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公开(公告)号：US20170016813A1
公开(公告)日：2017-01-19
申请号：US15048705
申请日：2016-02-19
Applicant: Premium Genetics (UK) LTD
Inventor： Matthias Wagner
CPC classification number: G01N15/1436 , G01N15/00 , G01N15/06 , G01N15/1434 , G01N15/147 , G01N15/1475 , G01N21/35 , G01N21/3577 , G01N21/3581 , G01N21/39 , G01N21/53 , G01N21/552 , G01N2015/0065 , G01N2015/0687 , G01N2015/0693 , G01N2015/1006 , G01N2015/1443 , G01N2015/1447 , G01N2015/1488 , G01N2015/1497 , G01N2021/399 , G01N2201/068 , G01N2201/105 , G02B21/0032 , G02B21/0036 , G02B21/006 , G02B21/0064 , G02B21/008
Abstract: An analyzer of a component in a sample fluid includes an optical source and an optical detector defining a beam path of a beam, wherein the optical source emits the beam and the optical detector measures the beam after partial absorption by the sample fluid, a fluid flow cell disposed on the beam path defining an interrogation region in the a fluid flow cell in which the optical beam interacts with the sample fluid and a reference fluid; and wherein the sample fluid and the reference fluid are in laminar flow, and a scanning system that scans the beam relative to the laminar flow within the fluid flow cell, wherein the scanning system scans the beam relative to both the sample fluid and the reference fluid.
Abstract translation: 样品流体中的组分的分析器包括光源和限定光束的光束路径的光学检测器，其中光源发射光束，并且光学检测器在被样品流体部分吸收之后测量光束，流体流 设置在光束路径上的细胞，其限定了流体流动池中的询问区域，其中光束与样品流体和参考流体相互作用; 并且其中所述样品流体和所述参考流体是层流的;以及扫描系统，其相对于所述流体流动池内的层流扫描所述束，其中所述扫描系统相对于所述样品流体和所述参考流体扫描所述束 。
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公开(公告)号：US20170010222A1
公开(公告)日：2017-01-12
申请号：US15265805
申请日：2016-09-14
Applicant: KLA-Tencor Corporation
Inventor： Richard E. Bills , Neil Judell , Klaus R. Freischlad , James P. McNiven
CPC classification number: G01N21/9501 , G01N21/21 , G01N21/47 , G01N21/4738 , G01N21/474 , G01N21/55 , G01N21/88 , G01N21/8806 , G01N21/95 , G01N21/956 , G01N2021/4707 , G01N2021/4711 , G01N2021/4792 , G01N2021/556 , G01N2021/8809 , G01N2021/8848 , G01N2021/8864 , G01N2021/8877 , G01N2021/8896 , G01N2201/0612 , G01N2201/105 , G06T7/0004 , G06T2207/30148 , Y10T29/49826
Abstract: A surface inspection system, as well as related components and methods, are provided. The surface inspection system includes a beam source subsystem, a beam scanning subsystem, a workpiece movement subsystem, an optical collection and detection subsystem, and a processing subsystem. The optical collection and detection system features, in the front quartersphere, a light channel assembly for collecting light reflected from the surface of the workpiece, and a front collector and wing collectors for collecting light scattered from the surface, to greatly improve the measurement capabilities of the system. The light channel assembly has a switchable edge exclusion mask and a reflected light detection system for improved detection of the reflected light.
Abstract translation: 提供了表面检查系统，以及相关的部件和方法。 表面检查系统包括光束源子系统，光束扫描子系统，工件运动子系统，光学收集和检测子系统以及处理子系统。 光学收集和检测系统在前四分之一区域中具有用于收集从工件表面反射的光的光通道组件，以及用于收集从表面散射的光的前收集器和翼收集器，以大大提高测量能力 系统。 光通道组件具有可切换的边缘排除掩模和用于改进反射光检测的反射光检测系统。
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公开(公告)号：US20160349179A1
公开(公告)日：2016-12-01
申请号：US15232091
申请日：2016-08-09
Inventor： Daniel Rochette , Pascal Gallant , Ozge Mermut , Francois Baribeau , Isabelle Noiseux , Isabelle Gosselin
CPC classification number: G01N21/6428 , A61L2/28 , A61L2202/24 , G01N21/6486 , G01N21/94 , G01N2021/6417 , G01N2021/6439 , G01N2201/06113 , G01N2201/068 , G01N2201/0697 , G01N2201/10 , G01N2201/105
Abstract: A method for optical detection of residual soil on articles (such as medical instruments and equipment), after completion of a washing or a rinsing operation by a washer. A soil detection system provides an indication of soil on the articles by detecting luminescent radiation emanating from the soil in the presence of ambient light.
