METHOD FOR THE EMISSION ANALYSIS OF THE ELEMENTAL COMPOSITION OF LIQUID MEDIA
    201.
    发明公开
    METHOD FOR THE EMISSION ANALYSIS OF THE ELEMENTAL COMPOSITION OF LIQUID MEDIA 有权
    VERFAHREN ZUR EMISSIONSANALYSE DER ELEMENTAREN ZUSAMMENSETZUNGFLÜSSIGERMEDIEN

    公开(公告)号:EP2693209A2

    公开(公告)日:2014-02-05

    申请号:EP12864898.7

    申请日:2012-12-26

    CPC classification number: G01J3/443 G01N21/67 G01N21/69 G01N33/18

    Abstract: The proposed method is related to the field of technical physics, in particular, to spectral methods for determining the elemental composition of liquid media using an electric discharge in the liquid as a source of spectra. The method can be implemented in devices for determining elemental composition of liquid media. The areas of application include water treatment systems at public water supply facilities, nuclear and thermal power industries, chemical industry, food industry processes (for water quality control), environment monitoring, etc.
    The technical result of the invention is a higher stability and reproducibility of measurement results and a better long-term operation reliability of the device.
    The proposed method for emission analysis of elemental composition of liquid media includes initiation of a local electric discharge in the liquid under analysis with the formation of a current-carrying channel in the volume of a diaphragm opening made in a member of the electrolytic cell structure, and detection of the generated emission spectra of the chemical elements being determined.
    The result is obtained due to the fact that the elements being determined are first deposited in the current-conducting channel volume at a current insufficient for initiating a local electric discharge, then the current direction is changed and its magnitude is increased for initiating a local electric discharge, and the emission generated in the liquid being analyzed is detected as emission spectra of the elements being determined.
    The deposition current intensity can be selected according to elements to be determined and their concentration in the liquid.

    Abstract translation: 所提出的方法与技术物理学领域有关,特别是涉及使用液体中的放电作为光谱来确定液体介质的元素组成的光谱方法。 该方法可以在用于确定液体介质的元素组成的装置中实现。 应用领域包括公共供水设施,核电,热电行业,化工,食品工业(水质控制),环境监测等水处理系统。本发明的技术成果具有较高的稳定性和重复性 的测量结果和更好的长期运行可靠性的设备。 所提出的液体介质的元素组成的排放分析方法包括在分析中的液体中开始局部放电,在电解池结构的构件中形成的隔膜开口的体积中形成载流通道, 并检测所确定的化学元素的产生的发射光谱。 结果是由于以下事实获得的:首先将所确定的元件以不足以引发局部放电的电流沉积在导流通道体积中,然后改变电流方向并且增加其幅度以引发局部电 检测在被分析液体中产生的发射作为所确定的元件的发射光谱。 沉积电流强度可以根据要确定的元素和它们在液体中的浓度来选择。

    ANALYSIS DEVICE AND ANALYSIS METHOD
    202.
    发明公开
    ANALYSIS DEVICE AND ANALYSIS METHOD 审中-公开
    分析装置及分析方法

    公开(公告)号:EP2618131A1

    公开(公告)日:2013-07-24

    申请号:EP11825139.6

    申请日:2011-09-12

    Inventor: IKEDA Yuji

    Abstract: An analysis apparatus includes a plasma generation unit and an optical analysis unit. The plasma generation unit generates initial plasma by momentarily energizing a target substance to be turned into a plasma state, and maintains the target substance in the plasma state by irradiating the initial plasma with an electromagnetic wave for a predetermined period of time. The optical analysis unit identifies the target substance based on information with respect to emission intensity during a period from when the emission intensity reaches a peak due to the initial plasma until when the emission intensity increases and reaches approximately a constant value due to electromagnetic wave plasma maintained by the electromagnetic wave, or information with respect to emission intensity after the electromagnetic wave irradiation is terminated.

    Abstract translation: 分析设备包括等离子体产生单元和光学分析单元。 等离子体产生单元通过瞬间激励要转变为等离子体状态的目标物质来产生初始等离子体,并且通过用预定时间段用电磁波照射初始等离子体来将目标物质保持在等离子体状态。 光学分析单元基于关于从发射强度达到由于初始等离子体引起的峰值的时间段期间的发射强度的信息来识别目标物质,直到发射强度增加并且由于维持电磁波等离子体而达到近似恒定值 通过电磁波或关于在电磁波照射终止之后的发射强度的信息。

    SPECTROSCOPE
    204.
    发明公开
    SPECTROSCOPE 审中-公开
    SPEKTROSKOP

    公开(公告)号:EP2426470A1

    公开(公告)日:2012-03-07

    申请号:EP10769816.9

    申请日:2010-04-28

    Inventor: IKEDA Yuji

    Abstract: Provided is a spectroscope that can be manufactured easily, can be reduced in size, and can provide high wavelength resolution of a specific spectral band. Specifically, provided is a spectroscope with a diffraction grating 331 that deflects and separates incident light in different directions depending on to an element of the incident light, at least one optical element 332a, diffusing a light that has passed through this diffraction grating 331 and has entered the optical element 332a, a line sensor 333, which receives the light that has passed through the optical element 332a, thereby only light that has a specific deflection angle within a specific range of wavelengths from among all the light that entered said optical element 332a is selectively expanded and received.

