Abstract:
PROBLEM TO BE SOLVED: To provide a transparent conductive film capable of increasing permeability and conductivity and decreasing damages to an underlying material, and its manufacturing method, and an electronic element and an electronic equipment having the same. SOLUTION: A transparent resin with conductivity is coated on a base material 10 and a die having a recessed part of a parallel lattice shape or a crossing lattice shape is arranged on the surface of the transparent resin and the transparent resin is hardened and then, by transferring the shape of the recessed part on the surface of the transparent resin, a concavo-convex structure layer 20 having a projected part 21 of a parallel lattice shape or a crossing lattice shape is formed. A conductive material such as ITO is film-formed from an oblique direction to a normal on the surface of this concavo-convex structure layer 20 and thereby, a conductive layer 30 is formed on the upper face and a side face of the projected part 21, and a gap 31 having no conductive layer 30 formed is installed in a region other than the projected part 21 of the concavo-convex structure layer 20. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To improve the image quality of a captured image. SOLUTION: A ground electrode 230G that is grounded is interposed between a read out circuit 20 (reset transistor 22 and the like) and a pixel electrode 211G on an imaging surface. This prevents an unnecessary voltage other than a gate voltage from being applied to a channel-forming region of a TFT constituting each of read-out circuit portions 202R, 202G and 202B. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a method of manufacturing a thin-film transistor improving reproducibility of a process. SOLUTION: In the thin-film transistor 1, a gate electrode 12 and an oxide semiconductor film 15 are disposed on a substrate 11 with a gate insulating film 13 interposed therebetween and a source electrode 14A and a drain electrode 14B are disposed in contact with the oxide semiconductor film 15. The oxide semiconductor film 15 is deposited using a DC sputtering method and DC power for deposition is set according to a carrier density D. Control of the carrier density is facilitated by utilizing a proportional relation between the DC power and the carrier density D. A result of control is less susceptible to the accuracy of another equipment such as an MFC (Mass Flow Controller) than in the case of controlling the carrier density by oxygen partial pressure adjustment. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a vertical field effect transistor in which an element area that an element occupies on a base can be made small and an off current is small, and to provide an image display apparatus using the same. SOLUTION: A source electrode 3 which is a little thicker than a drain electrode 7, an insulating layer 5 which is a little thinner than the drain electrode 7, and the drain electrode 7, are stacked on an insulating substrate 1. A lower insulating layer 2 which is as thick as the drain electrode 7, a gate electrode 4 which is as thick as the source electrode 3, and an upper insulating layer 6 which is as thick as the insulating layer 5 are stacked on one side of the stack across a gap portion. At the gap portion, a semiconductor layer 8 coming into contact with the side surface of the stack and a gate insulating film 6g are disposed to form the vertical field effect transistor. As the material of the semiconductor layer 8, zinc oxide is used, which has a "c" axis aligned in a film forming direction and shows excellent mobility in the "c"-axis direction. A transistor which is transparent to visible light is formed by using the zinc oxide doped with impurities as an electrode material. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a method for depositing a low refractive index film for depositing a thin film of a low refractive index whose compositional distribution is uniform, to provide the low refractive index film deposited by the film deposition method of the low refractive index film, and to provide an antireflection film using the low refractive index film. SOLUTION: In the method for depositing the low refractive index film with which the low refractive index film composed of an MgF 2 -SiO 2 is deposited on a substrate 11 by a reactive sputtering process, a target 4A as the sintered compact of MgF 2 -SiO 2 is used, alternating voltage with a frequency of 20 to 90 kHz is applied between the substrate 11 and the target 4A in the mixed gas atmosphere of an inert gas and O 2 so as to perform sputter film deposition. