Abstract:
To provide non-lead glass for covering electrodes, whereby the strength of front substrates of plasma display devices can be improved, and the dielectric constant can be made small.Non-lead glass for covering electrodes, which comprises, as represented by mol % based on the following oxides, from 42 to 52% of B2O3, from 40 to 48% of SiO2, from 3.5 to less than 7% of K2O and from 0 to 6% of ZrO2, wherein the total content of B2O3 and SiO2 is at least 88%. Further, a plasma display device comprising a front glass substrate to be used as a display surface, a rear glass substrate and barrier ribs to define cells, wherein transparent electrodes formed on the front glass substrate or the rear glass substrate are covered with the above non-lead glass for covering electrodes.
Abstract translation:为了提供用于覆盖电极的非铅玻璃,由此可以提高等离子体显示装置的前基板的强度,并且可以使介电常数小。 用于覆盖电极的非铅玻璃,其以以下氧化物的摩尔%表示,42%至52%的B 2 O 3,40至48%的SiO 2,3.5至小于7%的K 2 O和0 至6%的ZrO 2,其中B 2 O 3和SiO 2的总含量为至少88%。 此外,包括用作显示表面的前玻璃基板,后玻璃基板和限定单元的阻挡肋的等离子体显示装置,其中形成在前玻璃基板或后玻璃基板上的透明电极被上述非玻璃基板 用于覆盖电极的玻璃。
Abstract:
A plasma display panel and a manufacturing method thereof are disclosed. The panel includes a substrate having a plurality of discharge cells, and barrier ribs defining the discharge cells, the barrier ribs contain carbon in an amount of 0.1 to 10% by weight.
Abstract:
A transmission-type PDP having high emission efficiency is provided. This PDP comprises: a first substrate structure (rear unit) having a pair of display electrodes; a second substrate structure (front unit) having an address electrode and a display surface; a barrier rib being translucent; and a phosphor layer. And, at the rear unit side, a specular reflecting film having light reflectivity toward the front side is provided to a first substrate. For example, the specular reflecting film is adhered to the rear side of the first glass substrate. The emission from the phosphor layer is reflected by the specular reflecting film and transmitted by the barrier rib, thereby utilizing the emission as luminance.
Abstract:
A plasma display panel is disclosed. A method for manufacturing the plasma display panel includes: forming address electrodes and a first dielectric layer on a first substrate; forming barrier ribs by stacking a photosensitive barrier rib material, containing a hybrid binder, on the first substrate, and processing the stacked photosensitive barrier rib material; coating phosphor layers in respective cells defined by the barrier ribs; sequentially forming a plurality of transparent electrodes and bus electrodes, a second dielectric layer, and a protective layer on a second substrate; and bonding the first substrate and the second substrate with each other.
Abstract:
Disclosed is a rear plate of a plasma display panel. In the rear plate, barrier ribs are formed by etching a baked barrier rib layer, so that the completed barrier ribs have no deformation and the electrodes can be exactly located at central portions between the barrier ribs. In a PDP having a front plate to a rear plate attached to each other, the PDP shows improvements in both optical characteristics, such as average brightness, color temperature, and contrast, and electric characteristics, such as voltage margin, power consumption, and efficiency.
Abstract:
A glass composition for a plasma display panel (PDP) and its fabrication method are disclosed. The composition, including a ZnO—B2O3 group and alkaline earth metal oxide, is environment-friendly, has a high discharge efficiency and is used as various PDP dielectric materials. The fabrication method allows to compose the low melting point unleaded non-alkali glass composition at a low cost.
Abstract translation:公开了一种用于等离子体显示面板(PDP)的玻璃组合物及其制造方法。 包括ZnO-B 2 O 3 N 3基团和碱土金属氧化物的组合物是环境友好的,具有高放电效率并且用作各种PDP电介质材料 。 该制造方法能够以低成本构成低熔点无铅无碱玻璃组合物。
Abstract:
A plasma display panel includes: a front substrate having a sustain electrode and a scan electrode for causing surface discharge, and a first dielectric layer which covers the sustain electrode and the scan electrode; a rear substrate having an address electrode extending across the sustain electrode and the scan electrode, and a second dielectric layer which covers the address electrode; a partition wall disposed in a discharge space defined between the front substrate and the rear substrate combined together and partitioning the discharge space; and a fluorescent layer covering a side surface of the partition wall and the second dielectric layer; wherein the second dielectric layer has a light absorbing function, and the partition wall has a light transmitting function. The plasma display panel ensures higher brightness and higher contrast.
Abstract:
A plasma display panel (PDP) that is light in weight and low in manufacturing costs and a plasma display apparatus including the PDP. The PDP includes a substrate; a barrier rib structure disposed on the substrate to define a plurality of discharge cells; a sealing layer configured together with the substrate to seal the discharge cells and being formed of a substantially identical material as the barrier rib structure; a plurality of discharge electrode pairs extending along respective lines of the discharge cells to generate discharge in the discharge cells; and a plurality of phosphor layers disposed in the discharge cells.
Abstract:
A plasma display module including a substrate; barrier ribs formed on the substrate and defining a plurality of discharge cells; pairs of discharge electrodes disposed in the barrier ribs to generate a discharge in the discharge cells; a sealing layer, along with the substrate, to seal the discharge cells; phosphor layers disposed in the discharge cells; a chassis disposed in a side portion of the sealing layer to support the substrate; and a thermal conductive adhesive member disposed between the sealing layer and the substrate to transfer heat from the sealing layer to the chassis, and a plasma display apparatus including the plasma display module.
Abstract:
A method of fabricating barrier ribs and black tops for a plasma display panel including sequentially laminating a photosensitive barrier rib material and a photosensitive black top material on a substrate, simultaneously exposing and developing the photosensitive black top material and the photosensitive barrier rib material in a predetermined pattern using a laser direct imaging process, and burning the developed pattern to thereby form the barrier ribs and black tops.