Abstract translation: 在清洗完成洗涤或漂洗操作之后，用光学检测物品（例如医疗仪器和设备）上的残留土壤的方法。 土壤检测系统通过在环境光的存在下检测从土壤发出的发光辐射来提供物品上的土壤的指示。
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公开(公告)号：US20160339274A1
公开(公告)日：2016-11-24
申请号：US15131074
申请日：2016-04-18
Applicant: COLORIGHT LTD.
Inventor： Benzion LANDA , Efraim MIKLATZKY , Sagi ABRAMOVICH , Yacov MAZUZ , Anton KRASSILNIKOV , Eliyahu BENNY , Gilad DAVARA , Chen OFEK , Elena ISHKOV , Lior SHAHAR , Daniel MANDELIK , Uri ZADOK
CPC classification number: A61Q5/10 , A61K8/0216 , A61K2800/4322 , B65D1/0223 , B65D83/04 , B65D2501/0081 , G01J3/02 , G01J3/18 , G01J3/42 , G01N21/21 , G01N21/27 , G01N21/4738 , G01N21/84 , G01N2201/062 , G01N2201/105
Abstract: Novel systems and methods for performing treatment (e.g., coloration) of keratinous fibers are disclosed. The methods and systems utilize one or more of a dispensing device which is configured to provide customized composition for treating keratinous fibers (e.g., a coloring composition), optionally formed from tablets; an optical reader, for obtaining sufficient characteristics of the keratinous fibers to make a realistic prediction of the outcome of a treatment (e.g., coloring treatment); a computational units for predicting an outcome of a treatment, optionally being interfaced with the dispensing device and for selecting a customized treatment; and tablet formulations which are useful in preparing customized composition for treating keratinous fibers. Further disclosed are rapidly disintegrating tablets for use in the preparation of compositions for treating keratinous fibers.
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公开(公告)号：US20160306152A1
公开(公告)日：2016-10-20
申请号：US15132053
申请日：2016-04-18
Applicant: CANON KABUSHIKI KAISHA
Inventor： Koji Makara , Yoichi Otsuka , Masafumi Kyogaku , Hiroyuki Hashimoto
CPC classification number: G02B21/008 , G01N21/6428 , G01N21/6458 , G01N21/65 , G01N2021/655 , G01N2201/06113 , G01N2201/105 , G02B21/0032 , G02B21/0036 , G02B21/0064 , G02B21/0076
Abstract: A laser scanning microscope apparatus includes an irradiation unit including an objective lens, a photodetector unit, an XY-scanning unit, and a Z-scanning unit. The irradiation unit focuses a laser beam with the objective lens to a specimen. The photodetector unit detects light generated from a position irradiated with the laser beam focused. The XY-scanning unit scans the laser beam in an X-direction perpendicular to an optical axis of the objective lens and in a Y-direction perpendicular to the optical axis and the X-direction. The Z-scanning unit scans the laser beam in a Z-direction parallel to the optical axis. When acquiring XY-two-dimensional image data by detecting the light while scanning the irradiated position in the X-direction and the Y-direction, the apparatus detects the light while scanning the irradiated position also in the Z-direction.
