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    • 2. 发明申请
    • FRET MEASUREMENT METHOD AND DEVICE
    • FRET测量方法和设备
    • US20120183440A1
    • 2012-07-19
    • US13498632
    • 2010-09-13
    • Shigeyuki NakadaHironori HayashiKazuteru Hoshishima
    • Shigeyuki NakadaHironori HayashiKazuteru Hoshishima
    • G01N21/64
    • G01N21/6408G01N15/1429G01N15/1459G01N15/147G01N2015/0038
    • Among donor molecules labeling protein in living cells to be measured, the rate of donor molecules binding to an acceptor molecule and occurring FRET is determined. In a plurality of previous measurement samples having different ratios of first molecule concentration to second molecule concentration, a fluorescence lifetime of the first molecule are calculated and the fluorescence lifetime minimum value of the first molecule is calculated. The samples are irradiated with a laser beam having time-modulated intensity and the fluorescence emitted by the laser-irradiated measurement samples are measured. By using the fluorescent signals thus measured, the fluorescence lifetime of the first molecule is calculated. By using the fluorescence lifetime minimum value of the first molecule and the fluorescence lifetime of the first molecule that is calculated above, the rate of the first molecules occurring FRET in the first molecules in the measurement samples is calculated.
    • 在要测量的活细胞中标记蛋白质的供体分子中,确定供体分子与受体分子结合的速率和发生的FRET。 在具有不同比例的第一分子浓度与第二分子浓度的多个先前测量样品中,计算第一分子的荧光寿命并计算第一分子的荧光寿命最小值。 用具有时间调制强度的激光束照射样品,并测量由激光照射的测量样品发射的荧光。 通过使用如此测量的荧光信号,计算第一分子的荧光寿命。 通过使用上述计算的第一分子的荧光寿命最小值和第一分子的荧光寿命,计算测量样品中第一分子中发生FRET的第一分子的速率。
    • 3. 发明申请
    • FLUORESCENCE DETECTION DEVICE AND FLUORESCENCE DETECTION METHOD
    • 荧光检测装置和荧光检测方法
    • US20120085933A1
    • 2012-04-12
    • US13377698
    • 2010-05-27
    • Kyouji DoiHironori HayashiKazuteru HoshishimaYumi Asano
    • Kyouji DoiHironori HayashiKazuteru HoshishimaYumi Asano
    • G01N21/64
    • G01N21/645G01N15/1429
    • A fluorescence emitted by a measurement object at a measurement point is measured. When the fluorescence is measured, a measurement object is irradiated with laser light whose intensity is time-modulated by using a modulation signal at a predetermined frequency. Then, the fluorescence emitted by the measurement object is formed to a flux of the fluorescence having uniform distribution of light intensity, and a plurality of partial fluorescent signals are generated by receiving a plurality of divided portions of the flux of the fluorescence. At least some of the partial fluorescent signals are added altogether to generate a single fluorescent signal. Finally, a fluorescence relaxation time of the fluorescence emitted by the measurement object is calculated from the generated fluorescent signal by using the modulation signal. When fluorescence intensity of the fluorescence calculated from the fluorescent signal exceeds a predetermined threshold, the partial fluorescent signals to be added are limited in number. Thereby, an output power of the light-receiving unit can not be prevented from saturation.
    • 测量由测量对象发射的荧光。 当测量荧光时,通过使用预定频率的调制信号对其强度进行时间调制的激光照射测量对象。 然后,由测量对象发射的荧光形成为具有均匀光强分布的荧光的通量,并且通过接收荧光通量的多个分割部分来产生多个部分荧光信号。 总共添加至少一些部分荧光信号以产生单个荧光信号。 最后,通过使用调制信号,从产生的荧光信号计算由测量对象发射的荧光的荧光弛豫时间。 当从荧光信号计算的荧光的荧光强度超过预定阈值时,要添加的部分荧光信号的数量受到限制。 因此,不能防止光接收单元的输出功率饱和。
    • 4. 发明申请
    • FLUORESCENCE DETECTING DEVICE AND FLUORESCENCE DETECTING METHOD
    • 荧光检测装置和荧光检测方法
    • US20110313725A1
    • 2011-12-22
    • US13148388
    • 2010-01-25
    • Hironori Hayashi
    • Hironori Hayashi
    • G06F15/00
    • G01N15/147G01N15/1429G01N21/6408G01N2015/0038
    • Disclosed herein is a fluorescence detecting device intended to improve the measurement accuracy of a fluorescence relaxation time. The fluorescence detecting device includes a laser light source unit that irradiates a measurement object with laser light, a light-receiving unit that outputs a fluorescent signal of fluorescence emitted by the measurement object irradiated with the laser light, a light source control unit that generates a modulation signal for time-modulating an intensity of the laser light emitted from the laser light source unit by at least two frequency components, and a processing unit that determines a fluorescence relaxation time of the fluorescence emitted by the measurement object by using the fluorescent signal outputted by the light-receiving unit and the modulation signal, wherein the processing unit determines phase delays of the fluorescent signal with respect to the modulation signal at the at least two frequency components, and determines a fluorescence relaxation time at each of the frequency components by using the phase delay, and determines an average fluorescence relaxation time by weighted averaging of the fluorescence relaxation times.
