公开(公告)号：JP2013541711A

公开(公告)日：2013-11-14

申请号：JP2013529354

申请日：2011-09-16

Applicant: アッヴィ・インコーポレイテッド

Inventor： ラマスブラマニアン，ナタラジヤン ,  マルムバーグ，リーホン ,  スターンマン，マーテイン

IPC: G01N21/65 ,  G01N33/483

CPC classification number: G01N21/65 ,  G01N33/6848 ,  G01N33/6854 ,  G01N2201/13

Abstract: 公知の成分の既定量を含む多成分混合物標準物を提供するステップ、多成分混合物標準物に対してラマン分光分析を実施するステップ、バイオプロセス操作から多成分試験混合物を提供するステップ、多成分試験混合物に対してラマン分光分析を実施するステップおよび多成分試験混合物を特徴付けるために多成分混合物標準物と多成分試験混合物の分析を比較するステップを含む、バイオプロセス操作において使用するための多成分混合物を特徴付ける方法。 一実施形態では、多成分混合物標準物および多成分試験混合物はいずれも多糖（例えば、スクロースまたはマンニトール）、アミノ酸（例えば、Ｌ−アルギニン、Ｌ−ヒスチジンまたはＬ−オルニチン）、界面活性剤（例えば、ポリソルベート８０）およびｐＨ緩衝液（例えば、クエン酸塩製剤）の１種以上、少なくとも２種、少なくとも３種、またはそれぞれを含む。

公开(公告)号：US12016654B2

公开(公告)日：2024-06-25

申请号：US17112150

申请日：2020-12-04

Applicant: SAMSUNG ELECTRONICS CO., LTD.

Inventor： Sangkyu Kim ,  Kunsun Eom ,  Myounghoon Jung

IPC: G01N21/64 ,  A61B5/00 ,  G01N21/25 ,  G01N21/31 ,  G01N21/55 ,  G01N21/59 ,  G01N33/483 ,  G01N21/359 ,  G02B26/00 ,  G02B26/02 ,  G02B26/08

CPC classification number: A61B5/0075 ,  A61B5/0071 ,  G01N21/255 ,  G01N21/31 ,  G01N21/55 ,  G01N21/59 ,  G01N21/6428 ,  G01N21/645 ,  G01N33/483 ,  G01N21/359 ,  G01N2021/6471 ,  G01N2201/0221 ,  G01N2201/066 ,  G01N2201/067 ,  G01N2201/13 ,  G02B26/005 ,  G02B26/026 ,  G02B26/08

Abstract: An optical sensor and a method of operating the optical sensor are provided. The optical sensor includes a light source configured to emit a light, and a path adjuster configured to adjust a traveling path of the light to reflect the light at a first time, and allow the light to pass through the path adjuster at a second time. The optical sensor further includes a light receiver configured to receive a reference light among the reflected light, and receive, among the light passing through the path adjuster, a measurement light related to a target material.

公开(公告)号：US11867631B2

公开(公告)日：2024-01-09

申请号：US17527828

申请日：2021-11-16

Applicant: OndaVia, Inc.

Inventor： Mark C. Peterman ,  Merwan Benhabib ,  Samuel Kleinman

IPC: G01N21/65 ,  G01N21/47 ,  G01N21/63 ,  G01N21/66 ,  G01N33/18 ,  G01J3/02 ,  G01J3/18 ,  G01J3/44 ,  B01L3/00 ,  G01N27/447 ,  G01N30/60 ,  G01N21/49 ,  G01N21/68 ,  G01N21/27 ,  G01N30/00 ,  G01J3/28

