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    • 5. 发明申请
    • METHOD AND APPARATUS FOR ASSAYING ENZYMATIC REACTION
    • 用于测定酶促反应的方法和装置
    • WO1997032198A1
    • 1997-09-04
    • PCT/JP1997000513
    • 1997-02-24
    • LABORATORY OF MOLECULAR BIOPHOTONICSOKAZAKI, ShigetoshiMATSUMOTO, Hiroyuki
    • LABORATORY OF MOLECULAR BIOPHOTONICS
    • G01N21/75
    • G01N21/552
    • A method and apparatus for determining enzyme activities by supplying a substrate solution and an enzyme solution to a reaction vessel to which a total reflection absorption prism is connected. An assay solution (40) comprising a mixture of an enzyme solution and a substrate solution is brought to a constant temperature in a reaction vessel (26) by a thermostat (23) and stirred by an agitator (21). An infrared ray (36) sent out of an infrared ray source (3) enters an interface between a total reflection absorption prism (28) in contact with the assay solution (40) and the solution (40) from the side of the prism (28), and is totally reflected thereupon. The spectrum of the totally reflected, outgoing transmitted infrared ray (37) is detected by an infrared ray detector (5), and the variation of the infrared ray absorption spectrum or absorbance is determined on the basis of what has been detected, whereby the enzyme reaction in the object solution (40) is assayed.
    • 一种通过向连接有全反射吸收棱镜的反应容器提供底物溶液和酶溶液来测定酶活性的方法和装置。 将包含酶溶液和底物溶液的混合物的测定溶液(40)通过恒温器(23)在反应容器(26)中达到恒定温度,并通过搅拌器(21)搅拌。 从红外线源(3)发出的红外线(36)进入与测定溶液(40)接触的全反射吸收棱镜(28)和来自棱镜侧的溶液(40)之间的界面 28),并完全反映在那里。 通过红外线检测器(5)检测全反射出射透射红外线(37)的光谱,基于检测到的内容来确定红外线吸收光谱或吸光度的变化,由此酶 测定目标溶液(40)中的反应。
    • 6. 发明申请
    • METHOD AND INSTRUMENT FOR POLARIZATION MEASUREMENT
    • 用于偏振测量的方法和仪器
    • WO1998013676A1
    • 1998-04-02
    • PCT/JP1997003391
    • 1997-09-24
    • LABORATORY OF MOLECULAR BIOPHOTONICSTOYONAGA, ShujiSHIROSHITA, MasahisaSUGA, TakayukiNAKANO, Yoshitaro
    • LABORATORY OF MOLECULAR BIOPHOTONICS
    • G01J04/00
    • G01N21/6445G01J3/4406G01J3/447G01J4/00G01N21/65
    • The polarization of fluorescent light or Raman scattering light which is emitted from a sample when light is applied to the sample is measured with high accuracy. Excitation light which is emitted from a pulse excitation light source (1) and is p-polarized by a polarizer (2) and a half-wave plate (3) is applied to a sample (7) and the p-polarization component intensity Ipp and s-polarization component intensity Ips of the emitted fluorescent light are measured by photodetectors (13 and 14). In the same way, s-polarized excitation light is applied to the sample (7) and the p-polarization component intensity Isp and s-polarization component intensity Iss of emitted fluorescent light are measured. The G-factor is obtained from those measured values by a following formula: G = [(Ipp.Isp)/(Ips.Iss)] . Polarization responsiveness correction is performed in accordance with the G-factor to obtain the polarization of the fluorescent light.
    • 以高精度测量向样品施加光时从样品发出的荧光或拉曼散射光的极化。 从脉冲激励光源(1)发射并由偏振器(2)和半波片(3)p极化的激发光施加到样品(7)上,并且p偏振分量强度Ipp 并且通过光电检测器(13和14)测量发射的荧光的s偏振分量强度Ips。 以相同的方式,对样品(7)施加s偏振激发光,并测量发射荧光的p偏振分量强度Isp和s偏振分量强度Iss。 G因子通过下式由这些测量值获得:G = [(Ipp.Isp)/(Ips.Iss)] 1/2。 根据G因子执行极化响应性校正,以获得荧光的偏振。
    • 7. 发明申请
    • PROBES FOR DETECTING POLYNUCLEOTIDES AND DETECTION METHOD
    • 用于检测聚合物和检测方法的探针
    • WO1998013524A1
    • 1998-04-02
    • PCT/JP1997003438
    • 1997-09-26
    • LABORATORY OF MOLECULAR BIOPHOTONICSSATO, YoshihiroTSUJI, AkihikoSUGA, Takayuki
    • LABORATORY OF MOLECULAR BIOPHOTONICS
    • C12Q01/68
    • C12Q1/6818
    • Detection probes enabling very convenient and highly accurate and sensitive detection of DNAs or RNAs having specific base sequences in specimens in the presence of the probes in excess of the target nucleic acid; and a detection method. When mixed with a specimen containing the target substance (DNA, RNA, etc.) having a polynucleotide having a specific base sequence, two types of fluorescent label detection probes hybridize, while being adjacent to each other, with the target nucleic acid. As a result, there arises a shift of the resonance energy between the two types of fluorescent dye molecules. When the resonance energy shift occurs in the hybrid thus formed, the fluorescence attenuation of the acceptor fluorescent dye molecule can be sufficiently delayed compared with the fluorescence attenuation of the directly excited acceptor by appropriately regulating (1) the number of bases between the two nucleotides to which the fluorescent dye moleculees have bonded; (2) the structure (double- or single-stranded) of the hybrid between the two nucleotides to which the fluorescent dye molecules have bonded; and (3), on the detection probes, the sites of the nucleotides into which the fluorescent dye molecules are to be introduced; and by (4) using a pair of detection probes with the appropriate selection of the fluorescent dye molecules. The detection method comprises using the above-mentioned detection probes and detecting the target substance by measuring changes in the fluorescence attenuation curve of the acceptor after the irradiation with pulse excitation rays, thus enabling highly accurate and sensitive detection of the target nucleic acid in the presence of the detection probes in excess of the target nucleic acid.
    • 检测探针能够在超过目标核酸的探针存在下,在标本中具有特异性碱基序列的DNA或RNAs的非常方便和高度准确和灵敏的检测; 和检测方法。 当与含有具有特定碱基序列的多核苷酸的靶物质(DNA,RNA等)的样品混合时,两种类型的荧光标记检测探针在彼此相邻的情况下与靶核酸杂交。 结果,在两种类型的荧光染料分子之间产生共振能量的偏移。 当共轭能量偏移发生在如此形成的杂化物中时,与直接激发的受体的荧光衰减相比,受体荧光染料分子的荧光衰减可以通过适当地调节(1)两个核苷酸之间的碱基数 荧光染料分子结合; (2)荧光染料分子键合的两个核苷酸之间的杂交体的结构(双链或单链) 和(3),在检测探针上,将引入荧光染料分子的核苷酸位点; 并且通过(4)使用具有适当选择荧光染料分子的一对检测探针。 检测方法包括使用上述检测探针并通过测量在用脉冲激发射线照射之后受体的荧光衰减曲线的变化来检测目标物质,从而使得能够在存在下高度精确和灵敏地检测靶核酸 的检测探针超过目标核酸。