    • 本文公开了旨在提高荧光弛豫时间的测量精度的荧光检测装置。 荧光检测装置包括用激光照射测量对象的激光光源单元,输出被激光照射的测量对象发出的荧光的荧光信号的光接收单元,产生 调制信号,用于通过至少两个频率分量对从激光光源单元发射的激光的强度进行时间调制;以及处理单元,其通过使用输出的荧光信号确定测量对象发射的荧光的荧光弛豫时间 由所述光接收单元和所述调制信号,其中所述处理单元确定所述荧光信号相对于所述至少两个频率分量处的所述调制信号的相位延迟,并且通过使用所述频率分量来确定每个频率分量处的荧光弛豫时间 相位延迟,并确定平均荧光弛豫时间b y加权平均荧光弛豫时间。
    • 6. 发明授权
    • Tonneau cover unit
    • Tonneau盖单位
    • US07815235B2
    • 2010-10-19
    • US12010625
    • 2008-01-28
    • Hironori HayashiTomohiko ShibataMasahiro Ideue
    • Hironori HayashiTomohiko ShibataMasahiro Ideue
    • B60R5/04
    • B60R5/047Y10S160/02
    • A tonneau cover unit includes: a tonneau cover that covers a luggage floor which is formed on the rear side within a vehicle; a board that is fitted to an end portion of the tonneau cover, and that is provided with an engaging portion; and a rail along which the engaging portion slides in the longitudinal direction of the vehicle. The rail has a first engaged portion that locks the board at the prescribed position with the board kept substantially parallel to the luggage floor when the engaging portion is engaged in the first engaged portion; and a second engaged portion that locks the board at a prescribed position with the board kept substantially upright at a predetermined angle with respect to the luggage floor when the engaging portion is engaged in the second engaged portion.
    • 一种吨位盖单元包括:覆盖形成在车辆的后侧的行李箱地板的吨位盖; 安装在所述吨位盖的端部的板,并且设置有接合部; 以及轨道,所述接合部沿所述轨道沿车辆的纵向方向滑动。 所述轨道具有第一接合部分,当所述接合部分接合在所述第一接合部分中时,所述板将所述板锁定在所述规定位置,所述板保持基本上平行于行李箱地板; 以及第二被卡合部,当接合部接合在第二被卡合部中时,将板保持在规定位置,同时板相对于行李箱基本上保持预定角度。
    • 7. 发明授权
    • Fluorescence detecting method and fluorescence detecting device
    • 荧光检测方法和荧光检测装置
    • US08450702B2
    • 2013-05-28
    • US12867448
    • 2009-02-18
    • Kazuteru HoshishimaHironori HayashiShigeyuki Nakada
    • Kazuteru HoshishimaHironori HayashiShigeyuki Nakada
    • G01N21/64
    • G01N21/6408G01N15/1427G01N2015/1438
    • A fluorescence detecting method includes the steps of collecting a first fluorescence signal of the fluorescence received by a light receiving unit when the analyte passes a position irradiated with a laser beam, collecting a second fluorescence signal of the fluorescence received by the light receiving unit in the absence of the analyte at the position irradiated with the laser beam, and adjusting a first phase difference information on the first fluorescence signal with respect to the modulation signal by using a second phase difference information on the second fluorescence signal with respect to the modulation signal to obtain a third phase difference information on the fluorescence signal of the fluorescence, and obtaining a fluorescence relaxation time constant of the fluorescence based on the third phase difference information thus obtained.
    • 荧光检测方法包括以下步骤:当分析物通过激光束照射的位置时,收集由光接收单元接收的荧光的第一荧光信号,收集由光接收单元接收的荧光的第二荧光信号 在激光束照射的位置不存在分析物,并且通过使用关于调制信号的第二荧光信号的第二相位差信息来调整关于调制信号的第一荧光信号的第一相位差信息, 获得关于荧光的荧光信号的第三相位差信息,并且基于由此获得的第三相位差信息获得荧光的荧光弛豫时间常数。
    • 8. 发明授权
    • Fluorescence detection device and fluorescence detection method
    • 荧光检测装置和荧光检测方法
    • US08049185B2
    • 2011-11-01
    • US12866265
    • 2009-02-04
    • Hironori HayashiShigeyuki Nakada
    • Hironori HayashiShigeyuki Nakada
    • G01N21/64
    • G01N21/645G01N15/1459G01N21/51G01N2015/149G01N2021/4707G01N2021/6482
    • In a fluorescence detection device and a fluorescence detection method, forward-scattered light which is scattered from a measurement object irradiated with a laser beam is received and detection signals for informing the measurement object passing through the measurement point and for identifying a focus position of the forward-scattered light are produced. While, fluorescence emitted by the measurement object is received through a collecting lens and a light-reception signal of the fluorescence is outputted. The fluorescence intensity level is outputted based on the outputted light-reception signal and the produced detection signals. A focus position of the forward-scattered light is identified from the produced detection signals and the light reception-signal is corrected using a correction coefficient corresponding to the identified focus position.
    • 在荧光检测装置和荧光检测方法中,接收从照射激光的被测物体散射的前向散射光和用于通知测量对象的检测信号,通过测量点, 产生前向散射光。 同时,通过收集透镜接收由测量对象发出的荧光,并且输出荧光的光接收信号。 荧光强度电平根据输出的光接收信号和产生的检测信号输出。 根据产生的检测信号来识别前向散射光的聚焦位置,并且使用与所识别的焦点位置对应的校正系数校正光接收信号。