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    • 1. 发明专利
    • Fluid soundness evaluating apparatus and diesel engine fuel soundness control system
    • 流体声音评估装置和柴油发动机燃油声控系统
    • JP2010197250A
    • 2010-09-09
    • JP2009043133
    • 2009-02-25
    • Mitsubishi Heavy Ind Ltd三菱重工業株式会社
    • KAWAZOE KOHEIDEGUCHI YOSHIHIROYAMAURA TSUYOTOSHINAGAFUNE SHINNOSUKEWATANABE HIROSHIYAMAMOTO TOMOKATSU
    • G01N21/35G01N21/3577G01N21/359G01N21/64G01N29/00G01N29/02
    • PROBLEM TO BE SOLVED: To provide a fluid soundness evaluating apparatus and a diesel engine fuel soundness control system, which contribute to evaluating a fluid in soundness. SOLUTION: The apparatus includes: a container 12 for containing a fuel F for example, which is the fluid to be measured; a micro carbon residue measuring section 15 having an incident part 13 and a light receiving part 14 which are disposed in the fluid to be measured in the container 12 and face each other so as to have a gap D at a prescribed spacing, measuring a light transmittance at the light receiving part 14 by varying a wavelength of light from a light source 21, measuring light or fluorescence in two or more wavelength regions, or at least two wavelengths in a range of 400-1,100 nm, by using a light receiving sensor 22, and computing a micro carbon residue (MCR) value on the basis of an intensity ratio obtained by above measurement; an ultrasonic speed indicator 16 which is disposed in the container 12 and measures a density in the fluid to be measured; and a barrier 17 which is disposed between the MCR measuring section 15 and the ultrasonic speed indicator 16. COPYRIGHT: (C)2010,JPO&INPIT
    • 要解决的问题:提供一种有助于评价流体的健全性的流体健全性评价装置和柴油发动机燃料健全性控制系统。 解决方案:该装置包括:用于容纳例如作为被测量流体的燃料F的容器12; 具有入射部13和受光部14的微量碳残留量测定部15,该入口部13和受光部14配置在容器12内的被测量流体中并且彼此面对以具有规定间隔的间隙D,测定光 通过使用光接收传感器,通过改变来自光源21的光的波长,测量两个或更多个波长区域中的光或荧光,或者在400-1100nm范围内的至少两个波长,在光接收部分14处的透射率 22,根据通过上述测定得到的强度比计算微量碳残留量(MCR)值; 超声波速度指示器16,其布置在容器12中并测量待测流体的密度; 以及设置在MCR测量部15和超声波速度指示器16之间的阻挡层17.版权所有(C)2010,JPO&INPIT
    • 2. 发明专利
    • Measuring instrument for trace amount of component
    • 测量元件追踪量的仪器
    • JP2006220501A
    • 2006-08-24
    • JP2005033372
    • 2005-02-09
    • Mitsubishi Heavy Ind Ltd三菱重工業株式会社
    • YAMAURA TSUYOTOSHIDEGUCHI YOSHIHIRO
    • G01N21/67
    • PROBLEM TO BE SOLVED: To provide an measuring instrument for a trace amount of a component simply measuring a trace amount of the component in gas with high sensitivity for measuring the concentration of a trace amount of the element component in the gas.
      SOLUTION: The measuring instrument of a trace amount of the component in the gas is equipped with: a vacuum cell 101, equipped with the supply/discharge line of the gas G; a discharge device 102 for subjecting a trace amount of the component in the gas G injected in the vacuum cell 101 to discharge treatment, to form plasma; and a detector 104 for detecting the emission intensity of light, with a wavelength of 175-850 nm in a plasma spectrum obtained by spectrally diffracting the plasma beam 103 produced by discharge. The pressure of the vacuum cell 101 is reduced to 700-200 Pa by a vacuum pump 111.
