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
    • 1. 发明授权
    • Cooling apparatus
    • 冷却装置
    • US06474079B2
    • 2002-11-05
    • US09780840
    • 2001-02-09
    • Akikazu OdawaraSatoshi NakayamaAtsushi Nagata
    • Akikazu OdawaraSatoshi NakayamaAtsushi Nagata
    • F25B1900
    • F17C13/006F17C3/085F17C3/10F17C2203/0391F17C2203/0643F17C2205/0355F17C2221/014F17C2221/017F17C2223/0161F17C2223/033F17C2227/0135F17C2270/0518F17C2270/0527
    • A cooling apparatus has a liquid helium container for containing liquid helium, a vacuum chamber for providing heat insulation to external air, and a cooling head disposed in the vacuum chamber and capable of cooling down to a temperature region corresponding to the melting point of the liquid helium in the liquid helium container. An inlet port is disposed in the vacuum chamber for introducing thereinto the liquid helium stored in the liquid helium container. A vacuum heat insulation piping transfers liquid helium from the liquid helium container to the inlet port. A first piping is disposed in the vacuum chamber for transferring the liquid helium from the inlet port to the cooling head. A pump pumps liquid helium from the liquid helium container to the cooling head via the vacuum heat insulation piping, the inlet port and the first piping. A second piping transfers the liquid helium from the cooling head to the pump. At least part of the second piping is disposed in the vacuum chamber.
    • 冷却装置具有用于容纳液氦的液氦容器,用于向外部空气提供隔热的真空室和设置在真空室中的冷却头,能够冷却到与液体的熔点对应的温度区域 氦气在液氦容器中。 入口端口设置在真空室中,用于将存储在液氦容器中的液氦引入其中。 真空隔热管道将液氦从液氦容器传送到入口。 第一管道设置在真空室中,用于将液氦从入口传送到冷却头。 泵通过真空隔热管道,入口和第一管道将液氦从液氦容器泵送到冷却头。 第二个管道将液氦从冷却头传送到泵。 第二管道的至少一部分设置在真空室中。
    • 2. 发明授权
    • Nondestructive inspection apparatus with superconducting magnetic sensor
    • 超导磁传感器无损检测装置
    • US5834938A
    • 1998-11-10
    • US699894
    • 1996-08-16
    • Akikazu OdawaraKazuo ChinoneSatoshi Nakayama
    • Akikazu OdawaraKazuo ChinoneSatoshi Nakayama
    • G01N27/87G01R33/035H01L21/66H01L39/04H01L39/22G01N27/82G01R31/28
    • G01R33/035Y10S505/846
    • To provide a nondestructive inspection apparatus with a reduced distance between a superconducting magnetic sensor and an object under inspection, a cryostat for cooling the sensor to a superconducting state is provided with inner and outer vessels. The inner vessel has a baseplate on which the magnetic sensor is disposed, and has an inner wall defining a central chamber for containing a refrigerant for cooling the magnetic sensor. The outer vessel has an inner wall defining a central chamber for containing the inner vessel, the magnetic sensor and the stage. A gap between the inner and outer vessels is evacuated to insulate the inner chamber from the ambient atmosphere. To facilitate ease of transferring an object to and from the stage for inspection, a load lock area is provided adjoining the outer vessel. The load lock has a movable inner wall portion opening to the inner chamber of the outer vessel and a movable outer wall portion opening to the ambient atmosphere so as to permit the transfer of an object to be inspected to and from the stage.
