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    • 3. 发明专利
    • Element test method of gasket for cask and its device
    • 元件垫片及其装置的元件测试方法
    • JP2006017609A
    • 2006-01-19
    • JP2004196463
    • 2004-07-02
    • Mitsubishi Heavy Ind Ltd三菱重工業株式会社
    • AKAMATSU TETSUOMURAKAMI KAZUOASADA KAZUOMINAMI MASAHARUTAN YASUHIRO
    • G01M13/00G01M3/04G01M3/20G01N3/30G21C19/32G21F5/12
    • PROBLEM TO BE SOLVED: To provide an element testing device of a gasket for a cask capable of acquiring a side-slid displacement characteristic resetting after deformation such as oval deformation of a shell part generated in an actual machine.
      SOLUTION: In this element testing device of the gasket for the cask, an annular metal gasket 3 is sandwiched between the first and second metal flange members 1, 2, and the first and second metal flange members 1, 2 are fastened by a plurality of bolts 4, and an impact load in the lateral direction is applied to the first metal flange member 1 and the second metal flange member 2 by a pendulum type impact testing machine 20. In the device, the second metal flange member 2 is deformed into an oval shape by providing an aperture on the center part of the first and second metal flange members 1, 2.
      COPYRIGHT: (C)2006,JPO&NCIPI
    • 要解决的问题:提供一种能够获得在实际机器中产生的壳体部分的变形例如椭圆形变形之后的侧滑位移特性复位的用于桶的垫圈的元件测试装置。

      解决方案:在用于桶的垫圈的元件测试装置中,环形金属垫圈3夹在第一和第二金属凸缘构件1,2之间,并且第一和第二金属凸缘构件1,2由 多个螺栓4和横向的冲击载荷通过摆锤式冲击试验机20施加到第一金属凸缘构件1和第二金属凸缘构件2.在该装置中,第二金属法兰构件2是 通过在第一和第二金属凸缘构件1,2的中心部分上设置孔,使其变形为椭圆形。版权所有(C)2006,JPO&NCIPI

    • 9. 发明专利
    • METHOD AND DEVICE FOR STORING SUPERCONDUCTING ELECTRIC POWER
    • JP2001044019A
    • 2001-02-16
    • JP21211199
    • 1999-07-27
    • MITSUBISHI HEAVY IND LTD
    • YAMANAKA TOSHIYUKINAKANO SHUNEIMINAMI MASAHARU
    • H01F6/00H02J15/00
    • PROBLEM TO BE SOLVED: To provide a method and device for storing superconducting electric power, where the merit of a solenoid coil is utilized while a magnetic field confinement performance as characteristic to a toroidal coil is provided for application. SOLUTION: A plurality of toroidal solenoids and yokes, where occurrence of eddy current is suppressed, are provided. The solenoid comprises a first and second solenoids 1 and 2. A magnetic circuit is formed, where the line of magnetic force generated by the first solenoid 1 is turned around by almost 180 deg. and advances in the central region of the second solenoid 2, while that generated by the second solenoid 2 turns around almost 180 deg. and advances in the central region of the first solenoid 1. In the magnetic yoke, partial magnetic circuits 14 and 15 of the magnetic circuit which is outside of a coil are allowed to pass to the inside. The yokes 12 and 13 comprises an eddy current preventive structure, which positively prevents the eddy current from being generated in the inside. The occurrence of eddy current at the magnetic yokes 12 and 13, for preventing expansion of magnetic field, is actively prevented toward realization of the device. The eddy current preventing structure is two-dimentional or three-dimentional.
    • 10. 发明专利
    • MAGNETIC SEPARATION OF POWDERED COAL
    • JPH09151386A
    • 1997-06-10
    • JP31069195
    • 1995-11-29
    • MITSUBISHI HEAVY IND LTD
    • KATAYAMA HIROYUKIMINAMI MASAHARUKIMURA TAKUYA
    • B03C1/00B03C1/26B03C1/30C10L5/00
    • PROBLEM TO BE SOLVED: To collect an active component in high separation and recovery efficiencies from powdered coal by separating a magnetic component and a nonmagnetic component in the powdered coal from each other by a magnetic separator, finely crushing the middle component which is not collected as either fraction and again charging the crushed material into the separator. SOLUTION: A magnetic component (A1 ) and a nonmagnetic component (A2 ) in powdered coal (A) are separated by a magnetic separator, a middle component (A3 ) which is not separated into either A1 or A2 is further finely crushed, and the crushed material is again charged into the separator. Concretely, e.g. a raw material coal 2 is once stored in a coal bunker 1 and transported to a crushing machine 4 by a belt conveyor 3 to crush it. The obtained powdered coal A is charged into a magnetic separator 7 and separated into A2 9 such as a coal component, A1 11 such as an ash component and A3 . The components A2 9 and A1 11 are recovered into component-receiving boxes 8, 10, respectively. The component A3 is flowed into a fine crushing machine 13 through a returning line 12 and further finely crushed. The crushed material is charged into the magnetic separator to carry out re-separation.