Abstract:
A backlight device (illumination device) 80 includes a plurality of LEDs 22 and entrance ends 30a that light from the LEDs 22 enters, and further includes a plurality of light guide bars 30 that guide the light from the LEDs 22 and a bar-shaped attachment member 55 to which the LEDs 22 and the light guide bars 30 are attached.
Abstract translation:背光装置(照明装置)80包括多个LED22和来自LED22的光的入射端30a,并且还包括引导来自LED22的光的多个导光杆30和条形附件 LED 22和导光杆30所附接的构件55。
Abstract:
An opening and closing apparatus with a lock that is provided is capable of safely and promptly closing a sliding door, and also easily performing unlocking with a simple configuration. In an opening and closing apparatus with a lock for opening and closing sliding doors that are provided with elastic members at their door leading ends, output of an electric motor is transmitted to a rack-and-pinion mechanism or a lock mechanism. A control unit controls the electric motor such that a closing operation is performed, the closing operation operates the rack-and-pinion mechanism so as to move the sliding doors to a fully closed position and then displacing a link mechanism in a lock mechanism from an unlocking position to a locking position. Furthermore, the control unit controls the electric motor so as to reduce the output of the electric motor at a predetermined intermediate time point during the closing operation.
Abstract:
A light guide element includes a light-emitting section including a light-emitting surface, a light guide section, and a diffusing device provided in at least part of a region extending from a boundary surface between the light-emitting section and the light guide section, to point halfway between the boundary surface and an end of the light guide section closer to the light source. The light guide element might be used to form a backlight for a liquid crystal display device.
Abstract:
A thin film-forming apparatus, for ensuring uniform plane distribution of properties of a film formed on a substrate surface, has a gas-supply port 24a supplying a gas mixture from a gas-mixing chamber 24 to a shower head 25. The port is arranged at the peripheral portion on the bottom face of the gas-mixing chamber so that the gas mixture flows from the upper peripheral region of the head towards the center thereof. An exhaust port 32 discharging the exhaust gas generated in the film-forming chamber 3 is arranged at a position lower than the level of a stage 31 during film-formation directing the exhaust gas towards the side wall of the chamber 3 and discharging the exhaust gas through the exhaust port. The stage 31 is designed to move freely up and down to adjust the distance between the shower head 25 and substrate S.
Abstract:
In order to provide a thin film manufacturing method and a thin film manufacturing apparatus, wherein a thin film with good reproducibility can be manufactured at low cost, and in a way wherein resources are saved, a dummy substrate (S2) is conveyed into a chamber (51), dummy processing gas is supplied to the dummy substrate (S2), a product substrate (S3) is conveyed into the chamber (51), and raw material gas different from the dummy processing gas, and containing therein metal material for manufacturing a thin film with the Metal Organic Chemical Vapor Deposition (MOCVD) method, is supplied to the product substrate (S3). Since the raw material gas is not used as dummy processing gas, the amount of metal material to be used can be inhibited, and a thin film with good reproducibility can be manufactured at low cost, and in a way wherein resources are saved.
Abstract:
An illumination device (30) includes a plurality of light source units (BLU) each having a light guide plate (1) and a plurality of light sources (21). The light guide plate (1) has an illumination region (4) through which incident beams of light from the light sources (21) are emitted outward and a light guide region (3) through which the incident beams of light from the light sources (21) are guided toward the illumination region (4), with the light guide region (3) and the illumination region (4) laid side-by-side. The illumination region (4) is divided into a plurality of light-emitting sections by slit sections (8), provided in such a way as to extend along directions of optical axes of the light sources (21), which restrict transmission of light. At least one of the light sources (21) is provided to each of the light-emitting sections in such a way as to be placed side-by-side along the light guide region (3). Light source units (20) adjacent to each other along the directions of the optical axes of the light sources (21) are disposed so that the illumination region (4) of one of the light source units (BLU) covers at least a part of the light guide region (3) of the other light source unit (BLU). This makes it possible to retain the strength of the illumination device as a combination of light guide blocks while reducing leakage of light into an adjacent area.
Abstract:
The process for producing a magnet according to the invention is characterized by comprising a first step in which a heavy rare earth compound containing Dy or Tb as a heavy rare earth element is adhered onto a sintered compact of a rare earth magnet and a second step in which the heavy rare earth compound-adhered sintered compact is subjected to heat treatment, wherein the heavy rare earth compound is a Dy or Tb iron compound.
Abstract:
A susceptor support shaft for an epitaxial growth apparatus capable of forming a high quality epitaxial film by suppressing in-plane resistance variation of the epitaxial film due to deflection of a susceptor, wherein the susceptor support shaft supports a susceptor at an underneath portion of the susceptor in an epitaxial growth apparatus. The susceptor support shaft includes a support column located substantially coaxial with a center of the susceptor; a plurality of arms extending radially from the support column to positions under a peripheral portion of the susceptor; an arm connecting member connecting tips of the arms next to each other; and support pins extending from the arm connecting member, thereby supporting the susceptor.
Abstract:
An illuminating device (4) includes a light emitting diode substrate (8). A connector (20) is provided at a predetermined position on one end in the longitudinal direction of the light emitting diode substrate (8). Two light emitting diode substrates (8) are adjacent in an arrangement direction, and a plurality of light emitting diodes (18r), (18g), and (18b) included in light emitting diode units (19a) to (19h) in each of the two light emitting diode substrates (8) are provided so as to be symmetrical with respect to a point that is in the center of these two light emitting diode substrates (8).
Abstract:
There is provided an information processing device including a memory, an OS that acquires location information of data stored in the memory, and a BIOS that performs power control to cause the memory to transition to a power saving state with reference to the location information acquired by the OS.