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    • 61. 发明授权
    • SQUID magnetic sensor
    • SQUID磁传感器
    • US08548542B2
    • 2013-10-01
    • US13264027
    • 2010-04-13
    • Yoshimi HatsukadeSaburo TanakaSho Kanai
    • Yoshimi HatsukadeSaburo TanakaSho Kanai
    • G01R33/035
    • G01R33/035
    • There is provided a directly-coupled high-temperature superconductor SQUID magnetic sensor in a single thin film structure, which suppresses flux trapping or jumping generated in the sensor in a magnetic field, prevents the degradation in performance of the SQUID sensor, and operates stably with high sensitivity even in the magnetic field. The SQUID magnetic sensor including a bi-crystal substrate 1 having a bi-crystal grain boundary, pickup loops 7a-7d formed from a first high-temperature superconducting thin film on the bi-crystal substrate 1, and a SQUID ring 3 formed from the first high-temperature superconducting thin film on the bi-crystal grain boundary, directly connected with the pickup loops 7a-7d, wherein a plurality of pickup loops 7a-7d are disposed equally spaced from a bi-crystal grain boundary line 2 so as not to overlap with the bi-crystal grain boundary.
    • 在单个薄膜结构中提供了直接耦合的高温超导体SQUID磁传感器,其抑制在磁场中在传感器中产生的磁通捕获或跳跃,防止SQUID传感器的性能劣化,并且以 高灵敏度甚至在磁场。 SQUID磁传感器包括具有双晶晶界的双晶衬底1,由双晶衬底1上的第一高温超导薄膜形成的拾波环7a-7d和由双晶晶体1形成的SQUID环3 在双晶晶界上的第一高温超导薄膜,直接与拾波环7a-7d相连,其中多个拾波环7a-7d与双晶晶界线2等距设置, 以与双晶晶界重叠。
    • 65. 发明申请
    • APPARATUS AND METHOD FOR COOLING A SUPERCONDUCTING MAGNETIC ASSEMBLY
    • 用于冷却超导磁体组件的装置和方法
    • US20100248968A1
    • 2010-09-30
    • US12415357
    • 2009-03-31
    • Ernst Wolfgang Stautner
    • Ernst Wolfgang Stautner
    • G01R33/035H01L39/24H01L39/02
    • H01F6/04G01R33/3804G01R33/3815H01F5/02H01F6/06H01F41/048Y10T29/49014
    • A superconducting magnet assembly and method of cooling a superconducting magnet assembly. An embodiment of the method of manufacturing a superconducting magnet assembly includes: providing a housing configured about a vacuum reservoir; forming a coil former; surrounding the coil former with a thermal shield; locating the thermal shield in the vacuum reservoir; positioning a superconducting magnet about the coil former, wherein the superconducting magnet is configured about a central core to receive an object; providing a second vacuum reservoir having a cryogen reservoir therein; providing two two-phase heat transfer devices wherein each comprises tubing having an evaporator region and a condenser region; thermally connecting the evaporator region of one of the heat transfer devices with the coil former and/or the superconducting magnet and the evaporator region of the other two-phase heat transfer device with the thermal shield; and thermally connecting a cryocooler to the cryogen reservoir and to the condensing region of both heat transfer devices.
