Abstract:
A multi-layered glass structure includes at least three glass substrates. The edges of the three glass substrates are sealed and fastened. There is a cavity space between two adjacent glass substrates, and the multi-layered glass structure includes at least one vacuum cavity space. The multi-layered glass structure has a flat vacuum structure to enhance the heat insulation and separating effect and the noise insulation effect of the multi-layered glass structure.
Abstract:
A field emission display device with flexible gate electrode and method for manufacturing the same. The field emission display device includes a cathode plate, a gate electrode and an anode plate. The cathode plate includes a cathode substrate and supports on both sides of the cathode. A recess is defined on outer bottom face of the support. The gate electrode includes a flexible mesh and a plurality of fixing tabs on both sides of the flexible mesh. The fixing tab is locked into the recess. The flexible mesh is arranged on the supports in stretching manner. The anode plate includes an anode substrate. A sealing spacer is arranged on the peripheral of the anode substrate and connected to the peripheral of the cathode substrate. The sealing spacer presses the fixing tabs evenly against the cathode substrate to induce a tension force to the flexible mesh.
Abstract:
A field-emission-typed backlight source structure for liquid crystal panel includes a cathode plate and an anode plate. The cathode plate is connected correspondingly to the anode plate. The cathode plate has a cathode substrate, on which a cathode unit is arranged. The cathode unit is shown as comb-shaped structure and further includes a cathode electrode layer and a gate electrode layer, both of which are coplanar on the cathode substrate, and at an intercrossing position with respect to both which an insulating layer is vertically overlapped to separate two layers. The anode plate further includes an anode unit, which is corresponded to the cathode unit, by the comb-shaped structure of which a matrix area is formed, whereby a luminance contrast is independently provided to the corresponding liquid crystal panel area.
Abstract:
In a method of uniforming the thickness of a rib, steps are forming a plurality of blocked layers by many times of printing and stack, processing a first pre-bake of each blocked layer printed, processing a second pre-bake of in the final blocked layer, flattening the final blocked layer by the uniform plate, and solidify the blocked layers by a sintering process in the final to form a rip (insulation structure), thereby the thickness of rip being uniform.
Abstract:
A method of fabricating a tetraode field-emission display. A mesh is disposed between an anode plate and a cathode plate. The mesh has a gate layer and a converging electrode layer separated by an insulation layer to form a sandwich structure. The mesh has a plurality of apertures in correspondence with each set of anode and cathode. The converging electrode layer is facing the anode plate, such that the divergent range of an electron beam emitted by an electron emission source can be restricted. Thereby, the electron beam can impinge the corresponding anode more precisely.
Abstract:
A field emission display with multiple display directions includes an anode structure and a cathode structure. The anode structure has a plurality of peripheral sides, and each of the peripheral sides has an interior surface. A conductive layer and a phosphor layer formed on each interior surface of the shell substrate. The cathode structure is disposed within the shell substrate of the anode structure. The cathode structure has a plurality of peripheral sides facing respective interior surfaces of the anode structure and a conductive layer and an electron emission layer formed on each peripheral side of the cathode structure.
Abstract:
A see-through display apparatus includes a first substrate having a plurality of first electrodes on its upper surface, a second substrate having a plurality of second electrodes on its bottom surface. The first electrodes and the second electrodes are alternative arrangement so that a plurality of crossing areas is formed. Each crossing area forms a pixel area and has at least one electric-excited area thereon. The electric-excited areas are alternated with the transparent areas and the see-through rate of the pixel area is ranged in a predetermined range so that the display apparatus has a see-through property.
Abstract:
In a plane emissive cathode structure of a field emission display having a common plane structure, a cathode plate includes a cathode substrate, and a plurality of cathode units on the cathode substrate, and the cathode unit includes an emitter layer, a gate electrode layer and a dielectric layer. The emitter layer and the gate electrode layer are disposed on a common plane of the cathode substrate and separated with each other to form an interval. The dielectric layer is formed in the interval between the emitter layer and the gate electrode layer, but not connected to the interval between the emitter layer and the gate electrode layer, so as to change the electric field distribution of the emitter layer and the gate electrode layer.
Abstract:
In a plane emissive cathode structure of a field emission display having a common plane structure, a cathode plate includes a cathode substrate, and a plurality of cathode units on the cathode substrate, and the cathode unit includes an emitter layer, a gate electrode layer and a dielectric layer. The emitter layer and the gate electrode layer are disposed on a common plane of the cathode substrate and separated with each other to form an interval. The dielectric layer is formed in the interval between the emitter layer and the gate electrode layer, but not connected to the interval between the emitter layer and the gate electrode layer, so as to change the electric field distribution of the emitter layer and the gate electrode layer.
Abstract:
A driving method for a field emission structure including at least a pixel, each including a first emitter, a second emitter, a first electrode utilized to control the first emitter, and a second electrode utilized to control the second emitter, includes: receiving a first control signal and a second control signal; and controlling the first emitter and the second emitter according to the first control signal and the second control signal, wherein when the first control signal and the second control signal have a first phase difference, electrons emitted by the first emitter and the second emitter have a first intensity, and when the first control signal and the second control signal have a second phase difference different from the first phase difference, electrons emitted by the first emitter and the second emitter have a second intensity different from the first intensity.