Abstract:
A plasma display panel is provided in which an operational quality is prevented from being deteriorated by resonance of a substrate. The plasma display panel includes a partition for dividing a discharge gas space defined by a pair of substrates and a sealing material in accordance with a cell arrangement of a display screen. There is a void space between the upper surface of the end portion of the partition and the surface of the opposed substrate, the surfaces contacting each other. The natural frequency of the portion from the inner edge of the void space to the inner edge of the sealing material is raised above audio frequency region of a human.
Abstract:
A plasma display panel includes a first substrate and a second substrate opposing one another with a predetermined gap therebetween. Address electrodes are formed on the first substrate. Also, barrier ribs are mounted in the gap between the first substrate and the second substrate, and define discharge cells in a predetermined display region of the first and second substrates. Phosphor layers are formed in the discharge cells. Further, scanning electrodes and display electrodes are formed on the second substrate. The scanning electrodes and the display electrodes each have a pitch in the display region that is identical to a pitch in terminal regions, which are formed to the outside of the display region.
Abstract:
Although it is inevitable that the barrier rib fracture remains on the barrier rib from a pressure applied from opposing glass substrates surface, the present invention aims to assemble the panel display after removing the broken fragments of the barrier rib from the discharge chamber. According to the manufacturing method of the panel display for the present invention, the method includes the step of temporary aligning the two glass substrates face-to-face, the step of decompressing the barrier rib pattern area formed by the alignment of the two glass substrates by isolating the barrier rib pattern area from the normal atmospheric pressure, the step of cleaning at least one of the glass substrates on facing side by detaching one of the glass substrates after the pressure has been returned to the normal atmospheric pressure, and the step of forming the discharge chamber by pasting the two glass substrates together in the similar manner as the temporary alignment.
Abstract:
An electrode substrate of an AC type plasma display panel has a major surface with electrically connected display electrodes formed thereon and defining a display portion of the substrate. An insulating layer, of a ZnO-containing glass material containing substantially no lead, is formed on and covers the display portion of the major surface. The display electrodes may be a film of a transparent electrically-conducted material or a multi-layer film combination of a transparent electrically-conducted film of a first width and a metal film of a second, narrower width.
Abstract:
A surface discharge type plasma display panel has a dielectric layer facing to a discharge gas space and a pair of sustaining electrodes embedded in the dielectric layer and disposed apart from each other by a discharge gap on one of the substrates spaced parallel to each other at the discharge gas space. The dielectric layer includes a pair of first thickness portions formed on far ends of the electrodes from the discharge gap respectively which are larger than a second thickness portion on facing near ends of the facing electrodes. The dielectric layer is provided with a depth from its surface to the substrate larger than that on the second thickness portion between adjacent the electrodes. This plasma display panel prevents any useless expansion of the surface discharge over the sustaining electrodes. The discharge current is reduced and the electrical load on the deriving circuit for the surface discharge PDP decreases to save a power consumption and further the emission efficiency of the surface discharge type PDP is improved.
Abstract:
The present invention aims at providing a lead-free glass composition that can be soften and flowed at a firing temperature that is equal to or lower than that of conventional low melting point lead glass. Furthermore, the present invention aims at providing a lead-free glass composition having fine thermal stability and fine chemical stability in addition to that property. The lead-free glass composition according to the present invention is characterized by comprising at least Ag2O, V2O5 and TeO2 when the components are represented by oxides, wherein the total content ratio of Ag2O, V2O5 and TeO2 is 75 mass % or more. Preferably, the lead-free glass composition comprises 10 to 60 mass % of Ag2O, 5 to 65 mass % of V2O5, and 15 to 50 mass % of TeO2.
Abstract:
Disclosed is a lead-free, low melting point glass composition, which is characterized by being substantially free from a lead component and comprising 0-8 mass % of SiO2, 2-12 mass % of B2O3, 2-7 mass % of ZnO, 0.5-3 mass % of RO (MgO+CaO+SrO+BaO), 0.5-5 mass % of CuO, 80-90 mass % of Bi2O3, 0.1-3 mass % of Fe2O3, and 0.1-3 mass % of Al2O3. This glass composition is not easily crystallized at high temperatures and is stable. Therefore, it is useful as an insulating coating material and a sealing material for electronic material substrates.
Abstract translation:本发明公开了一种无铅低熔点玻璃组合物,其特征在于,其基本上不含铅成分,其含有0〜8质量%的SiO 2,2〜12质量%的B 2 O 3,2〜7质量%的ZnO, RO(MgO + CaO + SrO + BaO)为0.5〜3质量%,CuO为0.5〜5质量%,Bi 2 O 3为80〜90质量%,Fe 2 O 3为0.1〜3质量%,Al 2 O 3为0.1〜3质量%。 该玻璃组合物在高温下不容易结晶,稳定。 因此,作为绝缘涂层材料和电子材料基板的密封材料是有用的。
Abstract:
A plasma display apparatus comprises: a plasma display panel including first and second substrates disposed in opposition to one another with a gap formed therebetween; a chassis base disposed on one side of the plasma display panel; and a drive circuit disposed on an opposite side of the chassis base for driving the plasma display panel. The first and second substrates of the plasma display panel form an overlapping region in which the first and second substrates overlie one another, and at least one pair of non-overlapping regions in which the first and second substrates do not overlie one another. The non-overlapping regions are asymmetrically formed about the overlapping region.
Abstract:
A Plasma Display Panel (PDP) includes: a front substrate, a common electrode and a scan electrode arranged on a lower surface of the front substrate, a bus electrode electrically connected to the common electrode and the scan electrode, a front dielectric layer covering the common electrode, the scan electrode, and the bus electrode, a rear substrate facing the front substrate, an address electrode arranged on an upper surface of the rear substrate to cross the bus electrode, a barrier rib arranged between the front and rear substrates, and a phosphor layer arranged on a discharge space defined by the barrier rib. The bus electrode includes a display unit bus electrode arranged on a display area that displays pixels, and a non-display unit bus electrode arranged on a non-display area electrically connected to the display unit bus electrode and connected to an external terminal. The display unit bus electrode and the non-display unit bus electrode have different structures. The non-display unit bus electrode arranged on the non-display area is a single-layered structure while the display unit bus electrode arranged on the display area is a double-layered structure.
Abstract:
A display electrode and a dielectric layer are formed on the convex side of a front glass substrate that is convexly curved in profile, whereas address electrodes, a dielectric layer, partition walls and phosphor layers are formed on the convex side of a back glass substrate 15 that convexly curved in profile. Further, a sealing layer containing granular substances in a sealing material is formed in the peripheral portion of the back glass substrate. A front panel and a back panel are stacked so that the panel component parts of the front panel are set opposite to the panel component parts of the back panel. Then the peripheral portions of the panels are pressed against each other into a flat substrate plate as shown by arrows and heated up.