Abstract:
PROBLEM TO BE SOLVED: To make inorg. pigment filters hardly destroyable by fixing the binding strength thereof to a substrate and to enable the formation of a glass layer thereon. SOLUTION: Black matrices (BMs) 2 of inorg. pigments are formed on the substrate 1. Color filters R, G, B of red, green and blue are formed in the regions between the BMs 2. The filters R, G, B and the BMs 2 are completed by firing the substrate 1. A filter binder 3 which is a sol-gel liquid contg. an org. Si compd. is applied on the BMs 2 and the respective filters R, G, B. The filter binder 3 penetrates the inside from the openings of the surfaces of the BMs 2 and the filters R, G, B. The air in the holes emerges outside. The substrate 1 is fired in the atm. air. The org. Si compd. turns to SiO2 and remains on or in the BMs 2 and the filters. The binding strength of the easy destroyable BMs 2 and the filters is intensified to securely bind the BMs and the filters to the substrate 1 as well. A glass layer 4 (a smooth layer) is formed. An acid resistant protective film 5 is formed. Transparent conductive films 6 are formed in the patterns corresponding to the filters.
Abstract:
An active matrix display device includes a driving section provided on a substrate, an insulating film stacked on the driving section, and light-emitting elements arranged in a matrix on the insulating film, each of the light-emitting elements having a light-emitting layer between upper and lower electrodes, the active matrix display device being driven by the driving section provided for each of the light-emitting elements, the active matrix display device also includes an auxiliary wiring provided on the same layer as the lower electrode of the light-emitting element and adapted to adjust the electrical resistance of the upper electrode, and drive wirings disposed in the underlying layer of the auxiliary wiring via the insulating film and adapted to drive the light-emitting element, wherein the auxiliary or drive wiring is routed in a roundabout manner where the auxiliary and drive wirings overlap.
Abstract:
The present invention relates to efficient organic light emitting devices (OLEDs) doped with multiple light-emitting dopants, at least one dopant comprising a phosphorescent emitter, in a thin film emissive layer or layers. The present invention is directed to an efficient phosphorescent organic light emitting device utilizing a plurality of emissive dopants in an emissive region, wherein at least one of the dopants is a phosphorescent material. Thus, the present invention provides an organic light emitting device comprising an emissive region, wherein the emissive region comprises a host material, and a plurality of emissive dopants, wherein the emissive region is comprised of a plurality of bands and each emissive dopant is doped into a separate band within the emissive region, and wherein at least one of the emissive dopants emits light by phosphorescence.
Abstract:
A color display device for emitting, in operation, red, blue and green light having a substrate provided with a black matrix and only blue and red color filter layers.
Abstract:
A method for forming a conductively coated matrix structure for separating rows and columns of sub-pixels on the faceplate of a flat panel display device. In one embodiment, the present invention deposits a photoresistive material over the interior surface of a faceplate having a non-conductive matrix structure formed thereon. The photoresistive material is deposited into sub-pixel regions separated by the matrix structure. The photoresistive material is dried and exposed in the sub-pixel regions. After unexposed photoresistive material is removed, a layer of aluminum is evaporated over the interior surface of the faceplate such that the matrix structure and the exposed layer of photoresistive material in the sub-pixel regions is coated with a conductive layer of aluminum. Next, the present invention applies an etchant to the exposed photoresistive material disposed in the sub-pixel regions. The etchant removes the exposed photoresistive material and the overlying conductive layer of aluminum from the sub-pixel regions such that the conductive layer of aluminum remains only on the matrix structure, and does not cover the sub-pixel regions.
Abstract:
A gas discharge display/storage apparatus in which a multicolor display is achieved utilizing an arrangement of the triad cell configuration. The triad cell configuration may be positioned on a transparent filter sheet or may be represented by polychromatic phosphor cells formed on the inner surface of the gas discharge display storage apparatus. The triad arrangement representing basic colors of red, blue and green is addressed by horizontal conductors which thread through each of the three cells in the triad arrangement, while the vertical conductors are arrayed in groups of three, each conductor threading the cells of a specific color. The panel can thereby be constructed substantially as a conventional black and white plasma display device, and conventional addressing techniques may be utilized to provide a plasma display with multicolor capability.
Abstract:
PROBLEM TO BE SOLVED: To solve a problem such as an arc phenomenon generated in a conventional technique by providing a CNT-FED of a cathode substrate and an anode substrate. SOLUTION: This anode substrate of a carbon nanotube (CNT) field emission display used in this application includes: a glass substrate; a plurality of phosphor layers patterned on the glass substrate; a flattened Al film covering the phosphor layers; and a metal sheet having the same potential as that of the Al film, and having a plurality of openings, by covering the Al film, corresponding to the respective phosphor layers. COPYRIGHT: (C)2004,JPO