Abstract:
An image display apparatus includes a display panel having an anode and an anode terminal, wherein the anode is disposed at an inside of the display panel, the anode terminal applies a voltage to the anode from an outside of the display panel and includes a portion disposed inside of the display panel and a portion disposed outside of the display panel, and an anode cap attached on an external surface of the display panel for holding an electroconductive wire applying a voltage to the anode terminal. In addition, a fixing member detachably fastens the anode cap, wherein the fixing member has a through hole in which the portion of the anode terminal disposed outside of the display panel is inserted, and the fixing member is fixed to an external surface of the display panel. The anode cap has inside thereof a fastening portion to be detachably fastened by the fixing member.
Abstract:
An image display apparatus includes a display panel with an aperture, an anode terminal for applying a voltage to the display panel through the aperture, and an anode cap, attached on an external surface of the display panel, for holding an electroconductive wire applying a voltage to the anode terminal. In addition, a fixing member has a through hole in which the anode terminal is inserted for fixing the anode cap at an inside portion of the anode cap. The anode cap includes a fastening portion detachably fastened to the fixing member within the anode cap.
Abstract:
An anode cap detachably attached to a display panel having an anode terminal on an external surface thereof, includes a holding unit for holding an end of an electroconductive wire for supplying a voltage supply to the anode terminal, and a fastening portion for detachably fastened to a fixing member fixed around the anode terminal, thereby relaxing a stress exerted to the substrate at attaching/detaching, and preventing a breakage in the substrate.
Abstract:
An image display apparatus includes a display panel having an anode and an anode terminal, wherein the anode is disposed at an inside of the display panel, the anode terminal applies a voltage to the anode from an outside of the display panel and includes a portion disposed inside of the display panel and a portion disposed outside of the display panel, and an anode cap attached on an external surface of the display panel for holding an electroconductive wire applying a voltage to the anode terminal. In addition, a fixing member detachably fastens the anode cap, wherein the fixing member has a through hole in which the portion of the anode terminal disposed outside of the display panel is inserted, and the fixing member is fixed to an external surface of the display panel. The anode cap has inside thereof a fastening portion to be detachably fastened by the fixing member.
Abstract:
A method for controlling a ladle to pour molten metal into a mold. The method comprises producing a mathematical model describing a relationship between a measured electrical voltage supplied to a servomotor for tilting the ladle and a flow rate of the molten metal flowing out of the ladle when the ladle is tilted; solving an inverse problem of the mathematical model; estimating the flow rate of the molten metal using a state observer having an exponential damping that uses an extended Kalman filter, based on the measured electrical voltage and a weight of the molten metal poured into the mold; processing the flow rate of the molten metal and a target flow rate of the molten metal with a gain-scheduled PI controller; obtaining a target electrical voltage to be supplied to the servomotor; and controlling the servomotor based on the target electrical voltage.
Abstract:
A non-aqueous electrolyte secondary battery, comprises positive and negative electrode plates, each comprising a current collector and a material mixture layer carried on each face thereof. A total thickness of the positive electrode material mixture layers on both faces of the current collector is 40 μm to 100 μm. The positive electrode plate has an electrode area of 520 cm2 to 800 cm2 per battery capacity of 1 Ah. The negative electrode material mixture layer comprises a graphitizable carbon material. A wide-range X-ray diffraction pattern of the graphitizable carbon material has a peak PX (101) attributed to a (101) crystal face at about 2θ=44 degrees, and a peak PX (100) attributed to a (100) crystal face at about 2θ=42 degrees. A ratio of an intensity IX (101) of PX (101) to an intensity IX (100) of PX(100) satisfies: 0
Abstract:
A method of measuring precisely and highly accurately the distance between the surface at a predetermined position of a mold and a laser measuring instrument. The distance between the surface of a mold frame and the laser measuring instrument is measured by directing a laser beam to four positions on the surface of the mold frame, the positions on the surface of the mold frame are expressed by x-y coordinates while the distance between the surface of the mold frame and the laser measuring instrument is expressed by a z coordinate. An equation .DELTA.z=ax+by+c for correcting the measurement value of the distance between the surface of the mold frame and laser measuring instrument is determined by using the four measurement values and the maximum or minimum value of the these measurement values as the reference, and the distance between the position on the mold and the laser measuring instrument is measured. The correction values of the measurement positions are calculated from the equation .DELTA.z=ax+by+c and the coordinate values of the x-y coordinates of the measurement positions, and thse corrected values are added to the measurement values of the distance between the surface of the measurement portions of the mold and the laser measuring instrument.
Abstract translation:PCT No.PCT / JP95 / 01953 Sec。 371日期:1996年8月16日 102(e)日期1996年8月16日PCT提交1995年9月27日PCT公布。 公开号WO96 / 10726 日期1996年04月11日精度高精度地测量模具的预定位置的表面与激光测量仪器之间的距离的方法。 模具框架表面与激光测量仪器之间的距离通过将激光束引导到模具框架表面上的四个位置来测量,模具框架表面上的位置由xy坐标表示,而距离 模具框架的表面和激光测量仪器由az坐标表示。 通过使用四个测量值和这些测量值的最大值或最小值来确定用于校正模具框架的表面与激光测量仪器之间的距离的测量值的等式DELTA z = ax + by + c作为 参考,并测量模具上的位置与激光测量仪器之间的距离。 测量位置的校正值由等式DELTA z = ax + by + c和测量位置的xy坐标的坐标值计算,并且将这些校正值加到测量位置的表面之间的距离的测量值 模具和激光测量仪器的测量部分。
Abstract:
A vehicle brake hydraulic pressure control unit includes a base body 1 incorporating therein a brake fluid flow path 1a and an electromagnetic valve 2 which is an assembled part assembled into a mounting hole portion 10A which is formed in the base body 1 in such a manner as to communicate with the flow path 1a. A hole wall of the mounting hole portion 10A has a plastically deformed portion 18 formed by pressing the hole wall in a downward direction of the mounting hole portion 10A. A locking groove 214 for the plastically deformed portion 18 to enter is formed on an outer circumferential surface of the electromagnetic valve 2. An outside diameter of the electromagnetic valve 2 at an upper side of the locking groove 214 is made smaller than an outside diameter of the electromagnetic valve 2 at a lower side of the locking groove 214.
Abstract:
A method for controlling a ladle to pour molten metal into a sprue of a mold. The method includes obtaining a mathematical model describing a locus of positions where the molten metal flowing from the ladle drops on an upper surface of the sprue. The method further includes solving an inverse problem of the mathematical model, estimating a position where the molten metal drops using a result of the solving of the inverse problem, and determining target voltages to be supplied to servomotors controlling the ladle. At least the target voltage to be supplied to one of the servomotors is determined based on the estimated position. The method also includes controlling the servomotors based on respective target voltages.
Abstract:
An angular rate sensor includes a tuning-fork oscillator, a support portion, an oscillation absorption portion and a mounting portion. The tuning-fork oscillator has a base and arm portions extending from the base. The support portion supports the base of the tuning-fork oscillator at a front face thereof. The oscillation absorption portion is provided on a back face of the support portion opposite to the front face. The mounting portion mounts the support portion through the oscillation absorption portion.