Abstract:
A substrate processing apparatus includes a base member having an opening, a substrate holding member fixedly provided on the base member and configured to hold a plurality of substrates in multiple stages in a vertical direction, a plurality of shower plates provided to respectively face the substrates held by the substrate holding member and configured to supply a processing gas to the substrates existing thereunder in a shower shape, at least one gas introduction member configured to introduce the processing gas into the shower plates, a processing container provided to be able to make close contact with the base member and brought into close contact with the base member to define an arrangement space of the substrate holding member as a processing chamber, a heating device configured to heat the substrates in the processing chamber, and an exhaust mechanism configured to evacuate the processing chamber through the opening.
Abstract:
A gas reactor device includes a plurality of microcavities or microchannels defined at least partially within a thick metal oxide layer consisting essentially of defect free oxide. Electrodes are arranged with respect to the microcavities or microchannels to stimulate plasma generation therein upon application of suitable voltage. One or more or all of the electrodes are encapsulated within the thick metal oxide layer. A gas inlet is configured to receive feedstock gas into the plurality of microcavities or microchannels. An outlet is configured to outlet reactor product from the plurality of microcavities or microchannels. In an example preferred device, the feedstock gas is air or O2 and is converted by the plasma into ozone (O3). In another preferred device, the feedstock gas is an unwanted gas to be decomposed into a desired form. Gas reactor devices of the invention can, for example, decompose gases such as CO2, CH4, or NOx.
Abstract:
A tablet comprises a bismuth-based glass and a refractory filler, wherein: (1) the bismuth-based glass comprises, as a glass composition, in terms of mass %, 70 to 90% of Bi2O3, 2 to 12% of B2O3, 0 to 5% of Al2O3, 1 to 15% of ZnO, 0 to 10% of BaO, and 0 to 8% of CuO+Fe2O3; (2) the tablet comprises 1 to 25 vol % of alumina as the refractory filler; and (3) the filling ratio of the tablet is 71% or more.
Abstract translation:片剂包括铋基玻璃和耐火填料,其中:(1)铋基玻璃作为玻璃组合物,以质量%计含有70〜90%的Bi 2 O 3,2〜12%的B 2 O 3, 0〜5%的Al2O3,1〜15%的ZnO,0〜10%的BaO和0〜8%的CuO + Fe2O3; (2)片剂含有1〜25体积%的氧化铝作为耐火填料; 和(3)片剂的填充率为71%以上。
Abstract:
A plasma display panel includes a front panel and a rear panel disposed opposing each other. The front panel includes a display electrode composed of a scan electrode and a sustain electrode extending in a row direction. A rear panel includes address electrode extending in a column direction and intersecting the display electrode. A lattice form of barrier ribs of row direction barrier ribs and column direction barrier ribs, which have the same height, forming a plurality of individually divided discharge cells is provided in a part in which the display electrode and the address electrode intersect each other. The row direction barrier ribs of the barrier ribs are provided with communication portions communicating discharge cells in non-parallel to the column direction.
Abstract:
A plasma display panel comprising first and second substrates positioned substantially parallel to each other, facing each other and separated from each other by a predetermined distance is disclosed. A plurality of address electrodes are formed on the first substrate. A first dielectric layer covers the plurality of address electrodes on the first substrate. A plurality of barrier ribs having predetermined heights are mounted on the first dielectric layer, creating discharge spaces between the first and second substrates. Phosphor layers are formed within the discharge spaces. A plurality of discharge sustain electrodes are formed on the surface of the second substrate facing the first substrate and are positioned perpendicular to the address electrodes on the first substrate. A second dielectric layer is formed on the second substrate covering the discharge sustain electrodes. A protection layer comprising MgO and Ca, Al, Fe and Si dopants covers the second dielectric layer.
Abstract:
A plasma display panel including a transparent front substrate, a rear substrate disposed parallel to the front substrate, a barrier wall disposed between the front substrate and the rear substrate and defining light-emitting cells, address electrodes on the rear substrate and covered by a first dielectric layer, sustain electrode pairs extending in a direction orthogonal to a direction in which the address electrodes extend and covered by a second dielectric layer, red, green and blue phosphor layers coated on sides of the barrier wall and a surface of the first dielectric layer, and red, green and blue phosphor films formed on the second dielectric layer at regions corresponding to regions where the red, green and blue phosphor layers are formed.
Abstract:
A front and back glass substrates are placed on either side of a discharge spaces. A plurality of sustain electrode pairs extend in a row direction and are regularly arranged in a column direction on the front glass substrate. A dielectric layer covering the sustain electrode pairs is formed on the front glass substrate. A plurality of address electrodes initiating a discharge in conjunction with the sustain electrodes in each discharge cell formed in the discharge space extend in the column direction and are regularly arranged in the row direction. A first metallic partition wall unit defining the discharge cells is formed on the front glass substrate. A second metallic partition wall unit defining the discharge cells adjoined to the first partition wall unit is formed on the back glass substrate.
Abstract:
A blue-emitting phosphor is optimized by controlling mole fractions typically of Mg and Si in Sr3-eMgbSi2cO8d:Eue or by further including an optimal amount of at least one additional component such as Ba or Ca. The resulting phosphor exhibits a higher brightness and a higher color purity upon excitation by ultraviolet light emitted as a result of discharge of xenon gas. The optimized phosphor is incorporated into light emitting devices such as lamps and PDPs, and further into display devices.
Abstract translation:蓝色发光荧光体通过控制Sr 3-x N 2 Si 2 Si 2 O 2中典型的Mg和Si的摩尔分数来优化, 或通过进一步包含最佳量的至少一种另外的组分例如Ba或Ca。 所得到的荧光体在由于氙气的放电而发出的紫外光激发时,具有更高的亮度和较高的色纯度。 将优化的荧光体并入发光器件如灯和PDP中,并且进一步并入显示器件中。
Abstract:
A plasma display panel includes a front substrate, a back substrate facing the front substrate, and a plurality of discharge cells between the front substrate and the back substrate. Pairs of discharge electrodes oppose each other in a discharge cell to make a plasma discharge occur in the discharge cell, dielectric layers cover each pair of discharge electrodes, and a thickness of the dielectric layers covering the pairs of discharge electrodes is not uniform.
Abstract:
A plasma display panel (PDP) which can realize low voltage driving, to thus reduce power consumption, and which can improve luminous efficiency through a long gap. The PDP includes a first substrate and a second substrate opposing each other, barrier ribs arranged in a space between the first substrate and the second substrate to define a plurality of discharge cells, phosphor layers formed in each of the plurality of discharge cells, address electrodes formed on the second substrate, and display electrodes provided on the first substrate. The display electrodes include igniter electrodes having ends protruding towards insides of the discharge cells, the igniter electrodes opposing the address electrodes within the discharge cells.