Abstract:
A multi-layer composite precursor is provided comprising a substrate, wherein the substrate comprises a light emitting organic compound, a first surface, and a second surface, wherein the second surface is superimposed by a transparent electrically conducting layer, a liquid phase superimposing at least a part of the first surface comprising a metal-organic compound, wherein the metal-organic compound comprises an organic moiety, wherein the organic moiety comprises a C═O group; and wherein the liquid phase further comprises a first silicon compound, wherein the first silicon compound comprises at least one carbon atom and at least one nitrogen atom.
Abstract:
Disclosed are a scintillator using semiconductor quantum dots, a method of manufacturing the scintillator, and a digital image diagnostic system employing the scintillator. In one aspect, the scintillator includes a metallic reflection film made of a metal configured to transmit an X-ray and reflecting visible light and having a plurality of voids formed in a thickness direction. The scintillator also includes a polymer film formed inside the plurality of voids and being configured to include a plurality of columnar structures to convert the X-ray into the visible light. The scintillator further includes semiconductor quantum dots dispersed in the polymer film and having a decay time of tens of nanoseconds.
Abstract:
A barrier structure of a display device and a method of manufacturing the same are proposed. The barrier structure may include a plurality of light-transmissive photoresist patterns disposed on a substrate at predetermined intervals. The barrier structure may also include reflective films formed on an entire outer surface of the light-transmissive photoresist patterns.
Abstract:
The present invention relates to a pixel structure for an active matrix display and to a method for manufacturing same, and the objective thereof is to simplify processes for manufacturing pixel electrodes and pixel defining layers and address a problem caused by a terminal which is formed at an edge part of the pixel electrode through the patterning of the pixel electrode. The pixel structure according to the present invention includes: a base substrate; a plurality of pixel circuit electrodes; an insulating layer; and a composite layer. The plurality of pixel circuit electrodes is arranged in a matrix form on the base substrate. The insulating layer is formed on the base substrate to cover the outer peripheries of the plurality of pixel circuit electrodes. The composite layer is integrally formed to cover the plurality of pixel circuit electrodes and the top of the insulating layer. In this case, the composite layer has: the conductive pixel electrodes that are formed to be respectively connected to the plurality of pixel circuit electrodes which are exposed from the insulating layer; and the non-conductive pixel defining layers on the outer peripheries of the pixel electrodes.