    • 超导磁体组件和冷却超导磁体组件的方法。 制造超导磁体组件的方法的实施例包括:提供围绕真空容器配置的壳体; 形成线圈架; 围绕具有热屏蔽的线圈架; 将隔热罩定位在真空容器中; 将超导磁体定位在线圈架周围,其中超导磁体围绕中心芯构造以接收物体; 提供其中具有冷冻剂储存器的第二真空容器; 提供两个两相热传递装置,其中每个包括具有蒸发器区域和冷凝器区域的管道; 热传导装置中的一个的蒸发器区域与线圈形成器和/或超导磁体和另一个两相传热装置的蒸发器区域与热屏蔽连接; 并将低温冷却器热连接到冷冻剂储存器和两个传热装置的冷凝区域。
    • 68. 发明授权
    • Magnetic shielding apparatus and biomagnetism measuring device
    • 磁屏蔽装置和生物磁测量装置
    • US07339373B2
    • 2008-03-04
    • US11196750
    • 2005-08-04
    • Yusuke SekiMitsuru OnumaAkihiko KandoriDaisuke SuzukiTakuya AkashiMasahiro MurakamiAtsushi WatanabeYoshio Matsuoka
    • Yusuke SekiMitsuru OnumaAkihiko KandoriDaisuke SuzukiTakuya AkashiMasahiro MurakamiAtsushi WatanabeYoshio Matsuoka
    • G01R33/035
    • A61B5/04007A61B5/061A61B5/704Y10S505/846
    • The object of the invention is to provide a biomagnetism measuring device using a high-performance cylindrical shielding apparatus provided with a flange-type plate having an opening formed on a circumferential face, an auxiliary cylinder in which one or plural cylindrical members are connected so that the central axis of the opening of the flange-type plate and each central axis of the cylindrical members are coincident, cylindrical shields having first, second and third angular ranges with the y-axis, a revolving door having a cutout in a portion parallel to the y-axis and acquired by integrating the cylindrical shields, shield bases for supporting the cylindrical shield to which the flange-type plate is connected in a circular-arc part at both ends, revolving parts for revolving the revolving door in a circumferential direction of the y-axis along a circumferential part of the cylindrical shield and opening or closing an opening in the circumferential direction, a cryostat arranged inside the opening of the auxiliary cylinder and the opening and a SQUID fluxmeter arranged on a measurement face parallel to an XY plane inside the cryostat held at low temperature and characterized in that the circumferential part of the cylindrical shield is inserted between the circumferential parts of the cylindrical shields when the revolving door is closed, cylindrical internal space is formed and an environmental magnetic field that invades the internal space is screened.
    • 本发明的目的是提供一种使用具有在圆周面上形成有开口的凸缘型板的高性能圆柱形屏蔽装置的生物磁性测量装置,其中连接有一个或多个圆柱形构件的辅助气缸,使得 法兰型板的开口的中心轴线和圆柱形构件的每个中心轴线是重合的,具有第一,第二和第三角度范围与y轴的圆柱形屏蔽件,旋转门在与 y轴并且通过将圆筒形屏蔽件整合而获得,用于支撑法兰型板连接到其上的圆柱形屏蔽件的屏蔽基座在两端的圆弧部分中,用于使旋转门在圆周方向上旋转的旋转部分 沿着圆筒形护罩的周向部分的y轴,并且沿圆周方向打开或关闭开口,布置有低温恒温器 在辅助气缸和开口的开口内部的SQUID通量计和布置在与保持在低温下的低温恒温器内的XY平面平行的测量面上的SQUID通量计,其特征在于,圆筒形护罩的圆周部分插入在 当旋转门关闭时形成圆柱形屏蔽,形成圆柱形内部空间,并且屏蔽侵入内部空间的环境磁场。
    • 69. 发明授权
    • Inspection method and apparatus using scanning laser SQUID microscope
    • 使用扫描激光SQUID显微镜的检查方法和装置
    • US07250758B2
    • 2007-07-31
    • US11374160
    • 2006-03-14
    • Kiyoshi Nikawa
    • Kiyoshi Nikawa
    • G01R33/035
    • G01N27/82Y10S505/846
    • A non-destructive method of narrowing down the location of a failure in a sample includes a first step of acquiring first and second images of magnetic-field distributions obtained by scanning a laser beam irradiating first and second samples, respectively, and if there is a difference between the first and second images of the magnetic-field distributions, a second step of acquiring first and second current images from magnetic-field distributions acquired by scanning the first and second samples by a magnetic-field detector in a state in which a prescribed location on the first and second samples is being irradiated by the laser beam. The difference between the first and second current images is found and, based upon the difference image found, it becomes possible to identify a disparity in current paths relating to the prescribed location on the first and second samples.
    • 缩小样品中故障位置的非破坏性方法包括:第一步骤,分别通过扫描照射第一和第二样品的激光束获得磁场分布的第一和第二图像,如果存在 磁场分布的第一图像和第二图像之间的差异;第二步骤,通过由磁场检测器扫描第一和第二样本所获得的磁场分布获取第一和第二当前图像, 第一和第二样品上的位置被激光束照射。 找到第一和第二当前图像之间的差异,并且基于找到的差分图像,可以识别与第一和第二样本上的规定位置有关的电流路径中的视差。