会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 71. 发明授权
    • Secondary working apparatus
    • 二次加工设备
    • US4483055A
    • 1984-11-20
    • US388134
    • 1982-06-14
    • Hironobu SekimotoNorio Sato
    • Hironobu SekimotoNorio Sato
    • B21H5/00B23F19/00B23F23/06B23F23/12B23P15/14B23F19/06
    • B23F19/00B23F23/06B23F23/1237Y10T29/49471Y10T409/101113Y10T409/107632
    • A secondary working apparatus for secondarily machining a blank formed with internal serrations on a cylindrical plane, comprising a stationary housing structure, support means for supporting the blank with the center axis of the cylindrical plane fixed with respect to the housing structure, a plurality of shafts each having a center axis parallel with the center axis of the cylindrical plane and rotatable with respect to the housing structure about an axis coincident with the center axis of the shaft and an axis coincident with the center axis of the cylindrical plane, each of the shafts having a cylindrical eccentric axial portion having a center axis parallel with and radially offset from the center axis of the shaft, cylindrical machining tools coaxially carried on the eccentric axial portions of the shafts, respectively, and each having a center axis coincident with the center axis of the eccentric axial portion of each of the shafts, and an annular guide gear coaxially held in position about the center axis of the cylindrical plane and formed with internal teeth to be held in mesh with the internal serrations of the blank, the internal teeth being equal in number to the internal serrations of the blank and being cut with outwardly shifted tooth profiles, the guide gear being preferably constructed of highly elastic metal, such as spring steel.
    • 一种二次加工装置,用于二次加工在圆柱形平面上形成有内部锯齿的坯料,包括固定的壳体结构,用于支撑坯料的支撑装置,其中圆柱形平面的中心轴线相对于壳体结构固定;多个轴 每个轴具有与圆柱形平面的中心轴线平行的中心轴线,并且可相对于壳体结构围绕与轴的中心轴线重合的轴线和与圆柱形平面的中心轴线重合的轴线旋转,每个轴 具有与轴的中心轴平行且径向偏离的中心轴线的圆柱形偏心轴向部分,圆柱形加工工具分别同轴地承载在轴的偏心轴向部分上,每个具有与中心轴线重合的中心轴线 每个轴的偏心轴向部分和同轴地保持在po中的环形引导齿轮 围绕圆柱形平面的中心轴线形成并形成有内齿与坯料的内部锯齿状啮合的内齿,内齿的数量与坯料的内部锯齿相同,并且以向外移动的齿廓切割, 导向齿轮优选地由诸如弹簧钢的高弹性金属构成。
    • 74. 发明授权
    • Ultrasensitive magnetic sensor with magneto-optically active material with high verdet constant
    • 超灵敏磁传感器,具有高verdet常数的磁光材料
    • US08575927B2
    • 2013-11-05
    • US12745343
    • 2009-01-16
    • Hitoshi YamadaKazuhiro ShintaniAkinobu FujiiNorio SatoThierry VerbiestAndre PersoonsPavel PolynkinNasser Peyghambarian
    • Hitoshi YamadaKazuhiro ShintaniAkinobu FujiiNorio SatoThierry VerbiestAndre PersoonsPavel PolynkinNasser Peyghambarian
    • G01R33/02
    • G02F1/0036G01R33/032G01R33/0322
    • A high-resolution sensor of magnetic field sensor system and materials for use in such a system are described. The sensor systems measure a magnetic field using inorganic and/or organic magneto-optically active materials, e.g. polymer material and have an interferometer based on Faraday rotation. The polymer material is preferably in the form of a film. The polymer material has an optical property that is sensitive to the magnetic field, e.g. the Faraday rotation effect. The present invention also provides a sensor head structure comprising the above polymer material. The sensor head may be designed for use with an optical fiber or with mirrors. In particular the present invention provides a fiber Sagnac interferometer to measure the rotation of polarized plane of light. The present invention provides a fiber or mirror based Sagnac interferometer with passive phase bias applied to magnetic field sensing. This invention has the following three major aspects each being an embodiment of the present invention: 1. Sensing material: a conjugate polymer such as polythiophene and/or a polymer containing superparamagnetic nanoparticles that exhibits a giant Faraday rotation. 2. Magnetic field probe that incorporates the above polymer or polymer/nanoparticle composite, e.g. in the form of a film. 3. Sensor: The sensor combines an optical fiber-based Sagnac interferometer and the above magnetic field probe.
