Abstract:
PROBLEM TO BE SOLVED: To provide a multi-display device which further prevents an observer from recognizing that a plurality of planar display elements are connected.SOLUTION: A multi-display device 100 comprises: a first planar display element 10 and a second planar display element 20 whose respective one sides 10T and 20T are connected and arranged so as to face each other, and form a boundary 40 at a portion where the one sides 10T and 20T are connected with each other; and a lenticular lens 30 which is provided so as to cover the boundary 40 and pixels of one column including red, green and blue pixels disposed side by side to be adjacent to the boundary 40.
Abstract:
PROBLEM TO BE SOLVED: To provide an electron emission element to which proper voltage is applied to produce a sufficient amount of electron emissions. SOLUTION: The electron emission element is provided which includes a first electrode, an insulation fine particle layer formed on the first electrode and consisting of insulation fine particles, and a second electrode formed on the insulation fine particle layer. In the surface of the insulation fine particle layer at the side of the second electrode, recessed portions are formed whose depths are each smaller than the layer thickness of the insulation fine particle layer. When voltage is applied between the first electrode and the second electrode, electrons supplied from the first electrode are accelerated in the insulation fine particle layer and then emitted from the second electrode. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a method of manufacturing an electron emitting element for making a small amount of conductive particulates exist uniformly simply and at a low cost, and for making stable and excellent electron emission. SOLUTION: The forming process of an electron acceleration layer 4 of the electron emitting element 1 includes a particulate layer forming process in which a particulate layer containing insulator particulates 5 is formed by coating a dispersion liquid in which the insulator particulates 5 are dispersed, and a conductive particulate coating process in which a dispersion liquid of conductive particulates 6 is coated on the particulate layer by an electrostatic spray method. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide an economical and convenient method capable of obtaining a very small resin particle, in detail, a resin particle having a micron to submicron of particle size, free from a problem and a defect caused by production using a conventional device according to a conventional production method, a resin particle produced by the method, toner and a developer containing the resin particle, and a developing device and an image forming device for forming an image using the developer. SOLUTION: The spherical particle is produced by the production method for the spherical particle including a crushing process. A dispersion liquid of a treating object coarse particle containing a polymer dispersant and dispersed with the coarse particle of a treating object in a liquid medium is passed through a high-pressure homogenizer having a stepwise pressure releasing mechanism, in the crushing process, and the coarse particle is formed into fine particles, under the condition where a melt viscosity of the dispersion liquid gets to 5,000 cP or less in a time point of passing a nozzle part of the high-pressure homogenizer. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide toner capable of forming a high-definitionimage of high quality, by fully restraining the toner from being splashed, and by restraining new toner particles from being generated in a developing device, and to provide a method of manufacturing the toner, a developer, the developing device, and an image forming device provided therewith. SOLUTION: This toner contains a plurality of toner particles, containing a binder resin and a coloring agent, a content of small size particles of the toner particles having 0.5 μm-2.0 μm of circle-equivalent diameter is 5 number% or less with respect to total toner particles, in measurement by a flow particle image analyzer; a content of medium size particles C of the toner particles having a circle-equivalent diameter more than 2.0 μm and 4.0 μm or less is 20 number% or more to 30 number% or less with respect to total toner particles; a content of large size particles D of the toner particles having a circle-equivalent diameter of more than 4.0 μm and 6.0 μm or less is 50 number% or more to 70 number% or less with respect to total toner particles; and a shape factor SF1 of the toner particle is 130 or more to 140 or less. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a stereoscopic image display device capable of displaying an image having high luminance and resolution during both a stereoscopic image display and a planar image display.SOLUTION: A stereoscopic image display device 100 comprises: a first liquid crystal display 110 for including a plurality of first sub pixels 10 and selectively displaying a planar image and a plurality of parallax images; a second liquid crystal display 120 including a plurality of second sub pixels 20 and capable of displaying a parallax barrier having transmission parts 20A and shield parts 20B; and a spacer for forming a uniform gap between the liquid crystal displays 110 and 120. Each resolution of the sub pixels 10 and 20 is the same. When the stereoscopic image display device 100 displays a stereoscopic image, the plurality of second sub pixels 20 form the transmission parts 20A or the shield parts 20B with respect to the plurality of first sub pixels 10 so that one second sub pixel 20 corresponds one-to-one to one first sub pixel 10.
Abstract:
PROBLEM TO BE SOLVED: To provide an image display device that is suitable for a large-sized image display device capable of displaying three-dimensional video and can accurately position a distance between a parallax barrier and a display panel.SOLUTION: An image display device includes: a parallax barrier 1 which includes a transparent base material 11, and a pattern film 12 comprising plural light shield parts 8 and plural translucent parts 9 and formed on the transparent base material 11, with the light shield parts 8 and the translucent parts 9 alternately arranged; a display panel having a screen where an image is displayed; and an adjustment member for adjusting a distance between the screen of the display panel and the parallax barrier 1.
Abstract:
PROBLEM TO BE SOLVED: To provide an electron-emitting element having high efficiency of electron emission, of which power consumption is suppressed.SOLUTION: The electron-emitting element includes: a first electrode; an insulating fine particle layer formed on the first electrode and composed of insulating fine particles; and a second electrode formed on the insulating fine particle layer. The insulating fine particle is a monodisperse fine particle. Voltage is applied between the first electrode and the second electrode, and electrons emitted from the first electrode are accelerated through the insulating fine layer to be emitted from the second electrode.
Abstract:
PROBLEM TO BE SOLVED: To provide an electron emission element emitting a sufficient amount of electrons while hardly causing a breakdown.SOLUTION: The electron emission element includes: a first electrode; an insulating fine particle layer formed on the first electrode, consisting of first insulating fine particles and second insulating fine particles larger than the first insulating fine particles, and having a projection formed of the second insulating fine particles arranged on its surface; and a second electrode formed on the insulating fine particle layer, wherein, when a voltage is applied between the first electrode and the second electrode, electrons provided from the first electrode are accelerated in the insulating fine particle layer to be emitted from the second electrode via the projection.
Abstract:
PROBLEM TO BE SOLVED: To provide an electron emission element with a small inside-element current volume, though with a large electron emission volume, and with high electron emission efficiency. SOLUTION: The electron emission element 1 is provided with an electron accelerating layer 4 between an electrode substrate 2 and a thin-film electrode 3. The electron accelerating layer 4 contains insulator fine particles 5 and Alq 3 6. COPYRIGHT: (C)2011,JPO&INPIT