Abstract:
Disclosed herein is a touch panel, including: a first transparent substrate; a bezel portion formed on one surface of the first transparent substrate; and an electrode portion formed on the other surface of the first transparent substrate, wherein the bezel portion and the electrode portion are formed by exposing/developing a silver salt emulsion layer.
Abstract:
A display apparatus for improving corrosion resistance of a pad area and a method of manufacturing the same. The display apparatus includes a first substrate including a display area, a non-display area, and a pad area, and a second substrate facing the first substrate and corresponding to at least the display area, wherein the pad area includes, a connection area connected to a driving circuit; an exposed area spaced from the connection area; and a plurality of blocking areas between the connection area and the exposed area.
Abstract:
Provided herein is a transparent electrode comprising: a substrate; and an electrode pattern where a plurality of electrode lines are patterned in a mesh format on the substrate, wherein the width each electrode line is in the range of 0.1 to 15 μm, and the aspect ratio of each electrode line is in the range of 1:0.1 to 1:1, and each electrode line is made of a conductive nano structure, and a high viscosity conductive nano ink composition comprising a high molecular compound having a molecular weight between 50,000 and 1,000,000.
Abstract:
This disclosure aims to reduce workloads and material costs when a driving circuit and a flexible wiring board are fixed to a first substrate. A display device includes a display panel having the first substrate. The driving circuit is fixed to the first substrate in a portion other than a display portion with an anisotropic conductive film. The flexible wiring board is fixed to the first substrate at an end of the portion other than the display portion with an anisotropic conductive film. The anisotropic conductive film for fixing the driving circuit and the anisotropic film for fixing the flexible wiring board are the same. The anisotropic conductive film is also formed and hardened in a region other than a region having the driving circuit and the flexible wiring board fixed therein within the portion other than the display portion of the first substrate.
Abstract:
A light-emitting device having the quality of an image high in homogeneity is provided. A printed wiring board (second substrate) (107) is provided facing a substrate (first substrate) (101) that has a luminous element (102) formed thereon. A PWB side wiring (second group of wirings) (110) on the printed wiring board (107) is electrically connected to element side wirings (first group of wirings) (103, 104) by anisotropic conductive films (105a, 105b). At this point, because a low resistant copper foil is used to form the PWB side wiring (110), a voltage-drop of the element side wirings (103, 104) and a delay of a signal can be reduced. Accordingly, the homogeneity of the quality of an image is improved, and the operating speed of a driver circuit portion is enhanced.
Abstract:
A display panel includes a periphery area, an active display area adjacent to the periphery, a driving chip disposed out of the active display area for driving the active display area, and a plurality of wires electrically connecting the driving chip and the active display area. The width of at least one wire at a portion adjacent to the driving chip is smaller than the width of the at least one wire at the other portion adjacent to the active display area.
Abstract:
A chip on film according to an exemplary embodiment includes: a driving film, a wire layer formed on a first surface of the driving film, a driving chip connected to the wire layer, and an electromagnetic wave blocking layer formed on a second surface of the driving film, in which a mesh portion may be formed on a portion of the electromagnetic wave blocking layer.
Abstract:
An electronic assembly includes a first substrate, at least one first conductive pad and multiple second conductive pads. The first substrate comprises a base layer and at least one conductive circuit layer. The at least one conductive circuit layer is disposed on the base layer. The at least one first conductive pad is disposed on the first substrate. The first conductive pad is electrically insulated from the conductive circuit layer. The first conductive pad includes multiple first holes. The second conductive pads are disposed on the first substrate. The second conductive pads are electrically connected to the conductive circuit layer.
Abstract:
A display apparatus including an organic light emitting display including a terminal portion, a battery disposed on a surface of the organic light emitting display, and a flexible printed circuit board (PCB) bent to cover the organic light emitting display and the battery, a side of the flexible PCB being connected to the terminal portion and another side of the flexible PCB extending outside and attached to the battery.
Abstract:
Disclosed are methods or manufacturing a metal wiring buried flexible substrate by using plasma and flexible substrates manufactured by the same. The method includes pre-treating a substrate by irradiating the plasma on the surface of the substrate (Step 1), forming a metal wiring on the pre-treated substrate in Step 1 (Step 2), forming a metal wiring buried polymer layer by coating a curable polymer on the substrate including the metal wiring formed thereon in Step 2 and curing (Step 3), and separating the polymer layer formed in Step 3 from the substrate in Step 1 (Step 4), The metal wiring may be inserted into the flexible substrate, and the resistance of the wiring may be decreased. The metal wiring may be clearly separated from the substrate, and impurities on the substrate surface may be clearly removed. The flexible substrate may be easily separated by applying only physical force.