Abstract:
An active matrix organic electroluminescence display device and a method of fabricating the same are disclosed in the present invention. The device includes gate and data lines defining a pixel region on a substrate, a switching thin film transistor connected to the gate and data lines, a driving thin film transistor connected to the switching thin film transistor, a power line connected to the driving thin film transistor, a transparent first capacitor electrode connected to and overlapping the power line, a second capacitor electrode connected to the driving thin film transistor, and a pixel electrode formed at the pixel region and connected to the driving thin film transistor.
Abstract:
A method for fabricating row lines and pixel openings of a field emission array that employs only two masks. A first mask is disposed over electrically conductive material and semiconductive material and includes apertures that are alignable between rows of pixels of the field emission array. Row lines of the field emission array are defined through the first mask. A passivation layer is then disposed over at least selected portions of the field emission array. A second mask, including apertures alignable over the pixel regions of the field emission array, is disposed over the passivation layer. The second mask is used in defining openings through the passivation layer and over the pixel regions of the field emission array. Conductive material exposed through the apertures of the second mask may also be removed to expose the underlying semiconductive grid and to further define the pixel openings.
Abstract:
A structure and a fabrication method of a flat panel display comprising address lines with mending layers. A first address line and a first mending layer are formed on a substrate. The first mending layer and the first address line are electrically insulated with each other, and the first mending layer is partitioned into different segments by the first address line. A first insulating layer is formed over the substrate to cover at least the first mending layer and the first address line. A second address line is formed on the first insulating layer over the first mending layer and crossing the first address line. A second insulating layer is formed over the substrate to cover at least the second address line. A second mending layer is formed on the second insulating layer over the second address line and crossing the first address line.
Abstract:
A method and an apparatus for removing a film from a display panel are provided that can remove even a film with relatively high strength that is stuck on a display panel without relying on manual work and also can reduce the operating cost. The apparatus that removes a film stuck on a display panel by injecting a liquid includes a liquid injector and a carrier. The liquid injector injects the liquid in the direction that tilts with respect to a normal to the surface of the display panel on which the film is stuck. The carrier transports the display panel. The liquid injector starts the injection of the liquid at the boundary between one end of the film and the display panel on the side of the transport direction. The liquid is injected while transporting the display panel so that the film is removed successively from one end to the other end in the opposite direction to the transport direction.
Abstract:
There is provided a method of manufacturing a member pattern having on a substrate, a patterned first belt-shaped member and a plurality of second belt-shaped members that are patterned over from the first belt-shaped member to the substrate, the method including: forming the first belt-shaped member by a printing method; and forming the second belt-shaped members by a process involving exposure and development using a photosensitive material.
Abstract:
The present invention relates to electronics and particularly to field emitters used in M-type microwave devices. The design of a multi-layer field emitter is proposed which has at least one operating film and supporting films, providing mechanical strength and preventing penetration of corrosion materials into the operating film at high operating temperatures. The supporting films could be produced from the same material or material with linear expansion coefficients equal or close to that of the operating film material. Built-in mechanical stress can cause not only deformation but also a break of the film during its exploitation in a wide range of temperatures. In the inventive structure the thermal stresses in the operating film during an emission from its surface are lower due to good thermal contact with supporting films.
Abstract:
Glass powders and methods for producing glass powders. The powders preferably have a small particle size, narrow size distribution and a spherical morphology. The method includes forming the particles by a spray pyrolysis technique. The invention also includes novel devices and products formed from the glass powders.
Abstract:
Disclosed is a method of fabricating barrier ribs in a plasma display panel using photosensitive glass powder includes the steps of preparing photosensitive glass powder by reducing a photosensitive glass material to fine powder, putting the photosensitive glass powder or the photosensitive glass powder mixed with a UV-ray transmitting organic material in a mold, aligning a photomask over the photosensitive glass powder and carrying out exposure thereon, carrying out first and second thermal treatment on the photosensitive glass powder so as to generate different crystalline phases at exposed and non-exposed portions, respectively, and forming barrier ribs by etching the portion where the crystalline phase is generated.
Abstract:
In a method for fabricating an organic electroluminescent display, a first electrode layer is formed on a transparent substrate, and a hole transport layer is formed on the first electrode layer. After an organic luminescent layer is formed on the hole transport layer by scanning a donor film disposed on the substrate using a laser beam, the donor film is removed and then a second electrode is formed on the organic luminescent layer. The laser beam dithers while performing the scanning operation to make the energy distribution uniform.