CPC classification number: G01N21/65 ,  B01L3/502715 ,  B01L3/502761 ,  G01J3/02 ,  G01J3/0256 ,  G01J3/0291 ,  G01J3/18 ,  G01J3/44 ,  G01J3/4412 ,  G01N21/276 ,  G01N21/47 ,  G01N21/4785 ,  G01N21/49 ,  G01N21/63 ,  G01N21/658 ,  G01N21/66 ,  G01N21/68 ,  G01N27/44704 ,  G01N27/44791 ,  G01N30/6095 ,  G01N33/18 ,  B01L2200/04 ,  B01L2200/0652 ,  B01L2200/12 ,  B01L2300/0627 ,  B01L2300/0636 ,  B01L2300/0654 ,  B01L2300/0681 ,  B01L2300/087 ,  B01L2300/0867 ,  B01L2400/0418 ,  B01L2400/0421 ,  G01J2003/2866 ,  G01J2003/2879 ,  G01N30/6065 ,  G01N2021/651 ,  G01N2021/656 ,  G01N2030/0095 ,  G01N2201/0221 ,  G01N2201/13

Abstract: A hand-held microfluidic testing device is provided that includes a housing having a cartridge receiving port, a cartridge for input to the cartridge receiving port having a sample input and a channel, where the channel includes a mixture of Raman-scattering nanoparticles and a calibration solution, where the calibration solution includes chemical compounds capable of interacting with a sample under test input to the cartridge and the Raman-scattering nanoparticles, and an optical detection system in the housing, where the optical detection system is capable of providing an illuminated electric field, where the illuminating electric field is capable of being used for Raman spectroscopy with the Raman-scattering nanoparticles and the calibration solution to analyze the sample under test input to the cartridge.

公开(公告)号：US20180059022A1

公开(公告)日：2018-03-01

申请号：US15693380

申请日：2017-08-31

Applicant: PetroChina Company Limited

Inventor： Hua Tian ,  Keyu Liu ,  Xuesong Lu ,  Junjia Fan ,  Xiuli Li ,  Mengjun Zhao ,  Qingong Zhuo ,  Yanjie Gong

IPC: G01N21/64 ,  G01N33/24

CPC classification number: G01N21/64 ,  G01N33/241 ,  G01N2021/6417 ,  G01N2021/6421 ,  G01N2201/13

Abstract: The invention provides a method for determining oil contents in rocks. The method comprises steps of: measuring a plurality of calibration oil samples having different oil contents, and acquiring a holographic fluorescence spectral intensity corresponding to the calibration oil samples; acquiring a fit relation between the holographic fluorescence spectral intensity and the oil contents of the calibration oil, according to the oil contents of the plurality of calibration oil samples and a plurality of three-dimensional fluorescence spectral intensities corresponding thereto; adding a certain amount of the calibration oil after dilution to rocks to be measured, acquiring a sample of the rocks to be measured and performing a holographic fluorescence measurement of the rock sample to be measured; and introducing the holographic fluorescence spectral intensity of the rock sample to be measured to the fit relation, thus an oil content of the rock sample to be measured is obtained. Accordingly, oil is detectable together with an organic solvent without volatilization of the organic solvent, which not only saves time, but also address a low-detection-limit problem for oil content resulting from volatilization of oil when the organic solvent is volatilized in the conventional method.

公开(公告)号：US09709499B1

公开(公告)日：2017-07-18

申请号：US14484870

申请日：2014-09-12

Applicant: Jimmy W. Crafton ,  Robert A. Forlines ,  Larry P. Goss ,  Stephen J. Palluconi ,  Jessica R. Webb ,  Nikolay Rogoshchenkov ,  Grant R. McMillan

Inventor： Jimmy W. Crafton ,  Robert A. Forlines ,  Larry P. Goss ,  Stephen J. Palluconi ,  Jessica R. Webb ,  Nikolay Rogoshchenkov ,  Grant R. McMillan

IPC: G01N21/64

CPC classification number: G01N21/643 ,  G01N21/6408 ,  G01N2021/6432 ,  G01N2201/0627 ,  G01N2201/13

Abstract: An oxygen number density or concentration sensor including a sampling luminescent oxygen probe located in a fluid environment, and a gas impermeable enclosure located in the fluid environment and a reference luminescent oxygen probe located within the gas impermeable enclosure, wherein the sampling and reference luminescent oxygen probes are formed by an ideal PSP. A predetermined fixed oxygen number density or concentration is provided within a medium contained in the gas impermeable enclosure. A detector receives signals corresponding to luminescent emissions of the sampling and reference probes. A processor determines a number density or concentration of oxygen in the fluid environment from a signal generated at the sampling probe with reference to an oxygen number density or concentration dependent signal generated at the reference probe.

