Abstract:
An electrical device including a glass substrate, an intrgrated circuit chip, an electrical device and electrical conductor paths applied to the surface of the glass substrate and connected to electrical terminals of the integrated circuit chip and the electrical device. The conductor paths are divided into supply conductor paths for supplying voltage to the integrated circuit chip and actuation conductor paths for actuating the electronic device. The actuation conductor paths are composed of layers of indium tin oxide deposited on the glass surface and the supply conductor paths are composed of metal films glued on the glass surface.
Abstract:
To deposit a solderable metal layer on conductive paths (4) of ITO on substrates of display devices (1) by an electroless method, the conductive paths are activated, prior to the deposition, and the areas not covered by the conductive paths are subsequently inactivated. The activated paths are then metallized with a solderable metal layer so that integrated circuits can be soldered to the metallized conductive paths.
Abstract:
An electrical conductor interconnect is disclosed which permits hard-to-contact substrates, such as the glass substrate in liquid crystal display cells, to be connected to electrical apparatus by conventional soldering techniques. The interconnect conductor involves the use of a polymer loaded with both a conducting powder and a non-noble metal powder whose top surface is coated with a contiguous layer of an adherent solderable metal by an augmentation replacement reaction.
Abstract:
The invention generally relates to articles and methods of making thereof. More specifically, articles comprising a substrate and a film deposited on the substrate, wherein the article is bendable to a bending diameter of about 3.8 mm or less without substantial structural failure of the film. Further, methods of making these articles are further disclosed. This abstract is intended as a scanning tool for purposes of searching in the particular art and is not intended to be limiting of the present invention.
Abstract:
Provided is a circuit board interconnection structure including: a first circuit board including a first substrate and a first electrode formed on a surface of the first substrate; a second circuit board including a second substrate and a second electrode formed on a surface of the second substrate; one or more joining portions formed of a metal-containing conductive material for joining the first and second electrodes, interposed between the first and second electrodes; and a reinforcing resin portion for reinforcing the one or more joining portions. The first electrode is a transparent electrode including a metal oxide film. A first abutting portion of the joining portion abutting the first electrode, is formed by adhesional wetting of the first electrode with the conductive material.
Abstract:
The present invention relates to a flexible hybrid substrate for a display and a method for manufacturing the same and, more specifically, to a flexible hybrid substrate for a display, which has a reduced occurrence of cracks, an improved level of flexibility, and can be used in a high-temperature process for manufacturing a display element, and a method for manufacturing the same. To this end, the present invention provides a flexible hybrid substrate for a display and a method for manufacturing the same, the flexible hybrid substrate for a display comprising: an ultra-thin plate glass; a first transparent thin film formed on one surface of the ultra-thin plate glass; and a second transparent thin film formed on the other surface of the ultra-thin plate glass, wherein the second transparent thin film includes a transparent conductive polymer.
Abstract:
A wiring substrate includes ceramic layers and a conductive member. The ceramic layers have an uppermost ceramic layer and a lowermost ceramic layer. The conductive member includes an upper conductive layer, an internal conductive layer, a lower conductive layer, vias, and a covering layer. The upper conductive layer is disposed on an upper surface of the uppermost ceramic layer. The internal conductive layer is interposed between the ceramic layers. The lower conductive layer is disposed on a lower surface of the lowermost ceramic layer. The vias connect the upper conductive layer, the internal conductive layer, and the lower connective layer. The covering layer covers a portion of the upper conductive layer. The upper conductive layer includes a covered region covered with the covering layer and an element mount region. An upper surface of the element mount region is higher than an upper surface of the covered portion.
Abstract:
The present disclosure provides a touch-sensing electrode structure, which includes a plurality of touch-sensing electrodes. Each of the touch-sensing electrodes includes a main body and a connecting portion connected to an end of the main body; wherein the width of the connecting portion is not less than a half width of the end of the main body. The touch-sensing electrode structure also includes a plurality of signal-transmitting wires, each of which includes a head portion and a tail wire connected to the head portion. The head portions of the signal-transmitting wires is superimposed on the connecting portions and electrically connected to the connecting portions respectively. Furthermore, a method of manufacturing the above touch-sensing electrode structure is also provided.