Abstract:
PROBLEM TO BE SOLVED: To provide a method of manufacturing a display that achieves a display with excellent display image quality by dispersing a distribution of light-emission characteristics in the initial element arrangement while maintaining throughput by applying collective transfer for simultaneously transferring a plurality of elements. SOLUTION: In a first step, light-emitting elements S arranged at each predetermined number of light-emitting elements S formed and arranged on a first substrate 1 are collectively transferred to first transfer areas S1-1-S1-4 set on a second substrate 2. In a succeeding second step, light-emitting elements D remaining on the first substrate 1 are transferred to between the plurality of light-emitting elements S mounted on the second substrate 2 in at least either of a state, in which the first substrate 1 is moved, or a state, in which the first substrate is rotated in its plane, with respect to the first transfer areas S1-1-S1-4 on the second substrate 2. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To simplify a manufacturing step where elements are transferred from a substrate with arrayed elements to another substrate. SOLUTION: An element transferring method transfers elements arrayed on a first substrate 31 to a second substrate 34. The element transferring method includes a manufacturing step to form electric wiring 36 on the second substrate 34, a manufacturing step to form an adhering layer 35 on the electric wiring 36, and a manufacturing step to bury and insert elements 33a arrayed on the first substrate 31 in the adhering layer 35 until the elements 33a electrically connect to the electric wiring 36. COPYRIGHT: (C)2008,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a crystal film, crystal substrate, and semiconductor device which are low in a dislocation density, using a crystal base containing dislocation. SOLUTION: A crystal layer 23 is formed on one surface of a substrate 11 for growing a crystal via a buffer layer 12. In the crystal layer 23, at least part of the voids 23a, 23b configured by an amorphous material are formed at an end to which each dislocation D 1 extends from the lower part. Because the voids 23a, 23b prevent each dislocation D 1 from transmitting to the upper part, a crystal layer of a low dislocation density can be formed in the upper part. COPYRIGHT: (C)2007,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To enable a part of a light emitting element which emits no light to be restored and to eliminate a dark point defect from a display device (e.g. a backlight of a display or a liquid crystal display device) through a process of arranging a restoring light emitting element capable of emitting light just above a light emitting light (out of light emitting elements) which emits no light. SOLUTION: In the display device 1 where the light emitting elements 121 are mounted in an array, the restoring light emitting element 141 capable of emitting light is arranged just above a light emitting element 121N (out of light emitting elements 121) which emits no light. COPYRIGHT: (C)2007,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a semiconductor light-emitting element with high luminance by having excellent crystallinity, enabling the miniaturization of a chip structure, improving emission efficiency, and improving light extraction efficiency. SOLUTION: On a substrate 30, a crystal layer having an inclined crystal surface (for example, S surface) slanting to the main surface of the substrate 30 is formed. On the crystal layer, a first conduction type layer 33 extending in a surface parallel to the inclined crystal surface, an active layer 34, and a second conduction type layer 35 are formed. Then, one of electrodes extending in the surface parallel to the inclined crystal surface is formed. On the crystal surface of the crystal layer on the side of the substrate in which part of the active layer 34 and the second conduction type layer 35 is removed, the other electrode is formed while being electrically isolated from one of electrodes. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To easily obtain an image display device whose defective element can easily be repaired without any delicate and difficult operation. SOLUTION: The method for manufacturing the image display device which has light emitting elements in matrix on a substrate so that pixels are composed of the respective light emitting elements 52 includes a 1st transfer stage of making a temporary holding member 51 hold the light emitting elements 52 by transferring the light emitting elements 52 at larger intervals than the array of the light emitting elements 52 on a 1st substrate 50 and a 2nd transfer stage of transferring the light emitting elements 52 held by the temporary holding members more apart on a 2nd substrate 55. The elements are thus arrayed more apart through those stages and mounted by being electrically connected to wires connected to a driving circuit; and then a defective light emitting element is detected and a light emitting element for repair is mounted at the position corresponding to the defective light emitting element. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide a method for stripping a crystal layer from a substrate without cracking the crystal layer formed on the substrate, a laser light irradiating method, and a method for fabricating an element using these methods. SOLUTION: In the method for stripping a crystal layer formed on a substrate by irradiating it with light, the crystal layer is irradiated linearly with light. The crystal layer can be stripped from the substrate without causing any crack by setting the irradiation width of light substantially equal to or narrower than the thickness of the crystal layer. COPYRIGHT: (C)2003,JPO
Abstract:
PROBLEM TO BE SOLVED: To realize sure wiring by a small number of processes when semiconductor elements in a package are arranged at each resin package. SOLUTION: The method for manufacturing a semiconductor device comprises the steps of arranging the semiconductor elements 42 in the package 57 at each resin package 57 to constitute the device and forming an insulating film such as a resin layer 62 or the like on the package 57, pushing a mold 63 against the surface of a resin layer 62, forming recesses 64s, 64m and 64d on the surface of the layer 62, and then forming a metal thin film 70 for wirings by using the recesses 64s, 64m and 64d. COPYRIGHT: (C)2003,JPO
Abstract:
PROBLEM TO BE SOLVED: To provide an image display device having superior screen display quality and visibility, its manufacturing method and a filter for the device which is used to accomplish the above objectives. SOLUTION: An image display device filter 1 is arranged on the front of a display surface 11 of the image display device which is provided with light emitting diodes 17, 18 and 19 that have a plurality of light emitting colors. The filter 1 is provided with a light diffusing section 16 which is arranged on the front of the surface 11 of the device with a separation equivalent to a prescribed distance to diffuse the emitted light beams from the diodes 17, 18 and 19 and optically transmissive sections 2, 3 and 4 which are arranged on the front of the section 16 to pass the light beams of the wavelength range of the corresponding light emitting color among the plurality of light emitting colors and to intercept light beams having other wavelength ranges. COPYRIGHT: (C)2003,JPO
Abstract:
PROBLEM TO BE SOLVED: To provide a semiconductor light emitting element and a method for manufacturing the semiconductor light emitting element to prevent dispersion of impurities from conductive layers between which an active layer formed on an oblique crystal surface is nipped, enable prevention of deterioration of an active layer, and is excellent in light emission efficiency, in the semiconductor light emitting element where the active layer is formed on the surface parallel to the oblique crystal surface through selective growth, and to provide a method for manufacturing the semiconductor light emitting element. SOLUTION: In the active layer and the conductive layer formed in a surface parallel to the oblique crystal surface through selective growth, impurities dispersed from the conductive layer to the active layer can be shut off by an undoped crystal layer, and light emission efficiency can be improved by doping much impurities on the conductive layer. Further, a leak current generated at an interface between the active layer and the conductive layer can be prevented from generation, and deterioration of the active layer can be avoided.