公开(公告)号：US09658102B2

公开(公告)日：2017-05-23

申请号：US15036962

申请日：2014-11-12

Applicant: Trojan Technologies

Inventor： Mark Adrian Kustermans ,  Michael Sasges ,  Ankit Patras ,  Trisevgeni Trissa Kantzas

IPC: G01N21/01 ,  G01N21/64 ,  G01N33/483 ,  C02F1/32 ,  G01J1/58 ,  A61L2/10 ,  G01J1/42 ,  G01N33/15 ,  G01N33/49 ,  C02F1/00 ,  A61L2/00

CPC classification number: G01J1/58 ,  A61L2/0005 ,  A61L2/0047 ,  A61L2/10 ,  A61L2202/11 ,  C02F1/008 ,  C02F1/32 ,  G01J1/429 ,  G01N21/64 ,  G01N33/15 ,  G01N33/4833 ,  G01N33/49 ,  G01N2201/13

Abstract: There is described a method of determining the UV fluence received by a fluid. The method comprises the steps of: (a) irradiating the fluid at an unknown UV fluence; (b) measuring the fluorescence of a test sample of the fluid after irradiation in Step (a) to produce a test signal proportional to the concentration of a prescribed fluorescent composition of matter comprised in the test sample; and (c) determining the value of the unknown UV fluence by comparing the test signal to a calibration curve of a control signal proportional to concentration of the prescribed fluorescent composition of matter in the fluid as a function of applied UV fluence. There is also described a system for determining the UV fluence received by a fluid being treated in UV fluid treatment system comprising at least one UV source. The system comprises: (a) a radiation-transparent vessel for receiving a test sample of the fluid after irradiation of the fluid at an unknown UV fluence; (b) a fluorometer for measuring the fluorescence of the test sample received in the radiation-transparent vessel to produce a test signal proportional to the concentration of a prescribed fluorescent composition of matter comprised in the test sample; and (c) a controller configured to determine the value of the unknown UV fluence by comparing the test signal to a calibration curve of a control signal proportional to concentration of the prescribed fluorescent composition of matter in the fluid as a function of applied UV fluence.

公开(公告)号：US20170030879A1

公开(公告)日：2017-02-02

申请号：US15228363

申请日：2016-08-04

Applicant: CHANGCHUN JILIN UNIVERSITY LITTLE SWAN INSTRUMENTS CO., LTD

Inventor： Aimin YU ,  Zhende WANG

IPC: G01N33/03 ,  G01N1/28 ,  G01N21/27

CPC classification number: G01N33/03 ,  G01J3/28 ,  G01N1/28 ,  G01N21/27 ,  G01N2021/1748 ,  G01N2201/062 ,  G01N2201/13

Abstract: The present invention provides an adulterated peanut oil detector and an adulterated peanut oil detection method, and pertains to the technical domain of product analysis. The detector comprises a casing, a LCD and Return key, Enter key, Up key, Down key, a power switch, a power socket, and a USB interface arranged on the casing, and a microprocessor and a power supply unit mounted in the casing and electrically connected to the components on the casing, wherein, a module cover is arranged on the top surface of the casing, and a pretreatment module and a detection module are mounted in the space under the module cover. The pretreatment module comprises a heating body and cuvette slots, and the detection module comprises an axial fan, a radiating plate, a refrigerating plate, and cuvette slots. The detection method comprises sample preheating procedure and slow refrigeration procedure. The detector and method provided in the present invention can quickly and easily detect whether the peanut oil sample is adulterated and the percentage of adulteration, and is applicable to quick on-spot detection of rapeseed oil, sunflower oil, maize oil, cotton oil, palm oil, and soybean oil, etc. admixed in peanut oil.

