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    • 3. 发明授权
    • Charged-particle detecting apparatus
    • 带电粒子检测装置
    • US07655891B2
    • 2010-02-02
    • US11723951
    • 2007-03-22
    • Akio SuzukiMasahiro HayashiKatsutoshi NonakaYuuya Washiyama
    • Akio SuzukiMasahiro HayashiKatsutoshi NonakaYuuya Washiyama
    • H01J49/06G01T1/28G01T1/29H01J43/24
    • H01J49/025
    • The present invention relates to a charged-particle detecting apparatus having a structure which enables adjustment of a potential distribution so as to stably maintain flight loci of charged particles without depending on a change in a voltage-applied state. The charged-particle detecting apparatus comprises a first electrode, an MCP, a second electrode, a third electrode that functions as an anode, and a rear cover arranged in order along a predetermined reference axis. The third electrode is arranged on the opposite side of the MCP with respect to the second electrode, and is electrically connected to an output signal part via a capacitor. In particular, the first electrode is arranged so as to become a part of the outer surface of the charged-particle detecting apparatus, and components positioned between the first electrode and the rear cover have contours with section sizes equal to or smaller than that of the contour of the first electrode when viewed from the first electrode side toward the rear cover.
    • 本发明涉及具有能够调整电位分布的结构的带电粒子检测装置,以便不依赖于施加电压的状态的变化来稳定地保持带电粒子的飞行轨迹。 带电粒子检测装置包括第一电极,MCP,第二电极,用作阳极的第三电极和沿着预定参考轴依次排列的后盖。 第三电极相对于第二电极布置在MCP的相对侧上,并且经由电容器电连接到输出信号部分。 特别地,第一电极被布置成成为带电粒子检测装置的外表面的一部分,并且位于第一电极和后盖之间的部件具有等于或小于 当从第一电极侧朝向后盖观察时,第一电极的轮廓。
    • 4. 发明申请
    • Charged-particle detecting apparatus
    • 带电粒子检测装置
    • US20080230686A1
    • 2008-09-25
    • US11723951
    • 2007-03-22
    • Akio SuzukiMasahiro HayashiKatsutoshi NonakaYuuya Washiyama
    • Akio SuzukiMasahiro HayashiKatsutoshi NonakaYuuya Washiyama
    • H01J49/02
    • H01J49/025
    • The present invention relates to a charged-particle detecting apparatus having a structure which enables adjustment of a potential distribution so as to stably maintain flight loci of charged particles without depending on a change in a voltage-applied state. The charged-particle detecting apparatus comprises a first electrode, an MCP, a second electrode, a third electrode that functions as an anode, and a rear cover arranged in order along a predetermined reference axis. The third electrode is arranged on the opposite side of the MCP with respect to the second electrode, and is electrically connected to an output signal part via a capacitor. In particular, the first electrode is arranged so as to become a part of the outer surface of the charged-particle detecting apparatus, and components positioned between the first electrode and the rear cover have contours with section sizes equal to or smaller than that of the contour of the first electrode when viewed from the first electrode side toward the rear cover.
    • 本发明涉及具有能够调整电位分布的结构的带电粒子检测装置,以便不依赖于施加电压的状态的变化来稳定地保持带电粒子的飞行轨迹。 带电粒子检测装置包括第一电极,MCP,第二电极,用作阳极的第三电极和沿着预定参考轴依次排列的后盖。 第三电极相对于第二电极布置在MCP的相对侧上,并且经由电容器电连接到输出信号部分。 特别地,第一电极被布置成成为带电粒子检测装置的外表面的一部分,并且位于第一电极和后盖之间的部件具有等于或小于 当从第一电极侧朝向后盖观察时,第一电极的轮廓。
    • 5. 发明授权
    • MCP unit, MCP detector and time of flight mass spectrometer
    • MCP单元,MCP检测器和飞行时间质谱仪
    • US07564043B2
    • 2009-07-21
    • US11802771
    • 2007-05-24
    • Masahiro HayashiYuuya WashiyamaAkio SuzukiMasahiko Iguchi
    • Masahiro HayashiYuuya WashiyamaAkio SuzukiMasahiko Iguchi
    • H01J37/252
    • H01J43/246H01J49/025
    • The present invention relates to an MCP unit or the like having a structure intended to achieve a desired time response characteristic, without depending on a limitation imposed by a channel diameter of MCP. The MCP unit comprises the MCP for releasing secondary electrons internally multiplied in response to incidence of charged particles, an anode arranged in a position where the secondary electrons reach, and an acceleration electrode arranged between the MCP and the anode. In particular, the acceleration electrode includes a plurality of openings which permit passing of the secondary electrons migrating from the MCP toward the anode. Further, the acceleration electrode is arranged such that the shortest distance B between the acceleration electrode and the anode is longer than the shortest distance A between the MCP and the acceleration electrode. Thus, an FWHM of a detected peak appearing in response to the incidence of the charged particles is remarkably shortened.