    • 为了提供在超导磁传感器和被检查物体之间的距离减小的非破坏性检查装置,用于将传感器冷却到超导状态的低温恒温器设置有内部和外部容器。 内部容器具有基板,磁性传感器设置在基板上,并且具有限定用于容纳用于冷却磁性传感器的制冷剂的中央室的内壁。 外部容器具有限定用于容纳内部容器,磁性传感器和级的中心室的内壁。 内部和外部容器之间的间隙被排空以将内部室与环境大气隔离。 为了便于将物体传送到台面进行检查,提供了与外部容器邻接的装载锁定区域。 负载锁具有通向外部容器的内部室的可移动的内壁部分,以及通向大气环境的可移动的外壁部分,以便允许将待检查物体从工作台传出。
    • 3. 发明授权
    • Apparatus for detecting a fine magnetic field with characteristic
testing function of a DC squid
    • 用于检测具有DC鱿鱼特征测试功能的精细磁场的装置
    • US5280242A
    • 1994-01-18
    • US840344
    • 1992-02-24
    • Akikazu OdawaraSatoshi NakayamaSattoshi Sekiya
    • Akikazu OdawaraSatoshi NakayamaSattoshi Sekiya
    • G01R33/035H01L39/22
    • G01R33/0356Y10S505/846
    • An apparatus for detecting a fine magnetic field comprises a DC SQUID which detects and converts a magnetic field to an electrical signal. A flux locked looped circuit drives the DC SQUID. The flux locked loop circuit includes an amplifier for amplifying the electrical signal. A phase detector modulates the amplified electrical signal and an integration circuit outputs a voltage signal corresponding to the detected magnetic field. An oscillator coupled to the phase detector supplies a demodulation frequency signal. A modulator including a first voltage-to-current converter and a second voltage-to-current converter is coupled with the integration circuit and the oscillator for supplying a modulation signal to the DC SQUID. The modulator further includes an external input terminal and a feedback modulation change-over circuit for changing an internal feedback signal to an external test signal inputted to the external input terminal. A bias source having a third voltage-to-current converter is coupled to the DC SQUID and supplies a bias signal. The bias source also includes an external input terminal and a change-over circuit for changing an internal bias signal to an external test signal inputted to the second external input terminal. An external output terminal is connected to the amplifier for supplying a monitoring test output signal from the DC SQUID. The apparatus for detecting a fine magnetic field thus provides a self-testing function for the DC SQUID.
    • 用于检测精细磁场的装置包括检测并将磁场转换为电信号的DC SQUID。 磁通锁定环路驱动DC SQUID。 磁通锁定环电路包括用于放大电信号的放大器。 相位检测器对放大的电信号进行调制,并且积分电路输出与检测到的磁场相对应的电压信号。 耦合到相位检测器的振荡器提供解调频率信号。 包括第一电压 - 电流转换器和第二电压 - 电流转换器的调制器与用于向DC SQUID提供调制信号的积分电路和振荡器耦合。 调制器还包括外部输入端和反馈调制转换电路,用于将内部反馈信号改变为输入到外部输入端的外部测试信号。 具有第三电压 - 电流转换器的偏置源耦合到DC SQUID并提供偏置信号。 偏置源还包括用于将内部偏置信号改变为输入到第二外部输入端子的外部测试信号的外部输入端子和转换电路。 外部输出端子连接到放大器,用于从DC SQUID提供监测测试输出信号。 因此,用于检测精细磁场的装置为DC SQUID提供自检功能。
    • 4. 发明授权
    • X-ray analyzer
    • X射线分析仪
    • US07910888B2
    • 2011-03-22
    • US12343364
    • 2008-12-23
    • Keiichi TanakaAkikazu OdawaraSatoshi NakayamaSumio IijimaShunji Bandow
    • Keiichi TanakaAkikazu OdawaraSatoshi NakayamaSumio IijimaShunji Bandow
    • H01L27/18
    • G01T1/1606
    • Provided is an X-ray analyzer capable of significantly suppressing an influence of an external magnetic field on a transition edge sensor (TES). The X-ray analyzer includes: a TES (7) for detecting energy of a received X-ray as a temperature change and outputting the temperature change as a current signal; a superconducting magnetic shield (8) which contains the TES (7) and enters a superconducting state; and a room temperature magnetic shield (9) which covers the superconducting magnetic shield (8) and performs external magnetic field shielding until the superconducting magnetic shield (8) enters the superconducting state, in which the superconducting magnetic shield (8) and the room temperature magnetic shield (9) are concentrically arranged to have a cylindrical shape.
