公开(公告)号：WO2021053410A1

公开(公告)日：2021-03-25

申请号：PCT/IB2020/056597

申请日：2020-07-14

Applicant: AMG TECHNOLOGY LTD

Inventor： STAVROV, Vladimir

IPC: G01F1/66 ,  G01K11/22 ,  G01N29/02 ,  G01N29/036 ,  G01N29/22 ,  G01N29/24 ,  G01N29/34

Abstract: The invention relates to a device for simultaneous determining the physical parameters, chemical composition and concentrations of the components of a gas flow and will find application in industry and everyday life, e.g. in HVAC systems to determine air quality or monitor other gas mixtures. By means of the device of the invention, more efficient monitoring of gases is carried out and comfort and safety are ensured. The device (1) consists of a body (3) in which a measuring chamber (11) is formed in which the sensors (12) are placed, having microcantilevers (13) with particular selectivity and sensitivity. It contains means for said simultaneous determination, each of which comprises selected microcantilevers (13) and at least one actuating element (14, 17), arranged in the common measuring chamber (11).

公开(公告)号：WO2014172818A1

公开(公告)日：2014-10-30

申请号：PCT/CN2013/001401

申请日：2013-11-18

Applicant: 国家电网公司 ,  山东电力研究院

Inventor： 董信光 ,  胡志宏 ,  郝卫东 ,  刘福国 ,  杨兴森

IPC: F23N5/00 ,  G01K11/22

CPC classification number: F23N5/00 ,  F23N2025/08 ,  G01K11/24 ,  Y02T50/677

Abstract: 一种基于声波测量炉膛温度场的燃烧优化控制系统及控制方法，包括数据采集装置（10）、数据处理装置（12）、运行方式选择模块（11）、执行指令输出模块（13），数据处理装置（12）封装有煤质处理模块（1）、吹灰方式处理模块（2）、辅助风配风方式处理模块（3）、炉膛温度场数据处理模块（4）、炉膛温度场调匀模块（5）、锅炉辅机运行方式处理模块（6）、锅炉磨煤机投运方式处理模块（7）；执行指令输出模块（13）包括氧量调整模块（8）和炉膛温度调整模块（9）。该系统利用准确测量的炉膛温度场构建一个自动调节燃烧的系统，提高了锅炉的燃烧效率。

公开(公告)号：WO2014015577A1

公开(公告)日：2014-01-30

申请号：PCT/CN2012/084452

申请日：2012-11-12

Applicant: 上海赛赫信息科技有限公司 ,  郑启洪 ,  李泽晨

Inventor： 郑启洪 ,  李泽晨

IPC: G01N29/036 ,  G01K11/22 ,  G01K7/32

CPC classification number: G01K11/265 ,  G01N29/022 ,  G01N29/036 ,  G01N29/2462 ,  G01N29/2481 ,  G01N29/30 ,  G01N2291/02845 ,  G01N2291/02881 ,  G01N2291/0423

Abstract: 一种无线温度湿度传感器（100），包括基底（106）、馈电网络（105）、天线（104）、以及声表面波振荡器（101，102，103）。其中：声表面波振荡器（101，102，103）通过天线经由馈电网络（105）馈电；声表面波振荡器（101，102，103）包括基准振荡器（102）和测量振荡器（101，103）；且基准振荡器（102）和测量振荡器（101，103）之间的谐振频率差值被用以编码待测温度和/或湿度。本发明还包括一种无线温度湿度传感器系统和采用上述无线温度湿度传感器测量温度和/或湿度的方法。该系统可同时监测温度和湿度，可选择性地监测湿度或温度。此外，传感器随材料及连接件老化发生的谐振频率漂移在差分编码中被有效抑制，从而提高测量的长期稳定性并避免在使用过程中校准。

公开(公告)号：WO2013179202A2

公开(公告)日：2013-12-05

申请号：PCT/IB2013054361

申请日：2013-05-27

Applicant: KONINKL PHILIPS NV

Inventor： SIMONS PAUL RICHARD ,  PITCHERS STEPHEN MICHAEL ,  CHIAU CHOO CHIAP ,  AARTS RONALDUS MARIA ,  LAMB WILLIAM JOHN ,  OUWELTJES OKKE

IPC: G01N29/02 ,  F24F11/00 ,  G01K11/22 ,  G01N29/46 ,  G01W1/02

CPC classification number: G01W1/02 ,  G01K11/22 ,  G01N29/02 ,  G01N29/46 ,  G01N2291/0215 ,  G01N2291/048

Abstract: Properties of the air such as temperature, pressure, humidity and air flow can modify the propagation pathway of an acoustic signal. By making acoustic measurements of a known acoustic path it is possible to estimate at least one of the temperature, the pressure, the humidity and the air flow using perturbations present in the measured signal. Moreover, by combining data from several acoustic pathways topographical reconstruction of profiles of at least one of the temperature, the pressure, the humidity and air flow can be obtained. Profiling these data over an extended volume such as an office or green house is particularly important for local control.