    • 描述了用于这种系统的磁场传感器系统和材料的高分辨率传感器。 传感器系统使用无机和/或有机磁光学材料测量磁场,例如, 并具有基于法拉第旋转的干涉仪。 聚合物材料优选为膜的形式。 聚合物材料具有对磁场敏感的光学性质,例如, 法拉第旋转效果。 本发明还提供一种包含上述聚合物材料的传感器头结构。 传感器头可以设计成与光纤一起使用或与镜子一起使用。 特别地,本发明提供一种光纤Sagnac干涉仪来测量光的偏振平面的旋转。 本发明提供了一种具有被施加到磁场感测的无源相位偏移的基于光纤或镜像的Sagnac干涉仪。 本发明具有以下三个主要方面,每个都是本发明的实施方案:1.感测材料:共轭聚合物如聚噻吩和/或含有超顺磁纳米颗粒的聚合物,其显示出巨大的法拉第旋转。 包含上述聚合物或聚合物/纳米颗粒复合材料的磁场探针,例如。 以电影的形式。 3.传感器:传感器结合了基于光纤的Sagnac干涉仪和上述磁场探头。
    • 76. 发明申请
    • ULTRASENSITIVE MAGNETIC SENSOR BASED ON GIANT FARADAY ROTATION
    • 超声波传感器基于巨大的法拉第旋转
    • US20120001625A1
    • 2012-01-05
    • US12745343
    • 2009-01-16
    • Hitoshi YamadaKazuhiro ShintaniAkinobu FujiiNorio SatoThierry VerbiestAndre PersoonsPavel PolynkinNasser Peyghambarian
    • Hitoshi YamadaKazuhiro ShintaniAkinobu FujiiNorio SatoThierry VerbiestAndre PersoonsPavel PolynkinNasser Peyghambarian
    • G01R33/02
    • G02F1/0036G01R33/032G01R33/0322
    • A high-resolution sensor of magnetic field sensor system and materials for use in such a system are described. The sensor systems measure a magnetic field using inorganic and/or organic magneto-optically active materials, e.g. polymer material and have an interferometer based on Faraday rotation. The polymer material is preferably in the form of a film. The polymer material has an optical property that is sensitive to the magnetic field, e.g. the Faraday rotation effect. The present invention also provides a sensor head structure comprising the above polymer material. The sensor head may be designed for use with an optical fiber or with mirrors. In particular the present invention provides a fiber Sagnac interferometer to measure the rotation of polarized plane of light. The present invention provides a fiber or mirror based Sagnac interferometer with passive phase bias applied to magnetic field sensing. This invention has the following three major aspects each being an embodiment of the present invention: 1. Sensing material: a conjugate polymer such as polythiophene and/or a polymer containing superparamagnetic nanoparticles that exhibits a giant Faraday rotation. 2. Magnetic field probe that incorporates the above polymer or polymer/nanoparticle composite, e.g. in the form of a film. 3. Sensor: The sensor combines an optical fiber-based Sagnac interferometer and the above magnetic field probe.
