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. 发明申请
    • HIGH-SPEED PARTICLE DETECTOR FOR DISCRIMINATING CHARGE STATES OF IONS
    • 用于分辨离子电荷状态的高速粒子检测器
    • US20120326018A1
    • 2012-12-27
    • US13582658
    • 2011-02-04
    • Masataka OhkuboKouji Suzuki
    • Masataka OhkuboKouji Suzuki
    • H01J49/26
    • H01L39/10H01J49/025
    • Detected ion charge states are discriminated in a mass spectrograph using a superconducting stripline detector (SSLD) as the detector thereof. A set of mass spectra of the singly charged or higher ions, the doubly charged or higher ions, the triply charged or higher ions (and successively higher ion charge states) are determined by measuring the mass spectra successively while decreasing the bias current flowing through the superconducting stripline detector. Then, the data of singly charged ions alone can be determined by subtracting the data of the doubly charged or higher ions from the data of the singly charged or higher ions. In a similar manner, the data of doubly charged ions alone, the data of triply charged ions alone (and similarly successively multiply charged ions) can also be determined.
    • 使用超导带状线检测器(SSLD)作为其检测器,在质谱仪中区分检测到的离子电荷状态。 单电荷或更高离子,双电荷或更高离子,三次充电或更高离子(以及相继较高的离子电荷状态)的质谱的集合通过连续测量质谱来确定,同时减少流过 超导带状线检测器。 然后,单个电荷离子的数据可以通过从单电荷或更高离子的数据中减去双电荷或更高离子的数据来确定。 以类似的方式,单独的双电荷离子的数据,单独的三电荷离子的数据(以及类似的连续多重带电的离子)也可以被确定。
    • 5. 发明申请
    • Time-Of-Flight Mass Spectrometer
    • 飞行时间质谱仪
    • US20080290269A1
    • 2008-11-27
    • US11908758
    • 2006-01-25
    • Naoaki SaitoMasataka OhkuboKazuyoshi KoyamaEisuke Miura
    • Naoaki SaitoMasataka OhkuboKazuyoshi KoyamaEisuke Miura
    • H01J49/40
    • H01J49/401
    • A time-of-flight mass spectrometer comprising an accelerating portion that includes a repeller electrode and an extractor electrode, in which an inner surface on the extractor electrode side of the repeller electrode has a curved shape, the extractor electrode is a flat plate with a hole in the center or a plate structure including a mesh structure, and the accelerating portion converges a distribution of times of flight accompanying deviations in the acceleration start position of ions and also performs trajectory control by correcting a distribution of the introduction energy of ions. In accordance with the above-described structure, it is possible to realize both functions of a conventional accelerating portion and ion lens system with only an accelerating portion and it is possible to simplify and reduce the size of the time-of-flight mass spectrometer.
    • 一种飞行时间质谱仪,其特征在于,具有:包括排斥电极的加速部和所述排斥电极的所述提取电极侧的内表面具有弯曲形状的提取电极,所述提取电极为平板, 中心的孔或包括网状结构的板结构,并且加速部收敛伴随离子的加速开始位置的偏差的飞行时间分布,并且还通过校正离子的引入能量的分布来进行轨迹控制。 根据上述结构,可以实现仅加速部分的传统加速部分和离子透镜系统的功能,并且可以简化和减小飞行时间质谱仪的尺寸。
    • 6. 发明授权
    • High-speed particle detector for discriminating charge states of ions
    • 用于鉴别离子电荷状态的高速粒子检测器
    • US08872109B2
    • 2014-10-28
    • US13582658
    • 2011-02-04
    • Masataka OhkuboKouji Suzuki
    • Masataka OhkuboKouji Suzuki
    • H01J49/26H01L39/10H01J49/02
    • H01L39/10H01J49/025
    • Detected ion charge states are discriminated in a mass spectrograph using a superconducting stripline detector (SSLD) as the detector thereof. A set of mass spectra of the singly charged or higher ions, the doubly charged or higher ions, the triply charged or higher ions (and successively higher ion charge states) are determined by measuring the mass spectra successively while decreasing the bias current flowing through the superconducting stripline detector. Then, the data of singly charged ions alone can be determined by subtracting the data of the doubly charged or higher ions from the data of the singly charged or higher ions. In a similar manner, the data of doubly charged ions alone, the data of triply charged ions alone (and similarly successively multiply charged ions) can also be determined.
    • 使用超导带状线检测器(SSLD)作为其检测器,在质谱仪中区分检测到的离子电荷状态。 单电荷或更高离子,双电荷或更高离子,三次充电或更高离子(以及相继较高的离子电荷状态)的质谱的集合通过连续测量质谱来确定,同时减少流过 超导带状线检测器。 然后,单个电荷离子的数据可以通过从单电荷或更高离子的数据中减去双电荷或更高离子的数据来确定。 以类似的方式,单独的双电荷离子的数据,单独的三电荷离子的数据(以及类似的连续多重带电的离子)也可以被确定。