Abstract:
PROBLEM TO BE SOLVED: To light a liquid crystal panel by efficiently utilizing the light from light-emitting diodes. SOLUTION: Red light separating plates 52R, green light separating plates 52R, and blue light separating plates 52B are arranged on a substrate 51 with a pitch of w alternately in a row. Furthermore, red LEDs 53R are arranged at the center of the green light separating plate 52G and the blue light separating plate 52B by one piece at every other place, green LEDs 53G are arranged at the center of the blue light separating plate and the red light separating plate 52R by one piece at every other place, and blue LEDs 53B are arranged at the center of the red light separating plate 52R and the green light separating plate 52G by one piece at every other place. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide a display device capable of easily displaying a stereoscopic image. SOLUTION: The display device 10 is equipped with a light emitting unit capable of rotating around a rotary shaft 15, and a screen 11 arranged around the light emitting unit and having shape which forms at least a part of an axially symmetric rotating body on the rotary shaft 15, for example, cylindrical shape, and a light emitting part whose light radiation angle is limited to a prescribed range is arranged on the side of the light emitting unit opposed to the screen 11. By providing many light emitting parts where many directions 19A to 19X different from each other are set as their light radiation directions, rotating the light emitting unit around the rotary shaft 15 so as to rotate the light emitting parts to perform scanning, and also modulating the emitted light quantities of the light emitting parts according to given information, the image is displayed in the display device 10. COPYRIGHT: (C)2005,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To keep adhesion property between a metal mask and a substrate without causing large-sizing of a device. SOLUTION: This is equipped with a mask arranged at one face side of the substrate and composed of a magnetic member, the magnetic member arranged at the other face side of the substrate, and the pattern forming means arranged opposing to the face where the mask of the substrate is arranged, and the magnetic member has plural magnetic domains, and the plural magnetic domains are arranged so that the polarity is different from that of the magnetic domain next to each other.
Abstract:
PROBLEM TO BE SOLVED: To permit a device to be easily sealed and make it possible to provide a large-scale display using said device as a luminescence device. SOLUTION: The device comprises a transparent substrate, an electrode film, a transparent electrode film, a first insulating film having an opening, an organic electroluminescence film, a metallic electrode film and a second insulating film. The first and second electrodes have gas barrier properties, and the opening is in a tapered form that the size of the opening become greater as it becomes distant from the transparent electrode film side. The transparent electrode film is electrically connected to a first electrode formed so as to be passed through the first and second insulating films and exposed on the second insulating film through the electrode film, and the metallic electrode film is electrically connected to a second electrode formed so as to be passed through the second insulating film and exposed on the second insulating film.
Abstract:
PROBLEM TO BE SOLVED: To provide an evaluation method and an evaluation device capable of evaluating gas permeability of a thin film simply, accurately at low cost. SOLUTION: A substrate 11 for evaluation composed by forming a conductive detection layer 13 on a substrate 12 is prepared, and the thin film 14 which is an evaluation object is installed on the detection layer 13, and a carrier density or resistivity which is an electric characteristic of the detection layer 13 is measured. A phenomenon that the carrier number of the detection layer 13 which is a lower layer is changed by an influence of gas or liquid permeating the thin film 14 is detected as the electric characteristic of the detection layer 13, to thereby quantitate and evaluate indirectly the permeability of the thin film 14 relative to the gas or the liquid.
Abstract:
PROBLEM TO BE SOLVED: To provide a functional film having an electrode that may be connected with a conductive layer with high reliability and stable quality hardly changing the quality with time and that provide easy automated manufacturing facility and a method of fabricating it at low cost. SOLUTION: Sequentially formed over a substrate 20 are a conductive layer 12 and a low conductive layer 13 having a lower conductivity than the layer 12. The method comprises a step of subjecting the surface of the conductive layer 12 to corona discharge, a step of lowering a vacuum chamber 60 to contact its opening portion 65 with the surface of the low conductive layer 13, a step of evacuating the vacuum chamber 60 by opening the exhaust valve 61 to a prescribed vacuum state, and a step of introducing a sputtering gas into the vacuum chamber 60 by opening a gas inlet valve 63 to sputter an electrode film 14 on the surface of the low conductive layer 13. The electrode film 14 is connected through the low conductive layer 13 to the conductive layer 12.
