回転式試験システム
    2.
    发明专利
    回転式試験システム 有权
    旋转测试系统

    公开(公告)号:JP2014240840A

    公开(公告)日:2014-12-25

    申请号:JP2014164637

    申请日:2014-08-13

    CPC classification number: G01L3/22 G01M13/025 G01M15/02 G01M15/042

    Abstract: 【課題】共振状態を最小化/除去する回転式試験システムを提供する。【解決手段】回転式試験システムは、試験片12のためのテストスタンド10を有する。テストスタンド10は、支持脚16に取り付けられた動力計14を有する。動力計14は、駆動端28及び非駆動端30を有する。シャフト20は、駆動端28のトルク変換器32を介して試験片12に機械的に結合されている。非独立型ねじりダンパ34、すなわち、試験片12及び動力計14でトルクを伝達することを意図しないねじりダンパ34、試験片12及び動力計14間のトルク経路にないねじりダンパ34が、非駆動端30でシャフト20に機械的に結合/接続されている(さらにいえばシャフト20を囲んでいる)。他の実施例では、非独立型ねじりダンパ34が、シャフト20に沿った任意の位置でシャフト20に機械的に結合/接続されている。【選択図】図2

    Abstract translation: 要解决的问题:提供一种最小化/消除共振状态的旋转测试系统。解决方案:旋转测试系统包括用于测试物品12的测试台10.测试台10包括安装在支撑腿16上的测力计14。 测力计14包括驱动端28和非驱动端30.轴20通过驱动端28处的扭矩传感器32机械地连接到测试物品12.非隔离扭转阻尼器34,即扭转 阻尼器34不试图在测试物品12和测力计14之间传递扭矩,并且不在测试物品12和测力计14之间的扭矩路径中机械地联接/连接到轴20(并且还围绕轴 在另一个实施例中,非隔离扭转阻尼器34在沿着轴20的任何位置处机械地联接/连接到轴20。

    DETERMINATION OF WATER TREATMENT PARAMETERS BASED ON ABSORBANCE AND FLUORESCENCE
    6.
    发明申请
    DETERMINATION OF WATER TREATMENT PARAMETERS BASED ON ABSORBANCE AND FLUORESCENCE 审中-公开
    基于吸收和荧光测定水处理参数

    公开(公告)号:WO2016069279A1

    公开(公告)日:2016-05-06

    申请号:PCT/US2015/055726

    申请日:2015-10-15

    Abstract: A monitoring system configured to receive an on-line sample associated with a process includes a sample chamber positioned to receive the on-line sample and a detector positioned to selectively receive and detect multiple wavelengths of light transmitted through the sample during an absorbance measurement, and emitted by the sample during a fluorescence measurement in response to illumination by each of the at least one excitation wavelength. An optical fiber couples light transmitted through the sample and directs the transmitted light to the multi-channel detector during the absorbance measurement. Optics direct light emitted by the sample during the fluorescence measurement to the detector without passing through any optical fiber. A computer in communication with the detector is configured to correct the fluorescence measurement using the absorbance measurement and determine a sample parameter based on the fluorescence and absorbance measurements of the on-line sample.

    Abstract translation: 配置为接收与过程相关联的在线样品的监测系统包括定位成接收在线样品的样品室和定位成在吸光度测量期间选择性地接收和检测透过样品的多个波长的光的检测器,以及 响应于所述至少一个激发波长中的每一个的照明而在荧光测量期间由样品发射。 在吸光度测量期间,光纤将透射通过样品的光耦合到多通道检测器上并将透射光引导到多通道检测器。 在荧光测量期间将样品发射到检测器而不通过任何光纤的光学直接光。 与检测器通信的计算机被配置为使用吸光度测量来校正荧光测量,并且基于在线样品的荧光和吸光度测量确定样品参数。

    SYSTEM AND METHOD FOR FLUORESCENCE AND ABSORBANCE ANALYSIS
    7.
    发明申请
    SYSTEM AND METHOD FOR FLUORESCENCE AND ABSORBANCE ANALYSIS 审中-公开
    用于荧光和吸收分析的系统和方法

