Slab waveguide spatial heterodyne spectrometer assembly
    141.
    发明公开
    Slab waveguide spatial heterodyne spectrometer assembly 有权
    平板波导空间外差谱仪组件

    公开(公告)号:EP2136191A1

    公开(公告)日:2009-12-23

    申请号:EP09250995.9

    申请日:2009-03-31

    Abstract: An optical broadband micro-spectrometer containing an input optical assembly, a group of slab waveguide spatial heterodyne spectrometer (SHS) integrated circuits (ICs), a detection module and a processor for multi-line detection. The input optical assembly applies an input light signal uniformly with respect to brightness and frequency to the apertures of the waveguides and may project a pupil image onto the SHS input face and may be a scanner. Each slab waveguide spatial heterodyne spectrometer (SHS) integrated circuit (IC) contains at least one slab waveguide SHS IC. The detection module bonds directly to the slab waveguide output apertures. Each slab waveguide SHS IC may contain one or more slab waveguide SHS.

    Abstract translation: 一种光学宽带微谱仪,包含一个输入光学组件,一组平板波导空间外差谱仪(SHS)集成电路(IC),一个检测模块和一个用于多线检测的处理器。 输入光学组件将关于亮度和频率的输入光信号均匀地施加到波导的孔,并且可以将瞳孔图像投影到SHS输入面上并且可以是扫描仪。 每个平板波导空间外差光谱仪(SHS)集成电路(IC)包含至少一个平板波导SHS IC。 检测模块直接连接到平板波导输出孔。 每个平板波导SHS IC可以包含一个或多个平板波导SHS。

    UNIVERSAL MULTIDETECTION SYSTEM FOR MICROPLATES
    142.
    发明公开
    UNIVERSAL MULTIDETECTION SYSTEM FOR MICROPLATES 审中-公开
    通用MEHRERKENNUNGSSYSTEMFÜRMIKROPLATTEN

    公开(公告)号:EP2111534A2

    公开(公告)日:2009-10-28

    申请号:EP08729602.6

    申请日:2008-02-12

    Abstract: An apparatus and a method for optically analyzing a sample are provided. The apparatus includes a first optical device that transmits a narrow waveband of light and has a first filter and a first monochromator that provide different paths for the narrow waveband of the light. The apparatus may also include a light source that generates the light as broadband excitation light, in which case the first optical device transmits a narrow waveband of the broadband excitation light through the first filter or the first monochromator. Further, the apparatus may include a second optical device that directs the narrow waveband of the broadband excitation light onto the sample and receives emission light from the sample, a third optical device that transmits a narrow waveband of the emission light, and a detector that converts the narrow waveband of the emission light into an electrical signal.

    Abstract translation: 提供了用于光学分析样品的装置和方法。 该装置包括发射窄波段的光的第一光学装置,并具有为光的窄波段提供不同路径的第一滤光器和第一单色仪。 该装置还可以包括产生作为宽带激发光的光的光源,在这种情况下,第一光学装置通过第一滤光器或第一单色仪传输宽带激发光的窄波段。 此外,该装置可以包括第二光学装置,其将宽带激发光的窄波段引导到样品上并接收来自样品的发射光,发射发射光的窄波段的第三光学装置,以及转换 发射光的窄波段变成电信号。

    MULTI-CHANNEL, MULTI-SPECTRUM IMAGING SPECTROMETER
    143.
    发明公开
    MULTI-CHANNEL, MULTI-SPECTRUM IMAGING SPECTROMETER 审中-公开
    多通道,SPECTRUM MULTIPLE成像光谱仪

    公开(公告)号:EP1784622A4

    公开(公告)日:2009-06-03

    申请号:EP05790851

    申请日:2005-08-19

    Abstract: A multi-spectrum, multi-channel imaging spectrometer includes two or more input slits or other light input devices, one for each of two or more input channels. The input slits are vertically and horizontally displaced, with respect to each other. The vertical displacements cause spectra from the two channels to be vertically displaced, with respect to each other, on a single image sensor on a stationary image plane. The horizontal displacements cause incident light beams from the respective input channels to strike a convex grating at different respective incidence angles and produce separate spectra having different respective spectral ranges. A retroflective spectrometer includes a convex grating that, by diffraction, disperses wavelengths of light at different angles and orders approximately back along an incident light beam. A single concave mirror reflects both the input channel and the dispersed spectrum. A prism, set of mirrors, beam splitters or other optical element(s) folds the input channel(s) of a spectrometer to enable the input(s) to be moved away from the plane of the image sensor, thereby enabling a large camera or other device to be attached to the spectrometer without blocking the input(s). A mounting mechanism enables a curved optical element to be adjusted through lateral and transverse translations, without requiring a gimbal mount.

    MEASURING WAVELENGTH CHANGE
    144.
    发明授权
    MEASURING WAVELENGTH CHANGE 有权
    测量波长的变化

    公开(公告)号:EP1279010B1

    公开(公告)日:2009-01-14

    申请号:EP01926237.7

    申请日:2001-05-01

    Inventor: CHENG, Lun, Kai

    Abstract: An optical wavelength analyser including: an entrance slit (4) for receiving a light beam (3) including signals with various wavelengths and passing the beam at least partly; a diffractor (6, 7, 9) for receiving the passed beam and diffracting the signals dependent on their wavelength; a detector (8) including adjacent detector elements (32, 33, 35, 36, 38, 39) for receiving the diffracted signals and generating their output signals; a processor (21) for determining the wavelengths from the output signals, in which the received light beam has a spatially uniform intensity; the diffractor diffracts each signal on a different detector element subset, consisting of at least a first element (32, 33, 35, 36, 38, 39) for receiving at least a first signal with a first signal level; the processor determines each signal's wavelength dependent on the first signal level and a calibration value.