Abstract:
PROBLEM TO BE SOLVED: To provide a switch smaller, thinner and capable of giving a visual change during operation and to provide electronic equipment having the switch. SOLUTION: A switch comprises a reversible color changing layer 60 for producing a color change with a temperature change arising with touch and a sheet switch portion laminated on the reversible color changing layer 60 for ON-operation with touch.
Abstract:
PROBLEM TO BE SOLVED: To provide a thin-film transistor manufacturing method that simplifies the process. SOLUTION: The thin-film transistor manufacturing method is configured as follows. An oxide semiconductor film 30 having a shape including a channel formation scheduled region 31A, a source electrode formation scheduled region 32SA, and a drain electrode formation scheduled region 32DA is formed on a gate insulating film 13 so that the whole oxide semiconductor film has the same carrier concentration as that of the channel formation scheduled region 31A. A mask 33 for suppressing heat transfer is formed on the channel formation scheduled region 31A while the oxide semiconductor film 30 is heated at a temperature of ≥100°C and ≤200°C in the atmosphere. The channel formation scheduled region 31A becomes a channel region, in which the carrier concentration before the heating is maintained, by suppressing heat transfer by the mask 33. Alternatively, regions not covered with the mask 33 on the oxide semiconductor film 30 become a source electrode region and a drain electrode region which respectively have a high carrier concentration and a low resistance by the occurrence of oxygen loss or the like due to the heating. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide an antireflection film which reliably prevents incident light (or laser beam) which is made incident on a glass substrate and reaches a metal film, from being reflected by the metal film, and also to provide a heating method of a metal film, and a heating device. SOLUTION: The antireflection film 20 formed between a metal film 30 having complex refractive index N M =n M -i×k M and a glass substrate 11 having refractive index N G , is composed of: (A) a first dielectric layer 21 having a refractive index N 1 ; (B) a second dielectric layer 22 having a refractive index N 2 , formed on the first dielectric layer 21; and (C) a third dielectric layer 23 having a refractive index N 3 , formed on the second dielectric layer 22, in the order from the metal film side, whereby the antireflection film satisfies N 1 M , N 1 >N G , N 2 G , N 3 >N G and thus incident light which is made incident on the glass substrate 11 and reaches metal film 30, is prevented from being reflected by the metal film 30. COPYRIGHT: (C)2008,JPO&INPIT
Abstract translation:解决的问题:为了提供可靠地防止入射到玻璃基板上并到达金属膜的入射光(或激光束)的抗反射膜被金属膜反射,并且还提供一种 金属膜的加热方法和加热装置。 解决方案:形成在具有复折射率N的金属膜30之间的抗反射膜20 = n -i×k SB / 和具有折射率N G SB>的玻璃基板11由以下组成:(A)具有折射率N 1的第一介电层21; (B)形成在第一电介质层21上的具有折射率N 2 SB>的第二电介质层22; 和(C)以金属膜侧的顺序形成在第二电介质层22上的具有折射率N 3 SB>的第三电介质层23,由此防反射膜满足N 1 SB> M SB>,N 1 SB >> N G SB> N 2 SB> SB>,N 3 SB >> N G SB>,从而防止入射到玻璃基板11上并到达金属膜30的入射光被 金属薄膜30.版权所有(C)2008,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a method for depositing a zirconium oxide film, by which the zirconium oxide film having different reflective indices can be deposited; to provide the zirconium oxide film obtained by the same; and to provide an antireflective film which can reduce the change frequency of target material by using the zirconium oxide film. SOLUTION: In the method for depositing the zirconium oxide film, comprising depositing the zirconium oxide film on a substrate by sputtering a zirconium target by a sputtering gas in the presence of at least one reactive gas, the refractive index of the zirconium oxide film is controlled by using, as the reactive gas, one or more selected from O 2 , CO 2 , and CO and adjusting the flow rate ratio (reactive gas flow rate ratio) of the reactive gas to the sputtering gas. COPYRIGHT: (C)2008,JPO&INPIT