    • 描述了用于这种系统的磁场传感器系统和材料的高分辨率传感器。 传感器系统使用无机和/或有机磁光学材料测量磁场,例如, 并具有基于法拉第旋转的干涉仪。 聚合物材料优选为膜的形式。 聚合物材料具有对磁场敏感的光学性质,例如, 法拉第旋转效果。 本发明还提供一种包含上述聚合物材料的传感器头结构。 传感器头可以设计成与光纤一起使用或与镜子一起使用。 特别地,本发明提供一种光纤Sagnac干涉仪来测量光的偏振平面的旋转。 本发明提供了一种具有被施加到磁场感测的无源相位偏移的基于光纤或镜像的Sagnac干涉仪。 本发明具有以下三个主要方面,每个都是本发明的实施方案:1.感测材料:共轭聚合物如聚噻吩和/或含有超顺磁纳米颗粒的聚合物,其显示出巨大的法拉第旋转。 包含上述聚合物或聚合物/纳米颗粒复合材料的磁场探针,例如, 以电影的形式。 3.传感器:传感器结合了基于光纤的Sagnac干涉仪和上述磁场探头。
    • 79. 发明授权
    • Zoom lens barrel including a rotatable cam ring
    • 变焦镜筒包括一个可旋转的凸轮环
    • US07242535B2
    • 2007-07-10
    • US11264037
    • 2005-11-02
    • Norio Sato
    • Norio Sato
    • G02B15/14
    • G02B7/10
    • A zoom lens barrel includes a stationary cylindrical member, a rotatable cam ring and a linearly-guided member concentrically provided in that order from the outside of the zoom lens barrel, a first cam mechanism which is provided between the rotatable cam ring and the linearly-guided member to move the linearly-guided member in an optical axis direction without rotating upon rotation of the rotatable cam ring, and a second cam mechanism provided between the stationary cylindrical member and the rotatable cam ring to move the rotatable cam ring in an optical axis direction upon rotation of the rotatable cam ring. The second cam mechanism causes the rotatable cam ring to rotate while moving in the optical axis direction so that the amount of movement of the rotatable cam ring in the optical axis direction with respect to the angle of rotation thereof is nonlinear.
    • 变焦透镜镜筒包括固定圆柱形构件,可旋转凸轮环和从变焦镜筒的外侧依次同心设置的线性引导构件,设置在可旋转凸轮环和线性构件之间的第一凸轮机构, 被引导构件在线性引导构件沿光轴方向移动而不旋转时可旋转的可旋转凸轮环;以及第二凸轮机构,设置在固定圆柱形构件和可旋转凸轮环之间,以使旋转凸轮环沿光轴移动 旋转凸轮环旋转时的方向。 第二凸轮机构使可旋转凸轮环沿光轴方向移动,使得可旋转凸轮环相对于其旋转角度在光轴方向上的移动量是非线性的。
    • 80. 发明授权
    • Surface shape recognition sensor
    • 表面形状识别传感器
    • US07205621B2
    • 2007-04-17
    • US10512757
    • 2004-02-13
    • Norio SatoKatsuyuki MachidaSatoshi ShigematsuHiroki Morimura
    • Norio SatoKatsuyuki MachidaSatoshi ShigematsuHiroki Morimura
    • H01L27/14H01L29/84
    • G06K9/0002Y10S438/942
    • A structure (113b) which includes an overhang and a support portion supporting substantially the center of the overhang, and in which the area of the support portion is smaller than the area of the overhang in the two-dimensional direction of an upper electrode (110b) is formed on the upper electrode (110a) in a region above each lower electrode 105a in one-to-one correspondence with the lower electrode (105a). An object of surface shape sensing, e.g., the tip of a finger (1602) touches the surface of the overhang of the structure (113b), and the support portion of the structure (113b) whose overhang is in contact with the object of sensing pushes down a portion of the upper electrode (110a) toward the lower electrode (105a), thereby deforming the upper electrode (110a).
    • 1.一种结构(113b),其包括突出端和支撑部分,所述支撑部分基本上支撑所述突出部的中心,并且所述支撑部分的面积小于所述上部电极的二维方向上的所述突出部分的面积( 110b)在每个下电极105a的上方的区域中形成在上电极(110a)上,与下电极(105a)一一对应地形成。 表面形状检测的目的,例如手指的尖端(1602)接触结构(113b)的突出部分的表面,并且结构(113b)的支撑部分(113b)的突出部与物体接触 的感测将上部电极(110a)的一部分朝向下部电极(105a)下压,从而使上部电极(110a)变形。