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    • 82. 发明申请
    • CHROMATOGRAPH ANALYZING DEVICE
    • 色谱分析装置
    • US20100082263A1
    • 2010-04-01
    • US12633569
    • 2009-12-08
    • Osamu WatabeMasahito Ito
    • Osamu WatabeMasahito Ito
    • G06F19/00
    • G01N30/8675G01N30/8631G01N30/8641G01N30/8651
    • A chromatograph analyzing device for automatically executing a base line setting process on an unseparated peak using preset base line conditions. The chromatograph analyzing device comprises a separation unit for separating a component included in a sample, a data processing device for identifying the component of the sample and the quantity of the component in the sample by using a chromatogram obtained from the separation. The chromatograph analyzing device also includes a storage device for saving a plurality of sample waveforms having overlapped peaks of the chromatograph and methods for separating each of the sample wavefroms so that the plurality of sample waveforms are associated with the methods.
    • 一种色谱分析装置,用于使用预设的基线条件自动执行未分离峰值的基线设置处理。 色谱分析装置包括用于分离样品中包含的组分的分离单元,用于通过使用从分离获得的色谱图来鉴定样品的组分和样品中的组分的量的数据处理装置。 色谱分析装置还包括存储装置,用于保存具有色谱仪重叠峰的多个样本波形和用于分离每个样本波的方法,使得多个采样波形与方法相关联。
    • 86. 发明授权
    • Pump for liquid chromatography
    • 泵用于液相色谱
    • US07063785B2
    • 2006-06-20
    • US10902028
    • 2004-07-30
    • Kenji HirakuKunihiko TakaoHironori KajiMasahito Ito
    • Kenji HirakuKunihiko TakaoHironori KajiMasahito Ito
    • B01D15/08
    • F04B11/0058B01D15/14F04B11/0083F04B13/02F04B53/06F04B2205/09G01N2030/326
    • The invention provides a pump for liquid chromatography excellent in feeding liquid stably at an extremely low flow rate with high accuracy and in discharging bubbles at startup.At startup, a first plunger feeds solvent at a large flow rate to discharge bubbles in a pump and to fill the solvent into the pump in a short time and in a normal operation, the first plunger is stopped and the second plunger is pushed into a second pressure chamber at a low speed to feed the solvent at a low flow rate. When the second plunger reaches full stroke, the second plunger is pulled back at a high speed and at the same time the first plunger is pushed into a first pressure chamber in synchronization with the pullback of the second plunger to control the flow rate passing a discharge passage to a constant value at all times by a controller. Further, while the second plunger feeds the solvent, the first plunger is slightly pushed into the first pressure chamber to keep pressure in the first pressure chamber at pressure equal to or less than pressure in the second pressure chamber.
    • 本发明提供了一种液体色谱泵,其具有以极高的精度稳定地以极低的流量供给液体并在起动时排出气泡的液体色谱。 在启动时,第一柱塞以大流量供给溶剂以排出泵中的气泡并在短时间内和正常操作中将溶剂填充到泵中,使第一柱塞停止并将第二柱塞推入 第二压力室以低速进料以低流量进料溶剂。 当第二柱塞达到全行程时,第二柱塞被高速拉回,同时第一柱塞与第二柱塞的回退同步地被推入第一压力室,以控制通过排放的流量 任何时候都由控制器传递给恒定值。 此外,当第二柱塞进料溶剂时,第一柱塞稍微推入第一压力室,以将第一压力室中的压力保持在第二压力室中等于或小于压力的压力。
    • 88. 发明申请
    • Control method of controlling magnetic-field sensor, control device, and mobile terminal device
    • 控制磁场传感器,控制装置和移动终端装置的控制方法
    • US20060066295A1
    • 2006-03-30
    • US11109819
    • 2005-04-20
    • Yasuhiro TamuraMasahito Ito
    • Yasuhiro TamuraMasahito Ito
    • G01R35/00
    • G01R33/0206G01C17/38G01C25/00G01R35/005
    • A control device 200 calibrates a magnetic-field sensor 100 by computation. A computation unit 210 calculates the magnetic-field intensity based upon the outputs of X-axis, Y-axis, and Z-axis magnetic-field detection devices of the magnetic-field sensor 100. Such calculation is performed for four or more different points. The calculation is performed such that at least one point is not positioned on a plane including the other points. The computation unit 210 converts the outputs from the X-axis, Y-axis, and Z-axis magnetic-field detection devices of the magnetic-field sensor 100 into three-dimensional spatial coordinate points. Then, the computation unit 210 creates a sphere on which the four or more coordinate points thus obtained are positioned. The coordinate point of the center of the sphere thus created represents the magnetic-field offset. The interfering magnetic-field components in the X-axis, Y-axis, and Z-axis directions thus obtained are subtracted from the outputs of the X-axis, Y-axis, and Z-axis magnetic-field detection devices of the magnetic sensor 100, whereby calibration is made.
    • 控制装置200通过计算来校准磁场传感器100。 计算单元210基于磁场传感器100的X轴,Y轴和Z轴磁场检测装置的输出来计算磁场强度。 对四个以上的不同点进行这样的计算。 进行计算,使得至少一个点不位于包括其他点的平面上。 计算单元210将来自磁场传感器100的X轴,Y轴和Z轴磁场检测装置的输出转换为三维空间坐标点。 然后,运算部210生成由此得到的四个以上坐标点所在的球体。 由此产生的球体中心的坐标点代表磁场偏移。 这样得到的X轴,Y轴,Z轴方向的干涉磁场成分从磁性的X轴,Y轴,Z轴磁场检测装置的输出中减去 传感器100,由此进行校准。