Abstract:
Disclosed herein is a touch panel including a transparent substrate and an electrode formed on the transparent substrate and an electrode having light transmittance of 5 to 50%, wherein as the electrode has high light transmittance, such that it is possible to solve a defective problem of visibility of the touch panel due to the opacity and specular phenomenon of the electrode.
Abstract:
A transparent conductive film which comprises: a substrate composed of a non-crystalline polymer film;a first hard coating layer; a first transparent conductor layer; a first metal layer; a second hard coating layer; a second transparent conductor layer; and a second metal layer. The first hard coating layer includes a binder resin and a plurality of sphere-shaped particles having a diameter of 1 μm to 5 μm. The first metal layer has a plurality of projections having a maximum height Rz of 0.5 μm to 2.5 μm resulting from the plurality of particles included in the first hard coating layer on a surface thereof.
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 photopatternable structure (10) comprises an optically transparent substrate (12) having first and second faces (14, 16), coated respectively with first and second photosensitive materials (18, 20), the coated substrate being opaque to electromagnetic radiation of one or more wavelengths to which the photosensitive materials are sensitive. In use, the faces (14, 16) are exposed (sequentially or simultaneously) to curing radiation to which the photosensitive materials are sensitive and to which the coated substrate is opaque, resulting in two sided photopatterning without through -cure occurring.
Abstract:
Disclosed herein is a touch panel. A touch panel 100 according to a preferred embodiment of the present invention is configured to include a transparent substrate 110 and an electrode 120 formed of conductive non-oxide ceramics on the transparent substrate 110. The electrode 120 is formed of conductive non-oxide ceramics (Ti3SiC2) and an additional black oxide treatment is not required, thereby improving productivity of the touch panel 100.
Abstract translation:这里公开了触摸面板。 根据本发明的优选实施例的触摸面板100被配置为在透明基板110上包括透明基板110和由导电非氧化物陶瓷形成的电极120.电极120由导电非氧化物陶瓷( Ti 3 SiC 2),并且不需要另外的黑色氧化物处理,从而提高触摸面板100的生产率。
Abstract:
The present disclosure provides an article having a substrate having opposing first and second surfaces. A conductor micropattern disposed on the first surface of the substrate. The conductor micropattern has a plurality of traces defining a plurality of cells. The conductor micropattern has an open area fraction greater than 80% and a uniform distribution of trace orientation. Each of the traces has a trace width from 0.5 to 10 micrometer. The conductor micropattern is a tri-layer material comprising in sequence a semi-reflective metal, a transparent layer, and a reflective layer disposed on the transparent layer. The articles are useful in devices such as displays, in particular, touch screen displays useful for mobile hand held devices, tablets and computers. They also find use in antennas and for EMI shields.
Abstract:
A coating material containing metal oxide is applied to one side of a substrate, both coating and substrate being transparent to visible light. An absorber material is placed in heat transfer proximity to the coating and a laser beam is transmitted through the substrate and through the coating to strike the absorber material at the interface between coating and absorber. The absorber material absorbs optical energy from the laser beam causing the material to heat. Heat from the absorber propagates to the coating to heat a localized region, causing the coating material to anneal. If desired, the coating material can include a doping material that fuses into the coating during annealing.
Abstract:
A photoelectric composite wiring module includes a flexible first substrate including a conductive line and an optical fiber mounted thereon along a longitudinal direction thereof, a second substrate including a recessed portion formed thereon to receive the conductive line and the optical fiber that protrude from an end portion of the first substrate, and an optical device mounted on the second substrate and optically coupled to the optical fiber. The recessed portion includes an opening on a mounting surface side of the second substrate to mount the optical device.
Abstract:
The invention relates to a method to conductively connect an electrical component with at least one conductive layer, whereby the conductive layer is applied to a substrate which is essentially transparent in the visible wavelength zone of light, comprising the following steps: the electrical component or the conductive layer is provided with a soldering material in the area where the component is to be connected to the conductive layer; the soldering material is provided with energy supplied by an energy source, such that the soldering material melts and a non-detachable, material-bonded conductive connection between the electrical component and the conductive layer is established.
Abstract:
A method is provided for coating an optoelectronic chip-on-board module, including a flat substrate populated with one or more optoelectronic components, having a transparent, UV-resistant, and temperature-resistant coating made of one or more silicones. A corresponding optoelectronic chip-on-board module and a system having multiple optoelectronic chip-on-board modules are also provided. The method includes the following steps: a) preheating the substrate to be coated to a first temperature; b) applying on the preheated substrate a dam that encloses a surface area or partial area of the substrate to be coated, the dam being made of a first, heat-curable, highly reactive silicone that cures at the first temperature; c) filling the surface area or partial area of the substrate enclosed by the dam with a liquid second silicone; and d) curing the second silicone.