    • 本发明涉及具有旨在实现所需时间响应特性的结构的MCP单元等,而不依赖于MCP的通道直径所施加的限制。 MCP单元包括MCP,用于响应于带电粒子的入射而布置二次电子的内部倍增的电子,设置在二次电子到达的位置的阳极以及布置在MCP和阳极之间的加速电极。 特别地,加速电极包括允许二次电子从MCP向阳极迁移的多个开口。 此外,加速电极被布置成使得加速电极和阳极之间的最短距离B比MCP和加速电极之间的最短距离A长。 因此,响应于带电粒子的入射出现的检测峰的FWHM显着缩短。
    • 6. 发明申请
    • MCP unit, MCP detector and time of flight mass spectrometer
    • MCP单元,MCP检测器和飞行时间质谱仪
    • US20080290267A1
    • 2008-11-27
    • US11802771
    • 2007-05-24
    • Masahiro HayashiYuuya WashiyamaAkio SuzukiMasahiko Iguchi
    • Masahiro HayashiYuuya WashiyamaAkio SuzukiMasahiko Iguchi
    • H01J43/02H01J49/40
    • H01J43/246H01J49/025
    • The present invention relates to an MCP unit or the like having a structure intended to achieve a desired time response characteristic, without depending on a limitation imposed by a channel diameter of MCP. The MCP unit comprises the MCP for releasing secondary electrons internally multiplied in response to incidence of charged particles, an anode arranged in a position where the secondary electrons reach, and an acceleration electrode arranged between the MCP and the anode. In particular, the acceleration electrode includes a plurality of openings which permit passing of the secondary electrons migrating from the MCP toward the anode. Further, the acceleration electrode is arranged such that the shortest distance B between the acceleration electrode and the anode is longer than the shortest distance A between the MCP and the acceleration electrode. Thus, an FWHM of a detected peak appearing in response to the incidence of the charged particles is remarkably shortened.
    • 本发明涉及具有旨在实现所需时间响应特性的结构的MCP单元等,而不依赖于MCP的通道直径所施加的限制。 MCP单元包括MCP,用于响应于带电粒子的入射而布置二次电子的内部倍增的电子,设置在二次电子到达的位置的阳极以及布置在MCP和阳极之间的加速电极。 特别地,加速电极包括允许二次电子从MCP向阳极迁移的多个开口。 此外,加速电极被布置成使得加速电极和阳极之间的最短距离B比MCP和加速电极之间的最短距离A长。 因此,响应于带电粒子的入射出现的检测峰的FWHM显着缩短。
    • 7. 发明申请
    • MASS SPECTROMETER
    • 质谱仪
    • US20100243887A1
    • 2010-09-30
    • US12730475
    • 2010-03-24
    • Motohiro SUYAMAEtsuo IizukaAkio SuzukiHiroshi Kobayashi
    • Motohiro SUYAMAEtsuo IizukaAkio SuzukiHiroshi Kobayashi
    • H01J49/40H01J49/24H01J49/08
    • H01J49/40H01J49/025
    • A mass spectrometer that allows easy replacement of an MCP (microchannel plate) and is enabled to secure orthogonality between an incident surface of the MCP and an ion track at high accuracy is provided. A flight tube 2 where ions fly is arranged in a vacuum vessel composed of a vacuum flange 6 and a body 1, and an MCP group 4 is attached to a tail end of the flight tube 2 via an MCP-IN electrode 3. A vacuum flange 6 is attachably and detachably attached to the body 1, and the MCP group 4, by a spring 710 provided on a circuit board 7 for detection attached to the vacuum flange 6, is urged toward an end portion of the flight tube 2 so that its orthogonality with respect to an ion flight track is secured.
