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    • 1. 发明专利
    • METHOD FOR PRODUCING HIGH-PURITY METALLIC Si
    • 生产高纯金属Si的方法
    • JP2013112587A
    • 2013-06-10
    • JP2011262063
    • 2011-11-30
    • Kobe Steel Ltd株式会社神戸製鋼所
    • MATSUWAKA DAISUKEISHIDA HITOSHISAKAMOTO KOICHIYASUNAKA HIROYUKIONISHI YOSHIHIKO
    • C01B33/025
    • C01B33/025
    • PROBLEM TO BE SOLVED: To provide a method for producing high-purity metallic Si, by which high-purity metallic Si to be a raw material for manufacturing solar cells and chemical products can be produced without decreasing a yield of the produced metallic Si or without decreasing the working efficiency.SOLUTION: The method for producing metallic Si 9 comprises: feeding a raw material 7 to an arc furnace 1, the raw material comprising silicon ore having SiO2 as a main component and a reducing agent containing SiC and a carbon-based reducing agent; and reducing the SiO2. When the total amount of the reducing agent is set to 100%, the amount of SiC in the reducing agent is controlled to 20 to 80% in terms of a molar ratio, and the balance is the carbon-based reducing agent. Further, the total amount of P and B included in the reducing agent is controlled to 20 ppm by mass or lower.
    • 要解决的问题:提供一种生产高纯度金属Si的方法,通过该方法可以生产作为用于制造太阳能电池和化学产品的原料的高纯度金属Si而不降低生产的金属的产率 Si或不降低工作效率。 解决方案:用于制造金属Si 9的方法包括:将原料7供给到电弧炉1,所述原料包含以SiO 2为主成分的硅矿和含有SiC的还原剂和碳类还原剂 ; 并减少SiO2。 当还原剂的总量设定为100%时,还原剂中的SiC的量以摩尔比计为20〜80%,余量为碳类还原剂。 此外,还原剂中包含的P和B的总量控制在20质量ppm以下。 版权所有(C)2013,JPO&INPIT
    • 2. 发明专利
    • Solar battery cell panel, solar battery module, method of manufacturing solar battery cell panel, and method of manufacturing solar battery module
    • 太阳能电池单元,太阳能电池模块,制造太阳能电池单元的方法和制造太阳能电池模块的方法
    • JP2009152223A
    • 2009-07-09
    • JP2007326089
    • 2007-12-18
    • Kobe Steel Ltd株式会社神戸製鋼所
    • SUZUKI TETSUOONISHI YOSHIHIKO
    • H01L31/04
    • Y02E10/50
    • PROBLEM TO BE SOLVED: To provide a solar battery cell panel that can obtain a high voltage and whose effective area is not decreased. SOLUTION: The solar battery cell panel 14 which photoelectrically converts light received by a photodetection surface 11A has a semiconductor cell substrate 11 formed in a rectangle shape and an antireflective film 13 formed on one side surface as the photodetection surface of the semiconductor cell substrate. The semiconductor cell is constituted by forming a first semiconductor pillar 2 having a second semiconductor layer 3 of a first conductivity type on one end surface and a third semiconductor layer 5 of a second conductivity type on the other surface and a diffusion preventive layer 4 provided on either of the second semiconductor layer and third semiconductor layer of the first semiconductor pillar repeatedly in order in a direction along the photodetection surface from one of opposite sides of the rectangle to the other side. COPYRIGHT: (C)2009,JPO&INPIT
    • 要解决的问题:提供一种能够获得高电压并且其有效面积不降低的太阳能电池单元面板。 解决方案:光电转换由光检测表面11A接收的光的太阳能电池单元面板14具有形成为矩形的半导体单元基板11和形成在作为半导体单元的光电检测表面的一个侧面上的抗反射膜13 基质。 半导体单元通过在一个端面上形成具有第一导电类型的第二半导体层3的第一半导体柱2和在另一个表面上具有第二导电类型的第三半导体层5和设置在第二半导体层4上的扩散防止层4 第一半导体柱的第二半导体层和第三半导体层中的任一个在沿着光电检测表面从矩形的相对侧到另一侧的方向上依次重复。 版权所有(C)2009,JPO&INPIT
    • 6. 发明专利
    • CARBON SUBSTRATE FOR MAGNETIC DISK
    • JPH04111223A
    • 1992-04-13
    • JP23106990
    • 1990-08-31
    • KOBE STEEL LTD
    • SATO MOTOHARUONISHI YOSHIHIKO
    • G11B5/82G11B5/73G11B5/84
    • PURPOSE:To obtain a medium excellent in preventing adhering of a magnetic head and to improve magnetic characteristics in the circumferential direction by providing concentrical streaks on a polished surface and specifying the surface roughness in the radial direction. CONSTITUTION:The disk substrate has a polished surface to which concentrical streaks are provided with radial surface roughness Ra of 30 - 500 Angstrom . For example, a carbon substrate having no texture is subjected to texturing treatment by bringing an abrasive tape having an abrasive powder deposited into contact with the substrate with using a roll to press the back surface of the abrasive tape and moving the abrasive tape in the radial direction of the substrate while rotating the substrate. Thus, the carbon substrate is roughened and has the texture of concentrical streaks on its surface. The magnetic disk using this carbon substrate for a magnetic disk prevents adhesion of a magnetic head and shows higher magnetic anisotropy along the circumferential direction (stripe direction) of the disk, which improves magnetic characteristics in the circumferential direction.
    • 9. 发明专利
    • METHOD AND DEVICE FOR DETECTING POSITION AND DISPERSION OF LIGHT INPUT
    • JPH02310433A
    • 1990-12-26
    • JP13152289
    • 1989-05-26
    • KOBE STEEL LTD
    • NAKAGAMI AKIMITSUONISHI YOSHIHIKOTACHIBANA HIROYUKIINOUE TAKAYOSHINISHIMOTO YOSHIROYONEDA YASUSHIIMAOKA SHINICHINAKAI YASUHIDE
    • G01B11/00G01J1/44G01N21/88G02B7/32
    • PURPOSE:To detect the position of a light input and the information of dispersion with accuracy by detecting a primary output which is proportioned to the mean value of a distance between the end part of a photoelectric converting body and the position of the light input and a secondary output which is proportioned to the square mean value of the distance. CONSTITUTION:At first, the light intensity of the light input is obtained by using the photoelectric converting bodies 19-1 to 19-3 and also the 1st or the 2nd mean value of the distance from the one end part or the other end part of the photoelectric converting bodies 19-1 to 19-3 which are weighted by the light intensity to the position of the light input and the 1st or the 2nd square mean value of the distance from the one end part or the other end part of the photoelectric converting bodies 19-1 to 19-3 to the position of the light input are detected. And then, after fetching the primary output which is proportioned to the 1st or the 2nd mean value of the distance between the photoelectric converting bodies 19-1 to 19-3 on the basis of the detected light intensity and the 1st or the 2nd mean value, and also fetching the secondary output which is proportioned to the square mean value of the distance between the photoelectric converting bodies 19-1 to 19-3 on the basis of the detected light intensity and the 1st or the 2nd square mean value, the position of the light input is calculated and furthermore, the dispersion of the light input is calculated on the basis of the primary and the secondary outputs.