      COPYRIGHT: (C)2006,JPO&NCIPI
    • 要解决的问题:为了提供用于微量元素的测量仪器,其简单地测量气体中微量元素的高灵敏度,用于测量气体中微量元素组分的浓度。

      解决方案:气体中微量成分的测量仪器配备有:装备有气体G的供给/排出管线的真空室101; 用于对注入真空室101中的气体G中的微量成分进行放电处理的放电装置102,以形成等离子体; 以及检测器104,用于通过对通过放电产生的等离子体束103进行光谱衍射而获得的等离子体光谱中检测波长为175-850nm的光的发射强度。 真空室101的压力由真空泵111降低至700-200Pa。(C)2006年,JPO&NCIPI

    • 4. 发明专利
    • Optical gas sensor
    • JP2004354163A
    • 2004-12-16
    • JP2003151035
    • 2003-05-28
    • Mitsubishi Heavy Ind Ltd三菱重工業株式会社
    • YAMAURA TSUYOTOSHIDEGUCHI YOSHIHIRO
    • G01B11/06G01N21/45
    • PROBLEM TO BE SOLVED: To provide an optical gas sensor capable of detecting gas with high sensitivity by compensating for low reaction characteristics and capable of arranging a measuring environment by excepting a substance lowering sensitivity.
      SOLUTION: The film thickness of a coating material is calculated from the measured light path difference between the light reflected from the interface of the coating material 1 at the leading end of a light transmission medium 2 and air, and the light reflected from the interface of the coating material 1 and the light transmission medium 2 to calculate the concentration of the gas determined by the film thickness. An interference system 5 is used in a light detecting part in order to measure the light path difference. Further, separately from the interference system for measuring the light path difference, light with a wavelength for exciting a substance lowering the function of the coating material 1 is allowed to irradiate. Furthermore, by mixing Ag with Pd as the coating material 1, a change in the occulusion quantity of the gas with respect to the concentration of the gas is reduced.
      COPYRIGHT: (C)2005,JPO&NCIPI
    • 9. 发明专利
    • APPARATUS AND METHOD FOR MEASURING TEMPERATURE
    • JP2000131154A
    • 2000-05-12
    • JP30116698
    • 1998-10-22
    • MITSUBISHI HEAVY IND LTD
    • YAMAURA TSUYOTOSHIKAI TOKIO
    • G01K11/12
    • PROBLEM TO BE SOLVED: To improve the measured distance resolution and the measuring accuracy by multiplying the measuring temp. at which the top end of a pulse light composed of a specified number of parts equally divided in the width direction overlaps on a temp. measuring part of optical fiber by a specified number, and reducing each temp., corresponding to other obtained part. SOLUTION: A signal processor sets temps. T-2, T-1 of parts A-2, A-1 of an optical fiber 4 to 0 deg.C each. The measured temp. T0', at which a pulse incident light reaches P1 is set as a true temp. T0. The measured temp. T1', at which the pulse incident light reaches P2 is to be (T0+T1)/2 for the true temps. T0, T1 of parts A0, A1. The measured temp. T2' at which the pulse incident light reaches P3 is to be (T0+T1+T2)/3 for the true temps. T0-T2 of parts A0-A2. After such a computations, the true temp. Ti of other part is subtracted from a specified multiple of the measured temp. Ti' to obtain such a true temp. Ti as, e.g. T0=T0', T1=2T1', T2=3T2'-T1-T0. The distance resolution is improved by dividing the pulsewidth.
    • 10. 发明专利
    • METHOD AND DEVICE FOR MEASURING DISTORTION
    • JPH11257928A
    • 1999-09-24
    • JP36304898
    • 1998-12-21
    • MITSUBISHI HEAVY IND LTD
    • KAI TOKIOYAMAURA TSUYOTOSHIINOUE YOSHIAKISUGIMURA TADASHITSUKANO MASAZUMI
    • G01B11/16
    • PROBLEM TO BE SOLVED: To enable the highly accurate measurement of distortion of an optical fiber and the distortion measurement of an object to be measured even in the case of the presence of the temperature changes in the object to be measured, by performing temperature correction computations and measurement on the distortion distribution of the optical fiber thermally treated in a thermostatic oven. SOLUTION: An optical fiber 8 is wound around an optical fiber drum and is thermally treated in a thermostatic oven. First, the driving part 91 of a switch part 9 is connected to a fixed part 92 by a switch control part to measure the distortion distribution along the entire length of the optical fiber 8 on a hull member 1 by a distortion distribution measuring device 4. Next, the driving part 91 of the switch part 9 is switched to a fixed part 93 to measure the temperature of each part of the hull member 1 by a temperature distribution measuring device 5. Then in a signal processing part 6, temperature correction computations to remove the changes in distribution with respect to the differences in the temperature of each part of the hull member 1 obtained at the temperature distribution measuring device 5 i.e., the changes in distribution value, which is theoretical value, from distortion of each part of the hull member 1 obtained at the distortion distribution measuring device 4 is performed to obtain real distortion value.