    • 提供能够显着抑制外部磁场对过渡边缘传感器(TES)的影响的X射线分析装置。 X射线分析仪包括:TES(7),用于检测接收到的X射线的能量作为温度变化,并输出温度变化作为电流信号; 包含TES(7)并进入超导状态的超导磁屏蔽(8); 和覆盖超导磁屏蔽(8)的室温磁屏蔽(9),并执行外部磁场屏蔽,直到超导磁屏蔽(8)进入超导状态,其中超导磁屏蔽(8)和室温 磁屏蔽(9)同心地布置成具有圆柱形形状。
    • 5. 发明授权
    • Superconducting X-ray detector and X-ray analysis apparatus using the same
    • 超导X射线检测器和使用其的X射线分析仪器
    • US07589323B2
    • 2009-09-15
    • US11794288
    • 2006-01-24
    • Keiichi TanakaAkikazu OdawaraSatoshi Nakayama
    • Keiichi TanakaAkikazu OdawaraSatoshi Nakayama
    • H01L27/18
    • G01N23/00G01T1/006H01L39/10
    • To provide a superconducting X-ray detector capable of carrying out a measurement by a high energy resolution by restraining a reduction in a sensitivity by a self magnetic field. A superconducting X-ray detector comprising a temperature detector 6 for detecting a temperature change by heat generated when an X-ray is absorbed, and a heat link 3 for controlling a heat flow amount of escaping the generated heat to a support board i, wherein the temperature detector 6 comprises a heat conducting multilayer thin film, the superconducting X-ray detector is constituted by a structure of providing a superconductor layer 4 above the heat link 3 and providing an insulating member 2 between the superconductor layer 4 and the temperature detector 6, the superconductor layer 4 and the temperature detector 6 are connected by a superconducting wiring 7 and uses materials by which superconducting transition temperatures of the superconductor layer 4 and the superconducting wiring 7 are higher than a superconducting transition temperature of the temperature detector 6.
    • 提供能够通过抑制自磁场的灵敏度降低而能够通过高能量分辨率进行测量的超导X射线检测器。 一种超导X射线检测器,包括:温度检测器6,用于通过吸收X射线时产生的热量来检测温度变化;以及热连接件3,其用于控制​​将所产生的热量排出到支撑板i上的热流量,其中 温度检测器6包括导热多层薄膜,超导X射线检测器由在超导体层3和温度检测器6之间提供绝热构件2的结构构成, ,超导体层4和温度检测器6通过超导布线7连接,并且使用超导体层4和超导布线7的超导转变温度高于温度检测器6的超导转变温度的材料。
    • 8. 发明申请
    • X-RAY ANALYZER
    • X射线分析仪
    • US20090184252A1
    • 2009-07-23
    • US12343364
    • 2008-12-23
    • Keiichi TanakaAkikazu OdawaraSatoshi NakayamaSumio IijimaShunji Bandow
    • Keiichi TanakaAkikazu OdawaraSatoshi NakayamaSumio IijimaShunji Bandow
    • G01T1/24G21K7/00H01F7/00
    • G01T1/1606
    • Provided is an X-ray analyzer capable of significantly suppressing an influence of an external magnetic field on a transition edge sensor (TES). The X-ray analyzer includes: a TES (7) for detecting energy of a received X-ray as a temperature change and outputting the temperature change as a current signal; a superconducting magnetic shield (8) which contains the TES (7) and enters a superconducting state; and a room temperature magnetic shield (9) which covers the superconducting magnetic shield (8) and performs external magnetic field shielding until the superconducting magnetic shield (8) enters the superconducting state, in which the superconducting magnetic shield (8) and the room temperature magnetic shield (9) are concentrically arranged to have a cylindrical shape.