    Two-channel imaging spectrometer utilizing shared objective collimating and imaging optics
    145.
    发明公开
    Two-channel imaging spectrometer utilizing shared objective collimating and imaging optics 有权
    Zweikanal-Abbildungsspektrometer mit gemeinsamerObjektivbündelungund Abbildungsoptik

    公开(公告)号:EP1988372A1

    公开(公告)日:2008-11-05

    申请号:EP08251581.8

    申请日:2008-04-30

    Inventor: Cook, Lacy G.

    Abstract: A two-channel spectrometer (20) has a shared objective (22) and a pair of slits (34, 40) at a common image plane (46). Each of the slits (34, 40) receives a portion of the output beam (22) of the shared objective (22) and is optimized for transmitting different wavelengths. A shared double-pass reflective triplet (48) receives the output beams of the slits. The output of the reflective triplet (48) is incident upon a beamsplitter (62), which sends a collimated first reflective triplet output (52) of a first wavelength to a first dispersive element (64), and a collimated second reflective triplet output (54) of a second wavelength to a second dispersive element (70). The outputs (66, 72) of the dispersive elements (64, 70) are directed back to the beamsplitter (62) and the reflective triplet (48) to imaging detectors (76, 78) located at two different locations of the common image plane (46).

    Abstract translation: 双通道光谱仪(20)在共同的图像平面(46)处具有共享物镜(22)和一对狭缝(34,40)。 每个狭缝(34,40)接收共享物镜(22)的输出光束(22)的一部分,并被优化用于透射不同的波长。 共享双通反射三重态(48)接收狭缝的输出光束。 反射三重态(48)的输出入射到分束器(62)上,分束器(62)将第一波长的准直的第一反射三重态输出(52)发送到第一色散元件(64)和准直的第二反射三重态输出 54)到第二分散元件(70)。 分散元件(64,70)的输出(66,72)被引导回分光器(62)和反射三重态(48)到成像检测器(76,78),位于公共图像平面的两个不同位置 (46)。

    Compact catadioptric spectrometer
    146.
    发明公开
    Compact catadioptric spectrometer 审中-公开
    Kompaktes katadioptrisches Spektrometer

    公开(公告)号:EP1882916A1

    公开(公告)日:2008-01-30

    申请号:EP06015122.2

    申请日:2006-07-20

    Abstract: An optical characterisation system is described for characterising optical material. The system typically comprises a diffractive element (104), a detector (106) and an optical element (102). The optical element (102) thereby typically is adapted for receiving an illumination beam, which may be an illumination response of the material. The optical element (102) typically has a refractive surface for refractively collimating the illumination beam on the diffractive element (104) and a reflective surface for reflecting the diffracted illumination beam on the detector (106). The optical element (102) furthermore is adapted for cooperating with the diffractive element (104) and the detector (106) being positioned at a same side of the optical element (102).

    Abstract translation: 描述了用于表征光学材料的光学表征系统。 该系统通常包括衍射元件(104),检测器(106)和光学元件(102)。 因此,光学元件(102)通常适于接收可以是材料的照明响应的照明光束。 光学元件(102)通常具有用于折射准直衍射元件(104)上的照明光束的折射表面和用于将衍射照射光束反射在检测器(106)上的反射表面。 光学元件(102)还适于与衍射元件(104)和检测器(106)配合,位于光学元件(102)的同一侧。

    COMPACT SPECTROFLUOROMETER
    148.
    发明公开
    COMPACT SPECTROFLUOROMETER 审中-公开
    紧凑型荧光分光光度计

    公开(公告)号:EP1232387A1

    公开(公告)日:2002-08-21

    申请号:EP00980537.5

    申请日:2000-11-17

    Abstract: Spectrofluorometer (10) employing a pair of linear variable spectral filters (14, 18) to produce a three dimensional data output is disclosed. A collimated white light source (36) is used that first passes through a first linear variable spectral filter (14), then through a sample (16) where fluorescence occurs, then the resultant light passes through a second linear variable spectral light filter (18) that is oriented at ninety degrees from the first filter (14). The light is then detected by a CCD sensor (20) for conversion into data. This arrangement provides a very simple, rugged and compact instrument that can be used almost anywhere, such as at the scene of a contamination accident.

    LARGE SCALE HIGH SPEED MULTIPLEXED OPTICAL FIBER SENSOR NETWORK
    149.
    发明公开
    LARGE SCALE HIGH SPEED MULTIPLEXED OPTICAL FIBER SENSOR NETWORK 有权
    大型高速光纤传感网络复用

    公开(公告)号:EP1005625A1

    公开(公告)日:2000-06-07

    申请号:EP98940983.4

    申请日:1998-08-19

    Abstract: A digital spatial and wavelength domain system for multiplexing fiber Bragg grating sensors comprises: a plurality of optical fibers, each including a plurality of fiber Bragg gratings therein, each fiber Bragg grating having a selective center wavelength that is variable in accordance with strain for reflecting or transmitting light at the corresponding center wavelength in accordance with the strain thereat; means for providing broad band illumination (110) for the fiber Bragg gratings; means for each optical fiber for carrying the light to a selected location; and a wavelength dispersion device (136) responsive to the light from each of the fibers for wavelength separating the light in each fiber into the center wavelengths in accordance with the location of each fiber so that the selected location of each fiber and the wavelength separated light provides spatially independent signals for each fiber Bragg grating in each optical fiber.

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