Abstract translation: 空气的性质如温度，压力，湿度和空气流量可以改变声信号的传播路径。 通过对已知声学路径进行声学测量，可以使用测量信号中存在的扰动来估计温度，压力，湿度和空气流中的至少一个。 此外，通过组合来自多个声学路径的数据，可以获得温度，压力，湿度和空气流中的至少一个的轮廓的形貌重建。 在诸如办公室或温室之类的扩展卷上分析这些数据对于本地控制特别重要。

公开(公告)号：WO2012110588A1

公开(公告)日：2012-08-23

申请号：PCT/EP2012/052665

申请日：2012-02-16

Applicant: TECHNI AS ,  BORGEN, Harald ,  PETERSEN, David, Christian ,  SCHMEDLING, Petter, F. ,  BORNSTEIN, Marius ,  SJULSTAD, Trond ,  KARLSEN, Morten, Roll ,  TARANRØD, Andreas, Bjerknes ,  BENDIKSEN, Jan, Martin ,  BRANDSÆTER, Tor, Helge

Inventor： BORGEN, Harald ,  PETERSEN, David, Christian ,  SCHMEDLING, Petter, F. ,  BORNSTEIN, Marius ,  SJULSTAD, Trond ,  KARLSEN, Morten, Roll ,  TARANRØD, Andreas, Bjerknes ,  BENDIKSEN, Jan, Martin ,  BRANDSÆTER, Tor, Helge

IPC: G01N29/024 ,  G01N29/036 ,  G01N29/32 ,  G01K11/22

CPC classification number: G01N29/024 ,  G01K11/22 ,  G01L11/06 ,  G01L19/0092 ,  G01N29/036 ,  G01N29/323 ,  G01N29/326 ,  G01N2291/02872 ,  G01N2291/02881

Abstract: The present invention relates to system for measuring pressure and temperature based on change in the characteristic properties of a medium for ultrasound under the effect of pressure and temperature. The invention is based on two waveguides where geometry is adapted to the medium's characteristic properties for ultrasound such that only planar pressure waves are generated in the waveguides. The first of the waveguides is arranged for measuring temperature due to thermal expansion of the medium, where the medium is pressure-compensated by means of an internal compensator to prevent thermal pressure accumulation, and where measuring temperature is based on the medium's specific known characteristic data for ultrasound under the effect of temperature under constant pressure. The second waveguide is arranged for measuring pressure, based on waveguide and the medium's known characteristic properties for thermal expansion and pressure, and where the thermal effect is corrected analytically based on measurement of temperature in the first channel. The physical principle of the invention is based on the properties of a medium (oil) where the stability for high temperature and pressure is crucial for long-term properties. Long-term properties of ultrasound sensors are not physically linked to the medium's properties, such that change in characteristic properties of ultrasound sensors does not impair the accuracy of the medium unless the function of the ultrasound sensors ceases. The physical principle of the invention allows an arrangement where ultrasound sensors can be separated from measuring channels by a pressure barrier, such that the integrity of the pressure barrier is not broken.

Abstract translation: 本发明涉及一种在压力和温度的作用下，根据超声波介质特性的变化来测量压力和温度的系统。 本发明基于两个波导，其中几何适应于介质的超声特性，使得仅在波导中产生平面压力波。 波导中的第一个布置用于通过介质的热膨胀来测量温度，其中介质通过内部补偿器进行压力补偿以防止热压积聚，并且其中测量温度基于介质的特定已知特征数据 用于超声波在恒压下的温度影响。 第二波导布置用于基于波导和介质已知的热膨胀和压力特性来测量压力，并且其中基于第一通道中的温度测量分析校正热效应。 本发明的物理原理基于介质（油）的性质，其中高温和高压的稳定性对于长期性能是至关重要的。 超声波传感器的长期性能与物理性质无关，因此超声波传感器的特性变化不会影响介质的精度，除非超声波传感器的功能停止。 本发明的物理原理允许超声波传感器可以通过压力屏障从测量通道分离的布置，使得压力屏障的完整性不会破裂。

公开(公告)号：WO03095941A2

公开(公告)日：2003-11-20

申请号：PCT/US0313129

申请日：2003-04-28

Applicant: LOCKHEED CORP ,  DRAKE THOMAS E

Inventor： DRAKE THOMAS E

IPC: G01B9/02 ,  G01B11/16 ,  G01B17/02 ,  G01D5/26 ,  G01K11/22 ,  G01K11/26 ,  G01N21/17 ,  G01N29/06 ,  G01N29/11 ,  G01N29/24 ,  G01N29/32 ,  G01N29/44 ,  G01N29/50 ,  G01N33/34 ,  G05D23/27

