputtering gas containing argon and oxygen is introduced into a chamber. It is preferable that an effective exhaust rate S, calculated from a rate Q of the sputtering gas introduced into the chamber and a pressure P in the chamber by a formula S (L/second)=1.688×Q (sccm)/P (Pa), is 1,200-5,000 (L/second). It is also preferable that a resistivity of the transparent electrode layer is less than 3×10−4 Ωcm.
Abstract:
An approach for making thin flexible circuits. A layer of dielectric may have one or two surfaces coated with metal. The dielectric and the metal may each have a sub-mil thickness. The dielectric may be held in a fixture for fabrication like that of integrated circuits. The metal may be patterned and have components attached. More layers of dielectric and patterned metal may be added to the flexible circuit. Also bond pads and connecting vias may be fabricated in the flexible circuit. The flexible circuit may be cut into a plurality of smaller flexible circuits.
Abstract:
An approach for making thin flexible circuits. A layer of dielectric may have one or two surfaces coated with metal. The dielectric and the metal may each have a sub-mil thickness. The dielectric may be held in a fixture for fabrication like that of integrated circuits. The metal may be patterned and have components attached. More layers of dielectric and patterned metal may be added to the flexible circuit. Also bond pads and connecting vias may be fabricated in the flexible circuit. The flexible circuit may be cut into a plurality of smaller flexible circuits.
Abstract:
La présente invention concerne une carte électronique de fond de panier (20) présentant une face interne (142) adaptée pour être connectée à des connecteurs de cartes électroniques (12) et une face externe (143) adaptée pour être connectée à un connecteur externe (15), la carte de fond de panier (20) étant caractérisée en ce qu'elle présente des trous borgnes débouchant sur sa face interne (142), et des trous débouchant sur sa face externe (143), les trous étant adaptés pour recevoir des éléments de connexion à insertion par force et former avec eux un point de connexion électrique.
Abstract:
A film deposition process comprising exposing a surface of a substrate to a first plasma treatment having plasma reactants in a plasma chamber to form an activated substrate surface. The activated surface has a lower water contact angle than the substrate surface before the surface activating. The process comprises introducing water vapor into the plasma chamber to form a water layer on the activated surface. The process comprises introducing pre-cursors molecules into the plasma chamber in the presence of a second plasma to graft a layer of reacted pre-cursor molecules on the water layer.
Abstract:
A resin composition contains a polyfunctional vinyl aromatic copolymer (A) containing a repeating unit (a) derived from a divinyl aromatic compound and a repeating unit (b) derived from a monovinyl aromatic compound, a curing agent (B), at least one filler (C) selected from the group consisting of a titanate compound filler (C1) and a magnesium oxide filler (C2), and a silica filler (D), in which the content ratio of the high dielectric constant filler (C) to the silica filler (D) is 10:90 to 90:10 as a mass ratio.
Abstract:
An electronic device with self-recovering properties including a substrate including a polymer composite, a conductive pattern disposed on the substrate, and an electrode disposed on the conductive pattern is provided, and the polymer composite includes a composite of different first and second polymers, the first polymer includes a first functional group capable of forming a hydrogen bond between polymer chains, and the second polymer includes a second functional group capable of forming a hydrogen bond between polymer chains.
Abstract:
A flexible substrate repair structure, a manufacturing method thereof, and an inspection and repair method of a flexible substrate are provided. The flexible substrate repair structure includes a flexible substrate and at least one repair layer. The flexible substrate has a regular recess. The at least one repair layer is located on the flexible substrate and is completely filled in the regular recess. The material of the repair layer includes a polysilazane compound having the unit shown in formula (1) below, wherein Rx, Ry and Rz are respectively hydrogen, a C1 to C10 substituted alkyl group, an unsubstituted alkyl group, an alkenyl group, or an aromatic group.
Abstract:
Disclosed is a printed circuit board, to which at least one circuit device is mountable, including a base layer with a plurality of paper layers; a waterproof insulation layer laid on a first surface of the base layer; a copper foil layer laid on a second surface opposite to the first surface of the base layer and printed with a signal line pattern connectable with the at least one circuit device; and an adhesive layer configured to be interposed between the base layer and the copper foil layer that includes an adhesive material for adhering the base layer and the copper foil layer.
Abstract:
A display device includes a substrate on which a plurality of pixels are arranged and a circuit for displaying images with respect to each pixel is formed, a substrate terminal as a terminal formed on the substrate, and an electronic component terminal as a terminal of an electronic component electrically connected to the terminal via an anisotropic conductive film. A conductive region that conducts to the anisotropic conductive film in the substrate terminal has a light transmissive part in which a material having light transmissivity penetrates the substrate surface in a perpendicular direction.