    • 提供能够显着抑制外部磁场对过渡边缘传感器(TES)的影响的X射线分析装置。 X射线分析仪包括:TES(7),用于检测接收到的X射线的能量作为温度变化,并输出温度变化作为电流信号; 包含TES(7)并进入超导状态的超导磁屏蔽(8); 和覆盖超导磁屏蔽(8)的室温磁屏蔽(9),并执行外部磁场屏蔽,直到超导磁屏蔽(8)进入超导状态,其中超导磁屏蔽(8)和室温 磁屏蔽(9)同心地布置成具有圆柱形形状。
    • 9. 发明申请
    • Superconducting X-Ray Detector And X-Ray Analysis Apparatus Using The Same
    • 超导X射线检测器及X射线分析装置
    • US20070291902A1
    • 2007-12-20
    • US11794288
    • 2006-01-24
    • Keiichi TanakaAkikazu OdawaraSatoshi Nakayama
    • Keiichi TanakaAkikazu OdawaraSatoshi Nakayama
    • H05G1/28H01L27/18
    • G01N23/00G01T1/006H01L39/10
    • To provide a superconducting X-ray detector capable of carrying out a measurement by a high energy resolution by restraining a reduction in a sensitivity by a self magnetic field. A superconducting X-ray detector comprising a temperature detector 6 for detecting a temperature change by heat generated when an X-ray is absorbed, and a heat link 3 for controlling a heat flow amount of escaping the generated heat to a support board 1, wherein the temperature detector 6 comprises a heat conducting multilayer thin film, the superconducting X-ray detector is constituted by a structure of providing a superconductor layer 4 above the heat link 3 and providing an insulating member 2 between the superconductor layer 4 and the temperature detector 6, the superconductor layer 4 and the temperature detector 6 are connected by a superconducting wiring 7 and uses materials by which superconducting transition temperatures of the superconductor layer 4 and the superconducting wiring 7 are higher than a superconducting transition temperature of the temperature detector 6.
    • 提供能够通过抑制自磁场的灵敏度降低而能够通过高能量分辨率进行测量的超导X射线检测器。 一种超导X射线检测器,包括用于通过吸收X射线时产生的热量来检测温度变化的温度检测器6,以及用于控制将热量传递到支撑板1的热量的热连接件3,其中 温度检测器6包括导热多层薄膜,超导X射线检测器由在超导体层3和温度检测器6之间提供绝热构件2的结构构成, ,超导体层4和温度检测器6通过超导布线7连接,并且使用超导体层4和超导布线7的超导转变温度高于温度检测器6的超导转变温度的材料。
    • 10. 发明授权
    • Nondestructive testing system using a SQUID
    • 使用SQUID的非破坏性测试系统
    • US5825182A
    • 1998-10-20
    • US325813
    • 1994-10-19
    • Satoshi NakayamaKazuo ChinoneAkikazu OdawaraTatsuaki Ataka
    • Satoshi NakayamaKazuo ChinoneAkikazu OdawaraTatsuaki Ataka
    • G01N27/82G01N27/83G01R33/035G01N27/87
    • G01R33/0358G01N27/82
    • In order to enhance the sensitivity of a nondestructive testing system, a pair of superconducting coils are disposed in the same plane such that a current flowing through the respective coils when exposed to a uniform magnetic field cancels out. As a result of this configuration, the detection coils are immune to noise, offset fields or other uniform ambient phenomena. In one embodiment, the nondestructive testing unit includes a plurality of detection coils, a SQUID having a pair of connectors for connection to the detection coils, a probe for supporting the detection coils and the SQUID in a coolant, a cryostat for supporting the probe and for keeping the coolant constant, a controller for processing a signal transmitted from the SQUID, and a display device for displaying the result of the processing. At least two detection coils are disposed in the same plane, are directly connected to the SQUID and are integrated on a semiconductor substrate.
    • 为了提高无损检测系统的灵敏度,将一对超导线圈设置在同一平面上,使得暴露于均匀磁场时流过各线圈的电流抵消。 作为这种配置的结果,检测线圈不受噪声,偏移场或其他均匀的环境现象的影响。 在一个实施例中,非破坏性测试单元包括多个检测线圈,SQUID具有用于连接到检测线圈的一对连接器,用于支撑检测线圈的探针和冷却剂中的SQUID,用于支撑探针的低温恒温器, 为了保持冷却剂不变,用于处理从SQUID发送的信号的控制器以及用于显示处理结果的显示装置。 至少两个检测线圈被布置在同一平面中,直接连接到SQUID并被集成在半导体衬底上。