Abstract:
A laminated chip varistor comprises a varistor body, first and second inner electrodes, a heat conductor, and first and second outer electrodes. The varistor body has first and second outer faces. The first and second inner electrodes are disposed in the varistor body so that at least portions thereof are opposing to each other. The first and second outer electrodes are formed on the first outer face, the first outer electrode being connected to the first inner electrode, and the second outer electrode being connected to the second inner electrode. The heat conductor is formed in the varistor body extending in a direction from the first outer face toward the second outer face with one end face thereof exposed on the first outer face and the other end face thereof exposed on the second outer face.
Abstract:
A varistor comprises a varistor element body, first and second inner electrodes opposing each other, a first outer electrode connected to the first inner electrode physically and electrically, a second outer electrode connected to the second inner electrode physically and electrically, and an electrically insulating layer. The first and second inner electrodes are arranged within the varistor element body so as to have end portions exposed at two outer surfaces of the varistor element body. The first outer electrode is arranged on one of the two outer surfaces so as to cover a portion of the end portion of the first inner electrode exposed at the one outer surface. The second outer electrode is arranged on the one outer surface so as to cover a portion of the end portion of the second inner electrode exposed at the one outer surface. The electrically insulating layer is arranged on the one outer surface so as to cover a portion exposed from the first outer electrode in the end portion of the first inner electrode and a portion exposed from the second outer electrode in the end portion of the second inner electrode.
Abstract:
As for the voltage non-linear resistance element layer 2, sintered body (ceramics) having ZnO as main component is used. Said sintered body comprises Pr, Co, Ca and Na are added. Therefore, the ranges are 0.05 to 5.0 atm % of Pr, 0.1 to 20 atm % of Co, 0.01 to 5.0 atm % of Ca and 0.0001 to 0.0008 atm % of Na. When it is within the range, the capacitance changing rate at 85° C. with standard being 25° C. can be made to equal or less than 10%.
Abstract:
An image pickup device mounting structure includes an image pickup device, a reinforcing plate, and a flexible circuit board having at least one electrical component mounted thereon, wherein the reinforcing plate; the image pickup device and a part of the flexible circuit board are superimposed on each other, the reinforcing plate includes at least one cutout portion; and the electrical component is positioned on the part of the flexible circuit board and within the cutout portion.
Abstract:
A supply voltage generating circuit that enables a reduction in chip area includes: a booster for outputting a boosted voltage upon generating the boosted voltage by charge pumping of a capacitor element; a power-supply step-down unit for stepping down voltage of an external power supply to a voltage within a breakdown-voltage range of the capacitor element, and applying the stepped-down voltage to the power supply of the booster; and a switch element for switching between application of the external power supply to the power supply of the booster directly or via the power-supply step-down unit. The booster comprises multiple stages of booster circuits. The thicknesses of gate oxide films of capacitor elements constituted by MOS transistors included in respective ones of the booster circuits are the same and are made smaller than the thickness of a gate oxide film of a MOS transistor included in a load circuit having the output of the booster at its power supply.
Abstract:
An apparatus for recovering a metal, which comprises a metal-recovering board (2) having an electrodeposition surface (2a, 2t) for the attachment of a metal component (R) precipitated from a solution and an insulating material (2b) formed around a pattern of the electrodeposition surface (2a, 2t). The metal-recovering board (2) is immersed in a metal-containing solution in an electrolytic treatment vessel (1), and thereby the metal in the solution is selectively precipitated on the electrodeposition surface (2a, 2t) and is converted to a bulk. The resultant metal bulk is scraped together for recovery with a blade (6) in a form as it is. The above apparatus for recovering a metal can be suitably used for recovering a metal in a solution in a state allowing easy reuse with good efficiency.
Abstract:
A dielectric ceramic composition, comprising a main component including at least a dielectric oxide having a composition expressed by [(CaxSr1-x)O]m[(TiyZr1-y-zHfz)O2], a first subcomponent including a Mn oxide and/or an Al oxide and a glass component, wherein “m”, “x”, “y” and “z” indicating composition mole ratios in the formula included in the main component are in relationships of 0.90≦m≦1.04, preferably 1.005≦m≦1.025, 0.5≦x
Abstract translation:一种电介质陶瓷组合物,其包含主要成分,该主要成分至少包括具有由[(Ca x Sr 1-x O)O] m表示的组成的介电氧化物, [(Ti y y z 1 1 y z H z z)O 2],第一次要组分包括 Mn氧化物和/或Al氧化物和玻璃成分,其中表示主成分中所含的式中的组成摩尔比的“m”,“x”,“y”,“z”为0.90 <= m <= 1.04,优选1.005 <= m <= 1.025,0.5 <= x <1,优选0.6 <= x <= 0.9,0.01 <= y <= 0.10,优选0.02 <= y <0.07和0 < = 0.20,优选0
Abstract:
A varistor comprises a varistor portion, a metal portion, and buffer portion. The varistor portion has a varistor element body exhibiting a nonlinear current-voltage characteristic and two electrode portions. The metal portion has a thermal conductivity higher than that of the varistor element body. The buffer portion is disposed between the varistor portion and metal portion so as to be bonded to each of the varistor portion and metal portion and mainly composed of glass. The two electrode portions are arranged in the varistor element body so as to be electrically insulated from each other while exposing at least a portion of each thereof from an outer surface of the varistor element body. The metal portion and varistor portion are joined firmly to each other. The heat transmitted to the varistor can efficiently be diffused from the metal portion.
Abstract:
An electron-beam exposure system includes: an electron gun; a first mask having a first opening for shaping a beam of electrons; a second mask having a second opening for shaping the beam of electrons; a stencil mask disposed below the first mask and the second mask, the stencil mask having a plurality of collective figured openings each for shaping the beam of electrons; a paralleling lens for causing the beam of electrons, which has been transmitted in, and come out of, the stencil mask, to turn into a beam of electrons which travels approximately in parallel to the optical axis; and a swing-back mask deflector for swinging back the beam of electrons which has passed through the stencil mask. N2>N1 may be satisfied where 1/N1 denotes the reduction ratio of a pattern in the stencil mask to a pattern on the surface of the workpiece, and 1/N2 denotes the reduction ratio of a pattern in the first mask and a pattern in the second mask to a pattern on the surface of the workpiece.
Abstract translation:电子束曝光系统包括:电子枪; 具有用于成形电子束的第一开口的第一掩模; 具有用于使电子束成形的第二开口的第二掩模; 设置在所述第一掩模和所述第二掩模下方的模板掩模,所述模版掩模具有多个用于使所述电子束成形的集合形状的开口; 用于使已经被传送到模板掩模中并从模板掩模出来的电子束的平行透镜转变成大致平行于光轴行进的电子束; 以及用于摆动穿过模板掩模的电子束的回摆掩模偏转器。 可以满足其中1 / N 1表示模板掩模中的图案与图案上的图案的缩小比率的N <2> N <1> 表示工件的表面,1 / N 2 <2>表示第一掩模中的图案和第二掩模中的图案与工件表面上的图案的缩小率。
Abstract:
A light shielding structure of a lens barrel including an inner ring and an outer ring, wherein the inner ring includes a through cutout portion, the light shielding structure including an inner flange wall provided with the inner ring; a first annular groove formed on an inner surface of the inner flange wall; a second annular groove formed on an inner peripheral surface of the outer ring; and a light shield ring, wherein the light shield ring includes a cylindrical portion centered about the optical axis, and an outer flange portion which extends radially outwards from a rear end of the cylindrical portion so that the cylindrical portion and the outer flange portion and inserted into the first and second annular grooves, respectively.