    公开(公告)号:WO2012122151A1

    公开(公告)日:2012-09-13

    申请号:PCT/US2012/027833

    申请日:2012-03-06

    Abstract: A system or method for analyzing a sample include an input light source, a double subtractive monochromator positioned to receive light from the input light source and to sequentially illuminate the sample with each of a plurality of wavelengths, a multi-channel fluorescence detector positioned to receive and substantially simultaneously detect multiple wavelengths of light emitted by the sample for each of the plurality of excitation wavelengths, an absorption detector positioned to receive and detect light passing through the sample, and a computer in communication with the monochromator, the fluorescence detector, and the absorption detector, the computer controlling the monochromator to sequentially illuminate the sample with each of the plurality of wavelengths while measuring absorption and fluorescence of the sample based on signals received from the fluorescence and absorption detectors

    Abstract translation: 用于分析样本的系统或方法包括输入光源,双减色单色仪,定位成接收来自输入光源的光,并以多个波长中的每一个顺序照射样品;多通道荧光检测器,定位成接收 并且基本上同时检测由所述样品对于所述多个激发波长中的每一个发射的多个波长的光;吸收检测器,定位成接收和检测通过所述样品的光;以及计算机,其与所述单色仪,所述荧光检测器和 吸收检测器,控制单色仪的计算机根据从荧光和吸收检测器接收的信号测量样品的吸收和荧光,顺序地照射多个波长中的每个波长的样品

    APPARATUS AND METHOD FOR TESTING USING DYNAMOMETER

    公开(公告)号:WO2019133686A9

    公开(公告)日:2019-07-04

    申请号:PCT/US2018/067636

    申请日:2018-12-27

    Abstract: A test method for a vehicle powertrain includes, during a first test of a first vehicle or a portion of a first vehicle on a dynamometer, coordinatingly controlling (i) an accelerator pedal, an accelerator pedal signal, a fuel injector, a manifold pressure, a motor controller, or a throttle valve according to a load schedule and (ii) the dynamometer according to a speed schedule such that the dynamometer applies dynamic torque that causes a powertrain of the first vehicle or portion of the first vehicle to produce dynamic powertrain torque. The test method also includes recording values defining a history of the dynamic torque, and during a second test of the first vehicle or portion of the first vehicle on the dynamometer or another dynamometer, or during a second test of a second vehicle or a portion of a second vehicle on the dynamometer or another dynamometer, coordinatingly controlling (iii) an accelerator pedal, an accelerator pedal signal, a fuel injector, a manifold pressure, a motor controller, or a throttle valve according to the values defining the history of the dynamic torque and (iv) the dynamometer or the another dynamometer according to the speed schedule such that the dynamometer or the another dynamometer applies dynamic torque that causes a powertrain of the first vehicle or portion of the first vehicle or a powertrain of the second vehicle or portion of the second vehicle to reproduce the dynamic powertrain torque.

    COMPACT SPECTROSCOPIC OPTICAL INSTRUMENT
    10.
    发明申请

    公开(公告)号:WO2019118800A1

    公开(公告)日:2019-06-20

    申请号:PCT/US2018/065592

    申请日:2018-12-14

    Abstract: An optical instrument for spectroscopy applications includes a compact arrangement having a three-dimensional folded optical path. A plate configured as an optical reference plane is secured to a housing and is configured to secure optical components above or below the plate. A modular light source module may be secured within the housing without fasteners. A monochromator and spectrometer are secured below the plate. Mirrors disposed above the plate are configured to direct light from the monochromator passing through a first opening in the plate through a sample disposed above the plate, and to direct light from the sample through a second opening in the plate to the spectrometer. A controller is configured for communication with the monochromator and the spectrometer. The controller may control an entrance slit actuator for the spectrometer and positioning of an aperture upstream of the spectrometer to adjust resolution and throughput.

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