Abstract translation: 激光扫描显微镜装置包括具有物镜，光电检测器单元，XY扫描单元和Z扫描单元的照射单元。 照射单元将具有物镜的激光束聚焦到样本。 光检测器单元检测从被聚焦的激光束照射的位置产生的光。 XY扫描单元在垂直于物镜的光轴的X方向和垂直于光轴和X方向的Y方向扫描激光束。 Z扫描单元沿平行于光轴的Z方向扫描激光束。 当通过在X方向和Y方向扫描照射位置时检测光来获取XY二维图像数据时，该装置也在沿Z方向扫描照射位置的同时检测光。
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Patent Agency Ranking
206.发明授权Optical analysis device, optical analysis method and computer program for optical analysis using single light-emitting particle detection 有权光学分析装置，光学分析方法和使用单个发光粒子检测的光学分析的计算机程序公开(公告)号：US09423349B2
公开(公告)日：2016-08-23
申请号：US14178442
申请日：2014-02-12
Applicant: OLYMPUS CORPORATION
Inventor： Tetsuya Tanabe , Mitsushiro Yamaguchi
CPC classification number: G01N21/64 , G01N15/14 , G01N15/1429 , G01N15/1434 , G01N21/51 , G01N21/6408 , G01N21/645 , G01N21/6452 , G01N21/6458 , G01N21/6486 , G01N2021/6419 , G01N2021/6441 , G01N2201/103 , G01N2201/105 , G02B21/0032 , G02B21/0076 , G02B21/008
Abstract: In the scanning molecule counting method detecting light of a light-emitting particle in a sample solution using a confocal or multiphoton microscope, there is provided an optical analysis technique enabling the scanning in a sample solution with moving a light detection region in a broader area or along a longer route while making the possibility of detecting the same light-emitting particle as different particles as low as possible and remaining the size or shape of the light detection region unchanged as far as possible. In the inventive optical analysis technique, there are performed detecting light from the light detection region and generating time series light intensity data during moving the light detection region along the second route whose position is moved along the first route, and thereby, the signal indicating light from each light-emitting particle in a predetermined route is individually detected using the time series light intensity data.
Abstract translation: 在使用共聚焦或多光子显微镜检测样品溶液中的发光粒子的光的扫描分子计数方法中，提供了一种光学分析技术，其能够在较宽区域中移动光检测区域的样品溶液中进行扫描，或 沿着较长的路线，同时尽可能地检测与不同粒子相同的发光粒子的可能性，并尽可能地保持光检测区域的尺寸或形状不变。 在本发明的光学分析技术中，在沿着沿第一路线移动位置的第二路径移动光检测区域的同时，进行来自光检测区域的检测光并产生时间序列光强度数据，由此，指示光 使用时间序列光强度数据分别检测来自预定路线中的每个发光粒子。
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207.发明申请公开(公告)号：US20150247808A1
公开(公告)日：2015-09-03
申请号：US14195656
申请日：2014-03-03
Applicant: COHERENT LASERSYSTEMS GMBH & CO. KG
Inventor： Paul VAN DER WILT
CPC classification number: H01L21/67253 , C30B1/02 , C30B29/06 , G01N21/21 , G01N21/4788 , G01N21/8422 , G01N21/8851 , G01N21/9501 , G01N2021/8461 , G01N2021/8477 , G01N2201/06113 , G01N2201/068 , G01N2201/0683 , G01N2201/0697 , G01N2201/10 , G01N2201/105 , G02B21/002 , G02B21/0092 , H01L21/02532 , H01L21/02686 , H01L21/268 , H01L22/12
Abstract: A method is disclosed evaluating a silicon layer crystallized by irradiation with pulses form an excimer-laser. The crystallization produces periodic features on the crystalized layer dependent on the number of and energy density ED in the pulses to which the layer has been exposed. An area of the layer is illuminated with light. A microscope image of the illuminated area is made from light diffracted from the illuminated are by the periodic features. The microscope image includes corresponding periodic features. The ED is determined from a measure of the contrast of the periodic features in the microscope image.
Abstract translation: 公开了评估通过用脉冲照射形成准分子激光而结晶的硅层的方法。 结晶层上产生周期性特征，取决于层暴露于的脉冲中的数量和能量密度。 该层的一个区域用光照亮。 照明区域的显微镜图像由从被照明的周期特征衍射的光制成。 显微镜图像包括相应的周期特征。 ED是从显微镜图像中的周期特征的对比度的量度确定的。
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公开(公告)号：US09103800B2
公开(公告)日：2015-08-11
申请号：US13953644
申请日：2013-07-29
Applicant: KLA-Tencor Corporation
Inventor： Richard E. Bills , Neil Judell , Timothy R. Tiemeyer , James P. McNiven
CPC classification number: G01N21/9501 , G01N21/21 , G01N21/47 , G01N21/4738 , G01N21/474 , G01N21/55 , G01N21/88 , G01N21/8806 , G01N21/95 , G01N21/956 , G01N2021/4707 , G01N2021/4711 , G01N2021/4792 , G01N2021/556 , G01N2021/8809 , G01N2021/8848 , G01N2021/8864 , G01N2021/8877 , G01N2021/8896 , G01N2201/0612 , G01N2201/105 , G06T7/0004 , G06T2207/30148 , Y10T29/49826
Abstract: A method for inspecting a surface of a workpiece for asymmetric defects, by scanning an incident beam on the surface of the workpiece to impinge thereon to create reflected light extending along a light channel axis in a front quartersphere and scattered light, the incident beam and the light channel axis defining an incident plane, collecting the scattered light at a plurality of collectors disposed above the surface at defined locations such that scatter from asymmetric defects is collectable by at least one collector, detecting collector output and generating signals in response, and processing the signals associated with each collector individually to obtain information about asymmetric defects.
