Abstract:
A wiring board includes a plurality of first terminal parts for electrically connecting with a control circuit and disposed corresponding to a plurality of first electrode parts, and first terminal wiring parts for electrically connecting the plurality of first electrode parts and the corresponding first terminal parts. Each of the first terminal wiring parts has, in at least a portion thereof falling in a circle with a radius of 10 mm centering around a boundary part between the first terminal wiring parts and the corresponding first terminal parts, a portion having a line width of 5 μm to 100 μm inclusive, the wiring resistance value of the first terminal wiring parts connected to the first terminal parts being 100 ohms to 10 kohms inclusive.
Abstract:
Electrical connection between the backplane and the front electrode of an electro-optic display is provided by forming a front plane laminate (100) comprising, in order, a light-transmissive electrically-conductive layer (104), a layer of electro-optic material (106), and a layer of lamination adhesive (108); forming an aperture (114) through all three layers of the front plane laminate (100); and introducing a flowable, electrically-conductive material (118) into the aperture (114), the flowable, electrically-conductive material being in electrical contact with the light-transmissive electrically-conductive layer (104) and extending through the adhesive layer (108).
Abstract:
A double-layered transparent conductive film includes: a first substrate; a first imprint adhesive layer formed on the first substrate, the first imprint adhesive layer defining a first mesh-shaped groove, the first mesh-shaped groove forming a first mesh; a first conductive layer including conductive material filled in the first mesh-shaped groove; a tackifier layer formed on the first imprint adhesive layer and the first conductive layer; a second substrate formed on the tackifier layer; a second imprint adhesive layer formed on the second substrate, the second imprint adhesive layer defining a second mesh-shaped groove, the second mesh-shaped groove forming a second mesh, wherein one of the first mesh and the second mesh is a regular mesh, the other is a random mesh; and a second conductive layer including conductive material filled in the second mesh-shaped groove. During the lamination, no alignment accuracy is needed, such that the production efficiency is greatly improved. A method of manufacturing the double-layered transparent conductive film is also provided.
Abstract:
A touchscreen electrode pattern constituted by wavy conductive lines, each wavy conductive line includes multiple troughs of wave and multiple crests of waves, wherein an interval between adjacent troughs of waves in each wavy conductive line is larger than 1.5 times of a predetermined value, and an amplitude difference between adjacent trough of waves and crest of waves in each wavy conductive line is smaller than ⅓ times of the predetermined value.
Abstract:
A filled large-format imprinted structure includes a substrate and a first cured layer located over the substrate. One or more first micro-cavities are imprinted in the first cured layer, each first micro-cavity having a first micro-cavity width less than or equal to 20 microns. A second cured layer is located over the first layer and the one or more first micro-cavities. One or more second micro-cavities are imprinted in the second cured layer, each second micro-cavity having a second micro-cavity width less than or equal to 20 microns. A common first cured material is located in the first micro-cavity and in the second micro-cavity, thereby defining a filled large-format imprinted structure.
Abstract:
A method of making a filled large-format imprinted structure includes providing a substrate, locating a curable layer over the substrate, imprinting the curable layer, and curing the curable layer to form a cured layer including a layer surface and one or more imprinted micro-cavities. Each micro-cavity has a micro-cavity depth and a micro-cavity width and one or more ribs extending from the bottom of the micro-cavity toward the top of the micro-cavity. Each rib has a rib width that is less than one half of the micro-cavity width, a rib height that is less than the micro-cavity depth, and each rib separates the micro-cavity into portions, each portion having a portion width less than or equal to 20 microns. A curable material is located in each micro-cavity and cured to form cured material located in each micro-cavity, thereby defining a filled large-format imprinted structure.
Abstract:
A method of fabricating a capacitance touch panel module includes forming a plurality of first conductive patterns on a substrate comprising a touching area and a peripheral area along a first orientation, a plurality of second conductive patterns along a second orientation, and a plurality of connecting portions in the touching area; forming a plurality of insulated protrusions, in which each insulated protrusion covering one connecting portion, and forming an insulated frame on the peripheral area; and forming a bridging member on each insulated protrusion.
Abstract:
The present disclosure provides a bottom electrode substrate for a segment-type electrophoretic display. The bottom electrode substrate includes a flexible substrate, a first conductive layer, an insulating layer, a second conductive layer and a segment-type electrode. The first conductive layer is disposed on the flexible substrate. The insulating layer covers the first conductive layer and the flexible substrate, wherein the insulating layer has at least one opening exposing a part of the first conductive layer. The second conductive layer is filled in the opening and in contact with the exposed first conductive layer. The segment-type electrode covers the second conductive layer and the insulating layer, and is in contact with the second conductive layer. A method for manufacturing the bottom electrode substrate is also provided herein.
Abstract:
A transparent electrode sheet includes a transparent support having thereon patterned electrodes, and an absolute value of a difference between a reflection chromaticity of a surface of the electrode of far side from the transparent support and a reflection chromaticity of a surface of the electrode of near side to the transparent support is not more than 2.
Abstract:
Fusing nanowire inks are described that can also comprise a hydrophilic polymer binder, such as a cellulose based binder. The fusing nanowire inks can be deposited onto a substrate surface and dried to drive the fusing process. Transparent conductive films can be formed with desirable properties.