公开(公告)号：US20160266042A1

公开(公告)日：2016-09-15

申请号：US15031452

申请日：2014-10-24

Applicant: PHARMACOPHOTONICS, INC. D/B/A FAST BIOMEDICAL

Inventor： Ruben Sandoval, Jr. ,  Erinn Sheridan ,  Daniel Meier

IPC: G01N21/64 ,  A61M5/00

CPC classification number: G01N21/6428 ,  A61K49/0041 ,  A61K49/0054 ,  A61M5/007 ,  G01N2021/6417 ,  G01N2021/6439 ,  G01N2201/13

Abstract: Compositions and methods for increasing fluorescent signals generated by biomarkers are described. This serves to increase the accuracy of results when the biomarkers are used for the detection and diagnosis of physiological conditions, such as organ function and plasma volume.

Abstract translation: 描述了用于增加由生物标志物产生的荧光信号的组合物和方法。 这用于当生物标志物用于检测和诊断生理条件（例如器官功能和血浆体积）时提高结果的准确性。

公开(公告)号：US20160153901A1

公开(公告)日：2016-06-02

申请号：US14900595

申请日：2014-06-18

Applicant: CANON KABUSHIKI KAISHA

Inventor： Tomohiro Sugimoto

IPC: G01N21/45 ,  G01M11/02

CPC classification number: G01N21/45 ,  G01M11/0228 ,  G01N2201/13

Abstract: The refractive index of a test object is measured with high precision.The present invention relates to a method for measuring a refractive index of a test object by splitting light from a light source into test light and reference light and measuring interference light resulting from interference between the reference light and the test light transmitted through the test object. In the method, the test object is arranged in a medium whose group refractive index is equal to a group refractive index of the test object at a particular wavelength, interference light is measured, the particular wavelength is determined based on a wavelength dependence of a phase difference between the test light and the reference light, and the group refractive index of the medium corresponding to the particular wavelength is calculated as the group refractive index of the test object corresponding to the particular wavelength.

Abstract translation: 以高精度测量被测物的折射率。 本发明涉及一种通过将来自光源的光分解为测试光和参考光并测量由参考光与通过测试对象透射的测试光之间的干扰而产生的干涉光来测量被测物体的折射率的方法。 在该方法中，测试对象被布置在其特定波长的组折射率等于测试对象的组折射率的介质中，测量干涉光，特定波长基于相位的波长依赖性来确定 将测试光与参考光之间的差异以及对应于特定波长的介质的组折射率计算为对应于特定波长的测试对象的组折射率。

公开(公告)号：US20150055134A1

公开(公告)日：2015-02-26

申请号：US14376324

申请日：2013-02-04

Applicant: University of Cincinnati ,  United States of America as Represented by the Secretary of the Air Force

Inventor： Ian Papautsky ,  Li Shen ,  Rajesh Naik ,  Joshua Hagen ,  Morley Stone

IPC: G01N21/25 ,  G01N21/27 ,  G01J3/46 ,  G01N21/78

CPC classification number: G01N21/25 ,  G01J3/46 ,  G01N21/278 ,  G01N21/293 ,  G01N21/78 ,  G01N2201/061 ,  G01N2201/127 ,  G01N2201/13

Abstract: Described herein is a method, system and computer program for analyzing a colorimetric assay that includes obtaining an image of the assay, optionally correcting for ambient lighting conditions in the image, converting the intensity data for at least one of the red channel, the green channel, or the blue channel to a first data point, recalling a predetermined standardized curve, comparing the first data point with the standardized curve, and identifying the value for the assay parameter from the standardized curve.

Abstract translation: 本文描述了一种用于分析比色测定法的方法，系统和计算机程序，其包括获得测定图像，可选地校正图像中的环境光照条件，转换红色通道，绿色通道中的至少一个的强度数据 或蓝色通道移动到第一数据点，回忆预定的标准化曲线，将第一数据点与标准化曲线进行比较，并从标准化曲线识别测定参数的值。