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    • 1. 发明公开
    • An artificial knee joint
    • KünstlichesKniegelenk
    • EP1174099A1
    • 2002-01-23
    • EP01117296.2
    • 2001-07-17
    • Takei, TsunenoriNakashima Propeller Co., Ltd.Yamada, Hajime
    • Takei, Tsunenori
    • A61F2/38
    • A61F2/3886A61F2310/00023
    • An artificial knee joint comprising: a femoral component (1) comprising a femoral condylar portion (8) made of a medial condylar section (8a) and a lateral condylar section (8b) which extend in an anteroposterior direction of the knee joint and have convex exterior surfaces, and a tibial component comprising a tibial condylar portion (11) made of a medial condylar section (11a) and a lateral condylar section (11b) which extend in an anteroposterior direction of the knee joint and have concave interior surfaces so as to slidably receive the medial and lateral condylar sections (8a,8b) of the femoral condylar portion (8) therein; and a space between the respective medial and lateral condylar sections (8a,8b) of the femoral condylar portion (8) and of the tibial condylar portion (11) being formed so as to be gradually narrower toward the rear side of the knee joint, thus forming a "rear-in" configuration.
    • 一种人造膝关节,包括:股骨部件(1),包括由内侧髁部分(8a)和外侧髁部分(8b)制成的股骨髁部分(8),所述股骨髁部分(8)在所述膝关节的前后方向上延伸并具有凸起 外表面和胫骨部件,其包括由内侧髁部(11a)制成的胫骨髁部(11)和沿所述膝关节的前后方向延伸的外侧髁部(11b),并且具有凹入的内表面,以便 在其中可滑动地容纳股骨髁部分(8)的内侧和外侧髁部分(8a,8b); 并且股骨髁部分(8)和胫骨髁部分(11)的各个内侧和外侧髁部分(8a,8b)之间的空间被形成为朝向膝关节的后侧逐渐变窄, 从而形成“后置”配置。
    • 7. 发明申请
    • FILE SERVER SYSTEM AND STORAGE CONTROL METHOD
    • 文件服务器系统和存储控制方法
    • WO2012127526A1
    • 2012-09-27
    • PCT/JP2011/001675
    • 2011-03-22
    • HITACHI, LTD.YAMADA, HajimeSAIKA, Nobuyuki
    • YAMADA, HajimeSAIKA, Nobuyuki
    • H04L29/08G06F17/30
    • G06F17/30067H04L67/1095H04L67/1097
    • In accordance with a first aspect of the present invention, an edge node is provided with the storage destination management information that is corresponded to the edge node. The storage destination management information includes the information that indicates a storage destination for a core node of a file that has been written to a file storage region (an edge storage region) for an edge node that is corresponded to the information and includes the information that indicates a recall date that is a date that has been read by the edge node. The edge node judges whether or not there is an old file (a file before an update) in an edge storage region for the edge node based on the storage destination management information that is corresponded to the edge node and the storage destination information that is corresponded to another edge node, and create a stub for only an old file without creating a stub for a file after an update (a latest file).
    • 根据本发明的第一方面,边缘节点设置有对应于边缘节点的存储目的地管理信息。 存储目的地管理信息包括指示已经写入到与该信息对应的边缘节点的文件存储区域(边缘存储区域)的文件的核心节点的存储目的地的信息,并且包括信息 表示召回日期是边缘节点读取的日期。 边缘节点根据对应于边缘节点的存储目的地管理信息和相应的存储目的地信息来判断边缘节点的边缘存储区域中是否存在旧文件(更新前的文件) 到另一个边缘节点,并且只为旧文件创建一个存根,而不会在更新(最新的文件)后为文件创建一个存根。
    • 9. 发明专利
    • MEASURING METHOD OF MAGNETISM ANISOTROPY PATTERN
    • JPS5546143A
    • 1980-03-31
    • JP11944978
    • 1978-09-28
    • ONO SOKKI SEISAKUSHO KKYAMADA HAJIMEYAMADA YOSHIO
    • YAMADA HAJIMEYAMADA YOSHIOWAKIWAKA HIROYUKI
    • G01R33/12G01N27/72
    • PURPOSE:To increase the measuring accuracy of magnetic torque by cross sensor through the increased S/N, by applying the DC bias magnetic field toward excitation placing the measured object under high magnetic field range. CONSTITUTION:When the DC bias magnetic field Hdc is applied to the measured object 30, the magnetization (Is) is caused. While the magnetization advances from the stage of magnetic wall movement to the saturation range, it turns by the angle phi from the magnetization easy axis A and it depens on the opposing rotary angle theta. This magnatization (Is) is respectively Isc and Isd viewed from the measuring axes C and D, and Isc and Isd when the angle between the axes C and D is 90 degree (the same length of the both cores for excitation and detection) are as expressed as equation I, and this magnetized component is the magnetization of the pathe on the measured object between the legs 11-12, 12-22 and 11-22, 12-24. Accordingly, the detected output when DC bias magnetic field is applied, is V0=KIsHdc sin(theta-phi)NeNdomegaIe, and it shows the magnetic torque. Where Ne and Nd are number of turns of exciting and detection coils respectively, omega is excited angular frequency, and Ie is the excited current.