    Abstract translation: 提供了可以容易地制造并且可以减小尺寸并且可以提供特定光谱带的高波长分辨率的分光镜。 具体地,提供了具有衍射光栅331的分光镜,该衍射光栅331根据入射光的元素在不同方向上偏转和分离入射光,至少一个光学元件332a,使已经通过该衍射光栅331的光扩散,并且具有 进入光学元件332a,线传感器333,其接收已经通过光学元件332a的光,从而仅从进入所述光学元件332a的所有光中的特定波长范围内具有特定偏转角的光 被选择性地扩展和接收。

    STANDARD SPECTRORADIOMETER
    207.
    发明公开
    STANDARD SPECTRORADIOMETER 审中-公开
    标准光谱仪

    公开(公告)号:EP2390637A1

    公开(公告)日:2011-11-30

    申请号:EP10733563.0

    申请日:2010-01-22

    Abstract: Provided is a standard spectroradiometer which accurately measures the spectral radiation characteristic of a solar simulator and has a function of diagnosing a light source lamp and a lighting circuit thereof. The standard spectroradiometer including first light detection means (91) to (95) for respectively detecting spectral lights obtained by dispersion, the spectral lights being made by splitting and conducting a flashlight emitted from a pulse-lighting type solar simulator (2) by a plurality of optical fibers (71) to (75) and dispersing the conducted flashlights by respective spectroscopes (81) to (85), includes: a second light detection means (10) for detecting the flashlight emitted from the solar simulator (2); a threshold determination circuit (13) comparing a detection voltage detected by the second light detection means (10) and a threshold reference voltage and outputting a determination signal when the detection voltage becomes equal to or higher than the threshold reference voltage; and a delay time generation circuit (14) receiving input of the determination signal and outputting a measurement start signal, wherein each of the first light detection means (91) to (95) starts detection upon receiving input of the measurement start signal.

    Abstract translation: 本发明提供一种准确地测量太阳模拟器的光谱辐射特性并具有诊断光源灯及其照明电路的功能的标准光谱辐射计。 标准分光辐射度计包括用于分别检测通过色散获得的光谱光的第一光检测装置(91)至(95),该光谱光是通过将由脉冲点亮型太阳能模拟器(2)发射的手电筒分开并传导多个 包括:第二光检测装置(10),用于检测从太阳模拟器(2)发射的手电筒;以及第二光检测装置(10),用于检测从太阳模拟器(2)发射的手电筒。 阈值确定电路(13),用于将由第二光检测装置(10)检测到的检测电压与阈值参考电压进行比较,并且当检测电压变得等于或高于阈值参考电压时输出确定信号; 以及延迟时间生成电路,接收所述判定信号的输入并输出测定开始信号,所述第一光检测单元(91)〜(95)分别在接收到所述测定开始信号的输入时开始检测。

    SPEKTROMETEROPTIK MIT ASPHÄRISCHEN SPIEGELN
    208.
    发明公开
    SPEKTROMETEROPTIK MIT ASPHÄRISCHEN SPIEGELN 审中-公开
    光谱仪光学非球面反射镜

    公开(公告)号:EP2156153A1

    公开(公告)日:2010-02-24

    申请号:EP08759042.8

    申请日:2008-06-05

    Inventor: BOHLE, Wolfram

    Abstract: The invention relates to a spectrometer for analysing the optical emission of a sample, comprising an excitation source, an inlet, a dispersive element which fans out the spectrum of the light generated in the excitation source in a plane, and solid body sensors comprising at least one line arranged in the region of the focal curve of the beam path in order to evaluate the spectral information. The sensors are arranged above or below the plane, and the spectral emission is deflected towards the sensors by mirrors and focussed, the reflecting surface of the mirror being aspherically formed in a direction of curvature.

    LASER-TRIGGERED PLASMA APPARATUS FOR ATOMIC EMISSION SPECTROSCOPY
    209.
    发明公开
    LASER-TRIGGERED PLASMA APPARATUS FOR ATOMIC EMISSION SPECTROSCOPY 审中-公开
    激光触发等离子体装置光谱学核问题

    公开(公告)号:EP2137516A2

    公开(公告)日:2009-12-30

    申请号:EP08825971.8

    申请日:2008-04-18

    CPC classification number: G01J3/443 G01J3/02 G01J3/0272 G01N21/67 G01N21/718

    Abstract: Multiple energy sources, such as a laser and electrical field, are employed, in close coordination, spatially and temporally, to clean a sample, vaporize its material and excite vapor atoms for the purpose of atomic emission spectroscopy. These methods permit better monitoring and control of the individual processes in real time, lead to higher consistency and higher quality optical emission spectra, and enhance the measurements of non-conducting solids, liquids and gases. Additionally, a portable instrument is provided with both laser source and spectrometer optically coupled to a hand-holdable unit.

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