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a variable diffraction grating having constitution and structure which can make a lattice constant P variable by utilizing an electrowetting phenomenon. SOLUTION: The variable diffraction gratings 10 are arranged at regular intervals and each variable diffraction grating 10 is equipped with a plurality of partition wall members 20 prolonged in parallel with each other. At respective opposite surfaces of the partition wall member 20, a first electrode 21 where an insulated film 23 and a water repellency processed layer 24 are formed is provided. In two adjoining partition wall members 20, the first electrodes 21 provided at respective opposite surfaces are electrically connected with each other to constitute first electrode connecting pairs 21A, 21B, .... A space between these is filled with a first insulating liquid 31 and a second conductive liquid 32. A second electrode 22 which is in contact with the second conductive liquid 32 is provided and a diffraction angle of light which is made incident from one side and is emitted from another side between the partition wall members 20 is controlled by applying voltage between the first electrode 21 and the second electrodes 22. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a stereoscopic image display device capable of displaying a stereoscopic image which has high image quality and looks very deep without increasing the size of the stereoscopic image display device. SOLUTION: Light from an illumination lamp is spatially modulated by a spatial optical modulation element divided into a plurality of areas in horizontal and vertical directions respectively, and then image light for each area is emitted. The optical path of each image light emitted from the spatial optical modulation element is changed by an optical path changing element so that respective groups of image light arranged in the horizontal direction may be deviated each other in the horizontal direction by an amount equivalent to image light corresponding to one area, and the image light is projected to a vertical diffusion screen by a plurality of projection elements. Since a plurality of images are obtained from one spatial optical modulation element, restrictions when determining the pitches of the optical axes of adjacent projection elements are relaxed, and the stereoscopic image which has high image quality and looks very deep is displayed. COPYRIGHT: (C)2008,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a simple manufacturing method of a transparent conductive film with a high transmissivity and a low resistivity, a transparent conductive film with little absorption of visible light when the surface resistance is made 500-1,000 Ω/sq. in thermally stable state, and furthermore a touch panel using the transparent conductive film. SOLUTION: A target 3 made of zinc oxide containing aluminum oxide and a substrate 11 are arranged opposed to each other, and DC voltage with an input power of 8,000 W/m 2 or more is impressed between the target 3 and the substrate 11 in an inert gas atmosphere containing oxygen, and sputtering is made. Thereby, a transparent conductive film made of zinc oxide containing aluminum oxide is manufactured on the substrate 11. COPYRIGHT: (C)2007,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a thin backlight device having wide color reproduction range. SOLUTION: The backlight device is provided with a diffusion plate 141 diffusing colored incident light and emitting the light in plane shape, and light sources composed of a plurality of light emitting diode elements emitting the light incident on the diffusion plate 141. The light emitting diode element 21 is composed of a plurality of light emitting diode chips 31 all of which are arranged at nearly central part on a base plate 32, emitting light at least in red color, green color, and blue color respectively, and a light condensing means 33 formed on the base plate 32 so as to cover the plurality of light emitting diode chips 31, condensing respective red, green, and blue colored light emitted from the plurality of light emitting diode chips 31 on one point of the diffusion plate 141, and turning them into white colored light. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To improve animation characteristics without degrading luminance. SOLUTION: The liquid crystal panel is attained by comprising; two or more scan lines located in the direction of rows; two or more signl lines located in the direction of columns; two or more liquid crystal pixels L mn matrix-located at each intersectional part of the two or more scan lines and the two or more signal lines; two or more storage means C1 mn which are prepared correspondingly to the respective two or more liquid crystal pixels L mn , and temporarily hold one frame of video signals to be written in the liquid crystal pixels L mn , respectively; and a control means 67 which controls to write the video signals by a signal line driving means 62 in the storage means C1 mn prepared correspondingly to the liquid crystal pixels L mn in the direction of rows selected by a scan line driving circuit 63, and which controls, after having finished writing all the video signals, to write one frame of the video signals written in the two or more storage means C1 mn in all of the two or more corresponding liquid crystal pixels L mn , simultaneously. COPYRIGHT: (C)2006,JPO&NCIPI