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    • 3. 发明授权
    • FRET detection method and device
    • FRET检测方法和装置
    • US08614099B2
    • 2013-12-24
    • US12675323
    • 2007-08-30
    • Shigeyuki NakadaNoriaki Kimura
    • Shigeyuki NakadaNoriaki Kimura
    • G01N21/76G01N21/64
    • G01N21/6428G01N21/6408G01N2021/6441
    • When FRET efficiency is measured quantitatively by removing uncertain elements of fluorescence detection information, calibration information prestored in a storage means while including at least the leak rate of donor fluorescence component emitted from a donor molecule, the leak rate of acceptor fluorescence component emitted from an acceptor molecule, and the non-FRET fluorescence lifetime of the donor fluorescence component when FRET is not generated out of the fluorescence of a measurement object sample is acquired. The FRET fluorescence lifetime of the donor fluorescence component is then determined using the intensity information and phase information of fluorescence of the measurement object sample, the leak rate of donor fluorescence component and the leak rate of acceptor fluorescence component, thus determining the FRET fluorescence efficiency.
    • 当通过消除荧光检测信息的不确定因素,预先存储在存储装置中的校准信息同时至少包括从供体分子发射的供体荧光成分的泄漏率,从受体发射的受体荧光成分的泄漏率,定量测量FRET效率 并且获得当测量对象样品的荧光不产生FRET时供体荧光成分的非FRET荧光寿命。 然后使用测量对象样品的荧光强度信息和相位信息,供体荧光成分的泄漏率和受体荧光成分的泄漏率来确定供体荧光成分的FRET荧光寿命,从而确定FRET荧光效率。
    • 4. 发明申请
    • FRET DETECTION METHOD AND DEVICE
    • FRET检测方法和设备
    • US20100312482A1
    • 2010-12-09
    • US12675323
    • 2007-08-30
    • Shigeyuki NakadaNoriaki Kimura
    • Shigeyuki NakadaNoriaki Kimura
    • G06F19/00G01N21/64G01J1/58
    • G01N21/6428G01N21/6408G01N2021/6441
    • When FRET efficiency is measured quantitatively by removing uncertain elements of fluorescence detection information, calibration information prestored in a storage means while including at least the leak rate of donor fluorescence component emitted from a donor molecule, the leak rate of acceptor fluorescence component emitted from an acceptor molecule, and the non-FRET fluorescence lifetime of the donor fluorescence component when FRET is not generated out of the fluorescence of a measurement object sample is acquired. The FRET fluorescence lifetime of the donor fluorescence component is then determined using the intensity information and phase information of fluorescence of the measurement object sample, the leak rate of donor fluorescence component and the leak rate of acceptor fluorescence component, thus determining the FRET fluorescence efficiency.
    • 当通过消除荧光检测信息的不确定因素,预先存储在存储装置中的校准信息同时至少包括从供体分子发射的供体荧光成分的泄漏率,从受体发射的受体荧光成分的泄漏率,定量测量FRET效率 并且获得当测量对象样品的荧光不产生FRET时供体荧光成分的非FRET荧光寿命。 然后使用测量对象样品的荧光强度信息和相位信息,供体荧光成分的泄漏率和受体荧光成分的泄漏率来确定供体荧光成分的FRET荧光寿命,从而确定FRET荧光效率。
    • 5. 发明申请
    • FRET DETECTION METHOD AND DEVICE
    • FRET检测方法和设备
    • US20100193703A1
    • 2010-08-05
    • US12669619
    • 2007-08-30
    • Noriaki KimuraShigeyuki NakadaKyouji Doi
    • Noriaki KimuraShigeyuki NakadaKyouji Doi
    • G01N21/64
    • G01N21/6428G01N2021/6419
    • When FRET (Fluorescence Resonance Energy Transfer) detection of a large number of samples is performed in a short time for a sample consisting of a donor molecule and an acceptor molecule, the donor molecule is irradiated at first with first laser light used for exciting a donor molecule subjected to intensity modulation at a frequency of f+Δf, the accepter molecule is irradiated with second laser light used for exciting an acceptor molecule subjected to intensity modulation at a frequency of f, and fluorescence emitted from the accepter molecule is received. From a fluorescence signal thus received, a first signal component of fluorescence emitted from the accepter molecule through FRET, and a second signal component of fluorescence emitted from an accepter molecule excited through irradiation with the second laser light are extracted. Phase lags of the first and second signal components thus extracted are then calculated and the presence of generation of FRET is judged based on these phase lags.
    • 当由供体分子和受体分子构成的样品在短时间内对大量样品进行FRET(荧光共振能量转移)检测时,首先用供激子激发的激光照射供体分子 分子以f +&Dgr; f的频率进行强度调制; f,用用于激发以f频率进行强度调制的受体分子的第二激光照射受体分子,并接收从受体分子发出的荧光。 从如此接收到的荧光信号中,提取从受体分子通过FRET发射的荧光的第一信号分量和从通过照射第二激光而激发的受体分子发射的荧光的第二信号分量。 然后计算出如此提取的第一和第二信号分量的相位滞后,并且基于这些相位滞后来判断是否存在FRET。
    • 8. 发明授权
    • Fluorescence detecting device and fluorescence detecting method
    • 荧光检测装置和荧光检测方法
    • US08885165B2
    • 2014-11-11
    • US13145763
    • 2010-01-15
    • Kazuteru HoshishimaShigeyuki Nakada
    • Kazuteru HoshishimaShigeyuki Nakada
    • G01N21/25G01N21/64G01N15/14
    • G01N21/6408G01N15/147G01N21/6428G01N2021/6419G01N2021/6421G01N2021/6441
    • A fluorescence detecting device receives fluorescence emitted by n kinds of measurement objects within wavelength bands FLk (k is an integer of 1 to n) set so that the fluorescence intensity of fluorescence emitted by a measurement object k becomes higher than that of fluorescence emitted by the other one or more measurement objects, and acquires fluorescent signals corresponding to the wavelength bands FLk (k is an integer of 1 to n). Each of the fluorescent signals is subjected to frequency-down conversion by mixing it with a modulation signal for modulating the intensity of a laser beam Lk (k=1) corresponding to at least one of the wavelength bands FLk to produce fluorescence data including the phase delay and intensity amplitude of the fluorescent signal. The fluorescence data is corrected to calculate the phase delay and a fluorescence relaxation time is calculated using the phase delay.
    • 荧光检测装置接收被设定的波长范围FLk(k为1〜n的整数)内的n种测量对象发出的荧光,使得测量对象k发射的荧光的荧光强度比由 其他一个或多个测量对象,并且获取对应于波长带FLk(k为1至n的整数)的荧光信号。 通过将每个荧光信号与调制信号进行降频转换,该调制信号用于调制与至少一个波长带FLk相对应的激光束Lk(k = 1)的强度,以产生包括相位的荧光数据 荧光信号的延迟和强度幅度。 校正荧光数据以计算相位延迟,并使用相位延迟来计算荧光弛豫时间。