Abstract translation: 一种用于通过扫描工件表面上的入射光束以撞击在其上以产生沿着前四分之一圆周和散射光中的光通道轴延伸的反射光来检查工件的表面的非对称缺陷的方法，入射光束和 光通道轴限定入射平面，在设置在表面上的多个收集器处收集散射光，所述收集器在限定的位置处，使得来自不对称缺陷的散射可由至少一个收集器收集，检测收集器输出并响应于产生信号，并且处理 分别与每个收集器相关联的信号以获得关于非对称缺陷的信息。
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209.发明申请METHOD AND APPARATUS FOR DETECTING A TRENCH CREATED IN A THIN FILM SOLAR CELL 有权用于检测在薄膜太阳能电池中产生的TRENCH的方法和装置公开(公告)号：US20150185162A1
公开(公告)日：2015-07-02
申请号：US14555190
申请日：2014-11-26
Applicant: MITSUBOSHI DIAMOND INDUSTRIAL CO., LTD.
Inventor： Ryogo HORII
CPC classification number: G01N21/8422 , G01N21/9505 , G01N2201/105 , H01L31/0463 , Y02E10/50 , Y02E10/541
Abstract: A method and an apparatus for precisely detecting a trench S in a product W to become a thin film solar cell are provided. In the product W, a lower electrode layer 12, in which the trench S is created, and light absorbing layers 13 and 14 are layered on a substrate 11 in this order. The method includes the steps of: detecting infrared rays for imaging, of which the wavelengths are in such a range that can transmit through the light absorbing layers 13 and 14 and which are irradiated from the product W, by means of an infrared ray imaging apparatus 16 that is provided above the light absorbing layers 13 and 14 so that image data for radiation intensity distribution can be taken; and detecting the trench S in the lower electrode layer 12 on the basis of this image data for radiation intensity distribution.
Abstract translation: 提供了一种用于精确检测产品W中的沟槽S以成为薄膜太阳能电池的方法和装置。 在产品W中，产生沟槽S的下电极层12和光吸收层13和14依次层叠在基板11上。 该方法包括以下步骤：通过红外线成像装置检测波长处于可透过光吸收层13和14并从产品W照射的范围内的成像用红外线 16，其设置在光吸收层13和14的上方，使得可以拍摄用于辐射强度分布的图像数据; 并且根据该用于辐射强度分布的图像数据检测下电极层12中的沟槽S.
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公开(公告)号：US20150070696A1
公开(公告)日：2015-03-12
申请号：US14490129
申请日：2014-09-18
Applicant: University of Notre Dame du Lac
Inventor： Steven Ruggiero , Carol Tanner
CPC classification number: G01N15/0205 , G01N21/00 , G01N21/31 , G01N21/39 , G01N21/4785 , G01N21/51 , G01N21/59 , G01N2015/0294 , G01N2021/4707 , G01N2201/06113 , G01N2201/105 , G02B21/0096 , G02B21/18
Abstract: An apparatus for obtaining suspended particle information includes an optical array to divide light to a first path and a second path, a platform to orient a first and second container with either the first or second path, and a first and second photodetector to receive at least a direct illuminating component of the light of the first and second path after said light penetrates through the first and second container. A detector interface receives transmission signals from the first and second photodetectors of the direct illuminating component of the light after penetrating through the first and second container and a calculation engine computes the particle information based on a ratio of the received transmission signals.
Abstract translation: 一种用于获得悬浮粒子信息的装置包括：将光分成第一路径和第二路径的光学阵列，用于使具有第一或第二路径的第一和第二容器定向的平台，以及第一和第二光电检测器，以至少接收 在所述光穿过第一和第二容器之后第一和第二路径的光的直接照明分量。 检测器接口在穿透第一和第二容器之后接收来自光的直接照明部件的第一和第二光电检测器的传输信号，并且计算引擎基于所接收的传输信号的比率来计算粒子信息。
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