CPC classification number: G01N21/1702 ,  G01B9/02 ,  G01B11/161 ,  G01B17/02 ,  G01D5/266 ,  G01K11/22 ,  G01K11/26 ,  G01N29/0618 ,  G01N29/11 ,  G01N29/2418 ,  G01N29/326 ,  G01N29/50 ,  G01N33/346 ,  G01N2021/1706 ,  G01N2291/0231 ,  G01N2291/0237 ,  G01N2291/02827 ,  G01N2291/02854 ,  G01N2291/02881 ,  G01N2291/0426 ,  G01N2291/044 ,  G01N2291/2634 ,  G05D23/1917 ,  G05D23/27

Abstract: The invention is directed to a system and method for implementing process control for tubing thickness using sonic NDE techniques. The system may, for example, generate ultrasound waves in a test object during the manufacturing process. A detector such as an interferometer may be used to detect the ultrasound waves. An interpreter or analyzer may determine the tubing or sheet thickness from the waves. Then, a control system may determine and implement an appropriate control action on the process.

Abstract translation: 本发明涉及一种使用声波NDE技术实现管道厚度的过程控制的系统和方法。 该系统可以例如在制造过程期间在测试对象中产生超声波。 可以使用诸如干涉仪的检测器来检测超声波。 解释器或分析器可以从波浪确定管道或片材厚度。 然后，控制系统可以确定并实现对该过程的适当的控制动作。

公开(公告)号：WO00067013A1

公开(公告)日：2000-11-09

申请号：PCT/IL2000/000241

申请日：2000-04-27

IPC: G01K11/22 ,  A61B5/08 ,  A61B5/11 ,  A61B8/00 ,  G01B21/02 ,  G01F1/66 ,  G01K11/26 ,  G01N22/00 ,  G01N29/00 ,  G01N29/02 ,  G01N29/024 ,  G01N29/34 ,  G01S15/08 ,  G01N29/18

CPC classification number: A61B5/0507 ,  G01B21/02 ,  G01F1/667 ,  G01K11/22 ,  G01K11/26 ,  G01N29/024 ,  G01N29/348 ,  G01N2291/02836 ,  G01N2291/02881 ,  G01N2291/102

Abstract: A method and apparatus for measuring a predetermined parameter having a known relation to the transit time of movement of an energy wave through a medium by: transmitting from a first location (A) in the medium a cyclically-repeating energy wave (e.g., an acoustical wave, or electromagnetic wave); receiving the wave at a second location (B) in the medium; detecting a predetermined fiducial point in the wave received at the second location (B) continuously changing the frequency of transmission of the wave from the first location (A) to the second location (B) in accordance with the detected fiducial point of each wave received at the second location (B) such that the number of waves received at the second location (B) from the first location (A) is a whole integer; and utilizing the change in frequency to produce a measurement of the predetermined parameter.

Abstract translation: 一种用于测量具有已知关系的预定参数的方法和装置，所述预定参数具有与通过介质的能量波移动的传播时间的已知关系：从介质中的第一位置（A）传送循环重复的能量波（例如，声学 波或电磁波）; 在介质中的第二位置（B）接收波; 检测在第二位置（B）处接收的波中的预定基准点，根据检测到的接收的每个波的基准点将波的传输频率从第一位置（A）连续地改变到第二位置（B） 在所述第二位置（B）处使得从所述第一位置（A）在所述第二位置（B）接收的波数为整数; 并利用频率变化来产生预定参数的测量值。

公开(公告)号：WO1996013144A2

公开(公告)日：1996-05-09

申请号：PCT/AU1995000726

申请日：1995-10-30

Applicant: BENKENDORF, Rudiger ,  BENKENDORF, Rita

IPC: G01K11/22 ,  G01W1/00

CPC classification number: G01K11/22 ,  G01W1/00

Abstract: This invention is for a method and apparatus for determining the presence of thermal activity (13) in a volume of atmosphere (12), and has particular application in enabling and prolonging the flight of unpowered aircraft (16) and model aircraft such as gliders and hang-gliders. This is accomplished by using a suitable antenna (10) at ground level (11) and transmitting substantially vertically into the atmosphere a plurality of acoustical pulses of between 100 to 200 milliseconds duration at a frequency of about 6 kHz, each pulse separated by up to several seconds. The back-scattered signals which are primarily caused by thermal activity are received by a suitable receiver, and by use of appropriate circuitry or microprocessor the signals are analysed first by measuring the amplitude, then digitising the signals according to a threshold value, and finally integrating the signals over a number of received times so as to provide a cumulative signal, or scan, which then provides an indication of the thermal activity within the volume of air that back-scattered the signals. Over a number of scans, the history and the evolution of the thermal activity of the air being sampled is therefore provided. The apparatus may be positioned on the ground (11) or on an aircraft (16) and may also be located at remote locations and to provide information by appropriate communications. The method and apparatus thus enable a pilot (17) to utilise the existence of any thermals (13) that will enable them to prolong or improve their flight by steering the craft into the volume (12).