    • 提供了一种允许容易地更换MCP(微通道板)并且能够以高精度确保MCP的入射表面和离子轨道之间的正交性的质谱仪。 离子飞行的飞行管2布置在由真空法兰6和主体1组成的真空容器中,并且MCP组4经由MCP-IN电极3附接到飞行管2的尾端。真空 凸缘6可附接和可拆卸地附接到主体1,并且MCP组4通过设置在连接到真空凸缘6上的用于检测的电路板7上的弹簧710朝向飞行管2的端部被推动,使得 其相对于离子飞行轨道的正交性得到保证。
    • 8. 发明授权
    • Mass spectrometer
    • 质谱仪
    • US08357892B2
    • 2013-01-22
    • US12730475
    • 2010-03-24
    • Motohiro SuyamaEtsuo IizukaAkio SuzukiHiroshi Kobayashi
    • Motohiro SuyamaEtsuo IizukaAkio SuzukiHiroshi Kobayashi
    • H01J49/40
    • H01J49/40H01J49/025
    • A mass spectrometer that allows easy replacement of an MCP (microchannel plate) and is enabled to secure orthogonality between an incident surface of the MCP and an ion track at high accuracy is provided. A flight tube 2 where ions fly is arranged in a vacuum vessel composed of a vacuum flange 6 and a body 1, and an MCP group 4 is attached to a tail end of the flight tube 2 via an MCP-IN electrode 3. A vacuum flange 6 is attachably and detachably attached to the body 1, and the MCP group 4, by a spring 710 provided on a circuit board 7 for detection attached to the vacuum flange 6, is urged toward an end portion of the flight tube 2 so that its orthogonality with respect to an ion flight track is secured.
    • 提供了一种允许容易地更换MCP(微通道板)并且能够以高精度确保MCP的入射表面和离子轨道之间的正交性的质谱仪。 离子飞行的飞行管2布置在由真空法兰6和主体1组成的真空容器中,并且MCP组4经由MCP-IN电极3附接到飞行管2的尾端。真空 凸缘6可附接和可拆卸地附接到主体1,并且MCP组4通过设置在连接到真空凸缘6上的用于检测的电路板7上的弹簧710朝向飞行管2的端部被推动,使得 其相对于离子飞行轨道的正交性得到保证。
    • 10. 发明授权
    • Electron multipler and electron detector
    • 电子倍增器和电子探测器
    • US08022606B2
    • 2011-09-20
    • US12715570
    • 2010-03-02
    • Akio SuzukiEtsuo IizukaAkihiro KageyamaMotohiro Suyama
    • Akio SuzukiEtsuo IizukaAkihiro KageyamaMotohiro Suyama
    • H01J43/06
    • H01J43/246
    • An electron multiplier that can easily obtain characteristics according to a purpose is provided. By bonding a marginal portion 23 of an MCP 2 and a marginal portion 33 of an MCP 3 to each other via a conductive spacer layer 7, a gap 12 is formed between channel portions 22, 32. Therefore, when the electron multiplier is used for a purpose that requires a particularly high gain, by adjusting the thickness of the spacer layer 7, the gain can be increased by increasing the gap 12. In addition, when the electron multiplier is used for a purpose that requires an increase in gain as well as time characteristics, by adjusting the thickness of the spacer layer 7, the size of the gap 12 can be adjusted so that desired characteristics are obtained. Consequently, by only adjusting the thickness of the spacer layer 7, characteristics according to the purpose can be easily obtained.
    • 提供了可以容易地根据目的获得特性的电子倍增器。 通过经由导电间隔层7将MCP2的边缘部分23和MCP 3的边缘部分33彼此结合,在通道部分22,32之间形成间隙12.因此,当电子倍增器用于 通过调整间隔层7的厚度,需要特别高的增益的目的可以通过增加间隙12来增加增益。此外,当电子倍增器用于增加增益的目的时 作为时间特性,通过调整间隔层7的厚度,可以调节间隙12的尺寸,从而获得期望的特性。 因此,通过仅调整间隔层7的厚度,可以容易地获得根据目的的特性。