Abstract:
A method of stable combustion in a fluidized bed incinerator for burning and decomposing refuse such as municipal wastes while fluidizing them is disclosed. A number of air diffuser tubes are provided inside the incinerator body for fluidizing the refuse and the fluidizing medium. The fluidizing air from the air diffuser tubes is supplied at high speed or low speed from each of the tubes respectively. By alternately forming more and less fluidized areas inside the fluidized bed, the refuse is stably burned. Because of the stable combustion of the refuse, the combustion air ratio can be reduced and the combustion chamber temperature inside the incinerator can be maintained at a high level.
Abstract:
A method of catalystless denitrification for a fluidized bed incinerator to remove NOx generated in burning refuse such as municipal wastes as the refuse is fluidized in a fluidized bed incinerator is disclosed. The refuse is fluidized together with fluidizing medium such as sand along with primary air, and is thermally decomposed and/or burned. The combustible gases generated by pyrolysis are burned with the secondary air blown into the incinerator in a lattice work arrangement. A denitrification agent is mixed in a part of the secondary air, and the NOx present in the combustion gas is removed without using catalysts.
Abstract:
A vapor deposition device (1) performs a vapor deposition treatment to form a luminescent layer (47) having a predetermined pattern on a film formation substrate (40). The vapor deposition device includes: a nozzle (13) having a plurality of injection holes (16) from which vapor deposition particles (17), which constitute the luminescent layer, are injected toward the film formation substrate when the vapor deposition treatment is carried out; and a plurality of control plates (20) provided between the nozzle and the film formation substrate and restricting an incident angle, with respect to the film formation substrate, of the vapor deposition particles injected from the plurality of injection holes. The nozzle includes: a nozzle main body (14b) in a container shape having an opening (14c) on a surface thereof on a film formation substrate side and (ii) a plurality of blocks (15) covering the opening and separated from each other, each of the plurality of blocks having the plurality of injection holes. The above arrangement allows a vapor-deposited film pattern to be formed with high definition.
Abstract:
A toner for electrostatic latent image development is disclosed. The toner for electrostatic latent image development includes toner particles, the toner particles includes a binder resin and a release agent, and the toner has a linear thermal expansion coefficient in accordance with JIS K 7197-1991 of from about 6×10−5/C.° to about 1×10−3/C.°. An electrostatic latent image developer, a toner cartridge, a process cartridge, and an image forming apparatus are also disclosed.
Abstract translation:公开了一种用于静电潜像显影的调色剂。 用于静电潜像显影的调色剂包括调色剂颗粒,调色剂颗粒包括粘合剂树脂和脱模剂,并且调色剂具有根据JIS K 7197-1991的线性热膨胀系数为约6×10-5 /℃ °至约1×10-3 /℃。 还公开了静电潜像显影剂,调色剂盒,处理盒和图像形成装置。
Abstract:
TFT substrate (10) includes a plurality of pixel regions each including light emitting regions of at least three colors, which light emitting regions include light emitting layers (23R(1), 23G, 23R(2), and 23B), respectively, and two adjacent ones of the light emitting regions are a combination other than a combination of (i) a light emitting region included in a light emitting layer (23G) of a color having a highest current efficiency in a case where the light emitting layers of the light emitting regions of the at least three colors emit light having an identical luminance and (ii) a light emitting region included in a light emitting layer (23B) of a color having a lowest current efficiency in a case where the light emitting layers of the light emitting regions of the at least three colors emit light having an identical luminance.
Abstract:
A vapor deposition device includes a vapor deposition source (60) having a plurality of vapor deposition source openings (61) that discharge vapor deposition particles (91), a limiting unit (80) having a plurality of limiting openings (82), and a vapor deposition mask (70) in which a plurality of mask openings (71) are formed only in a plurality of vapor deposition regions (72) where the vapor deposition particles that have passed through a plurality of limiting openings reach. The plurality of vapor deposition regions are arranged along a second direction that is orthogonal to the normal line direction of the substrate (10) and the movement direction of the substrate, with non-vapor deposition regions (73) where the vapor deposition particles do not reach being sandwiched therebetween. Mask openings through which the vapor deposition particles pass are formed at different positions in the movement direction of the substrate from the positions of the non-vapor deposition regions located on a straight line parallel to the second direction, as viewed along the normal line direction of the substrate. Accordingly, it is possible to stably form a vapor deposition coating film in which edge blurring is suppressed at a desired position on a substrate.
Abstract:
Occurrence of a crosstalk phenomenon in a light-emitting device is inhibited. The light-emitting device includes an insulating layer; a first lower electrode over the insulating layer; a second lower electrode over the insulating layer; a structure over the insulating layer and between the first lower electrode and the second lower electrode; a first partition wall between the first lower electrode and the structure, over the insulating layer; a second partition wall between the second lower electrode and the structure, over the insulating layer; a first light-emitting unit over the first lower electrode, the first partition wall, the structure, the second partition wall, and the second lower electrode; an intermediate layer over the first light-emitting unit; a second light-emitting unit over the intermediate layer; and an upper electrode over the second light-emitting unit.
Abstract:
To inhibit surface reflection of a display device. A display device which includes a reflective electrode layer 110; a partition 118 formed to surround the reflective electrode layer; a layer 120 containing a light-emitting organic compound and formed over the partition and the reflective electrode layer; a semi-transmissive electrode layer 122 formed over the layer containing the light-emitting organic compound; and a coloring layer 162 formed over the semi-transmissive electrode layer. The coloring layer overlaps with the reflective electrode layer and the partition. The partition does not overlap with the reflective electrode layer.
Abstract:
An electrostatic charge image developing toner includes a binder resin that contains an amorphous polyester resin and a colorant. The toner satisfies the following expressions: 20 μS/cm≦ρ≦150 μS/cm, and 0.01%
Abstract:
A masking film (13) is formed so as to have an opening in a display region (R1) (luminescent region) and a sealing region. Subsequently, luminescent layers (8R, 8G, and 8B) having a stripe pattern are formed. Then, the masking film (13) is peeled off, so that the luminescent layers (8R, 8G, and 8B) patterned with high resolution are provided.