Abstract translation: 本发明是用于确定大气中的热活性（13）的存在的方法和装置（12），并且具有特别的应用，用于实现和延长无动力飞机（16）和模型飞机的飞行，例如滑翔机和 悬挂式滑翔机。 这通过在地平面（11）处使用合适的天线（10）并且以大约6kHz的频率基本上垂直地传播到大气中的100至200毫秒持续时间的多个声学脉冲来实现，每个脉冲被分开直到 几秒钟。 主要由热活动引起的反向散射信号由合适的接收机接收，并且通过使用适当的电路或微处理器，首先通过测量振幅来分析信号，然后根据阈值对信号进行数字化，并最终积分 在多个接收时间的信号，以便提供累积信号或扫描，其然后提供反向散射信号的空气体积内的热活性的指示。 在多次扫描中，提供了正在采样的空气的热活动的历史和演变。 该设备可以位于地面（11）上或飞机（16）上，并且还可以位于远程位置并且通过适当的通信来提供信息。 因此，该方法和装置使得驾驶员（17）能够利用任何热量（13）的存在，这将使得它们能够通过将工艺转向体积（12）来延长或改善其飞行。

公开(公告)号：WO1989007753A1

公开(公告)日：1989-08-24

申请号：PCT/CH1989000029

申请日：1989-02-17

Applicant: KOCH HIGH TECH AG ,  OEHLER, Oscar ,  MELCHIOR, Hans

Inventor： KOCH HIGH TECH AG

IPC: G01K11/22

CPC classification number: G01N29/024 ,  G01K11/22 ,  G01N25/482 ,  G01N29/326 ,  G01N2291/011 ,  G01N2291/012 ,  G01N2291/015 ,  G01N2291/02881

Abstract: Process and device for photothermal and/or calorimetric analysis of gaseous, liquid and solid test material (24), by detuning an ultrasonic resonator (1). Said resonator comprises a mutually opposed ultrasonic emitter (2) and ultrasonic receiver (3). The signal whose amplitude or phase relation are analysed by the analyser (5) provides information concerning thermal variations in the ultrasonic resonator designed as a gas cell or calorimeter, based on the temperature-dependent velocity of sound. The device discloseed is suitable for detecting gases and for calorimetric analysis of test materials in particular light-conducting elements (50) such as optical fibres.

Abstract translation: 通过使超声波谐振器（1）失谐来对气态，液态和固体测试材料（24）进行光热和/或热量分析的方法和装置。 所述谐振器包括相互相对的超声波发射器（2）和超声波接收器（3）。 振幅或相位关系由分析仪（5）分析的信号提供了基于温度依赖的声速设计为气体电池或量热计的超声波谐振器中的热变化的信息。 所公开的装置适用于检测特定导光元件（50）如光纤的测试材料的气体和量热分析。

公开(公告)号：WO2019099806A1

公开(公告)日：2019-05-23

申请号：PCT/US2018/061489

申请日：2018-11-16

Applicant: THE COCA-COLA COMPANY

Inventor： IZENSON, Michael G. ,  WILBUR, Jed C. ,  PHILLIPS, Scott D. ,  MAGARI, Patrick J.

IPC: G01K11/22 ,  G01K15/00

CPC classification number: G01K11/24 ,  G01K2207/04

Abstract: A non-invasive temperature measurement system comprises an ultrasound transducer configured to emit an ultrasound stimulus pulse toward a product package. An ultrasound receiver is configured to generate a reflected ultrasound waveform from electrical signals that represent physical characteristics of a plurality of reflected ultrasound pulses from a plurality of surfaces of the product package. A first reflected ultrasound pulse is from a first side of the product package closest to the transducer and a second reflected ultrasound pulse is from a second side of product package farthest from the transducer. A signal processor processes the reflected ultrasound waveform to determine a time lag between the first reflected ultrasound pulse and the second reflected ultrasound pulse. The time lag is then correlated to a temperature of a product in the product package. The ultrasound stimulus pulse does not induce nucleation of ice in a supercooled fluid.