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    • 54. 发明申请
    • PRESSURE SENSING APPARATUS
    • 压力传感装置
    • US20160223419A1
    • 2016-08-04
    • US14991404
    • 2016-01-08
    • ROLLS-ROYCE PLC
    • Stuart James KIRBY
    • G01L11/04G01M15/14F01D17/08
    • G01M15/14F01D17/08F01D25/32F05D2270/301F05D2270/80G01L11/06
    • A pressure sensing apparatus is provided for sensing gas pressure at a pressure tapping. The apparatus has a pressure sensor which provides a pressure measurement signal in response to the pressure of a gas admitted into the sensor at a gas inlet port thereof. The apparatus further has a gas conduit which extends from the inlet port. An end of the conduit distal from the inlet port is adapted to receive the gas at the pressure tapping. The apparatus further has a condenser on the gas conduit. The condenser contains condensation surfaces on which humidity in the gas flowing from the pressure tapping to the inlet port condenses out. In operation the temperature at the condenser is lower than at the pressure tapping.
    • 提供压力感测装置用于感测压力攻丝时的气体压力。 该装置具有压力传感器,该压力传感器响应于在其气体入口处进入传感器的气体的压力而提供压力测量信号。 该装置还具有从入口端延伸的气体导管。 远离进口的导管的端部适于在压力攻丝时接纳气体。 该设备还在气体导管上具有冷凝器。 冷凝器包含冷凝表面,气体从压力出口流入入口的气体湿度将冷凝。 在运行中,冷凝器的温度低于压力攻丝时的温度。
    • 56. 发明申请
    • Ultrasound-Based Measuring Device and Method
    • 超声波测量装置及方法
    • US20120152022A1
    • 2012-06-21
    • US13329305
    • 2011-12-18
    • Frank SchatzJuergen GrafGottfried FlikGeorg BischopinkFabian Henrici
    • Frank SchatzJuergen GrafGottfried FlikGeorg BischopinkFabian Henrici
    • G01N29/00
    • G01L11/06G01K11/22
    • An ultrasound-based measuring device includes a measurement body, at least one ultrasonic transmitter for coupling ultrasonic measurement signals into the measurement body, and at least one ultrasonic receiver for detecting the ultrasonic measurement signals reflected at an end face of the measurement body. The at least one ultrasonic transmitter emits both a longitudinal and a transverse measurement signal. The influence of a physical disturbance variable on the measurement section traversed by the measurement signals during a determination of a measurement pressure prevailing at the end face and/or of a measurement temperature prevailing at the end face can be taken into account on the basis of the propagation times and a difference between the propagation times of the longitudinal and transverse measurement signals reflected at the end face.
    • 超声波测量装置包括测量体,用于将超声波测量信号耦合到测量体中的至少一个超声波发射器,以及用于检测在测量体的端面反射的超声波测量信号的至少一个超声波接收器。 所述至少一个超声波发射器发射纵向和横向测量信号。 在确定端面处的测量压力和/或端面处的测量温度的确定期间,物理干扰变量对测量部分的测量部分的影响可以基于 传播时间和在端面反射的纵向和横向测量信号的传播时间之间的差异。
    • 58. 发明申请
    • Device for testing pressure in a gas reservoir
    • 用于测试气藏压力的装置
    • US20020184953A1
    • 2002-12-12
    • US10134389
    • 2002-04-30
    • Dieter WeberStefan Wiesbaum
    • G01L011/00
    • G01L11/04G01L11/06G01M3/24
    • A device for testing the inflation state of an cold gas inflator for an airbag has a gas reservoir that is filled with gas at a high pressure, in particular an inert gas. Oscillations of frequencies varying within a particular frequency range are generated at an exterior surface the filled gas reservoir by an oscillation transmitter and the resonance frequency is measured using an oscillation sensor. A comparator compares the measured resonance frequency with a resonance frequency that was determined at the gas reservoir filled with the volume of gas. The oscillation transmitter and the oscillation sensor are integrated in a unit such that the generation and frequency measuring of the oscillations are carried out at locations on the exterior surface of the gas reservoir that are distanced from one another with respect to a longitudinal axis of the gas reservoir.
    • 用于测试用于气囊的冷气充气机的充气状态的装置具有填充有高压气体,特别是惰性气体的气体储存器。 在特定频率范围内变化的频率的振荡在振荡发射器的填充气体储存器的外表面处产生,并且使用振荡传感器测量谐振频率。 比较器将测得的共振频率与在充满气体体积的气藏确定的共振频率进行比较。 振荡发射器和振荡传感器集成在一个单元中,使得振荡的产生和频率测量在气藏的外表面上相对于气体的纵向轴线彼此远离的位置处进行 水库
    • 60. 发明授权
    • System for measuring pressure and temperature
    • 压力和温度测量系统
    • US09581568B2
    • 2017-02-28
    • US14000102
    • 2012-02-16
    • Harald BorgenDavid Christian PetersenPetter F. SchmedlingMarius BornsteinTrond SjulstadMorten Roll KarlsenAndreas Bjerknes TaranrødJan Martin BendiksenTor Helge Brandsæter
    • Harald BorgenDavid Christian PetersenPetter F. SchmedlingMarius BornsteinTrond SjulstadMorten Roll KarlsenAndreas Bjerknes TaranrødJan Martin BendiksenTor Helge Brandsæter
    • G01N29/024G01K11/22G01L11/06G01L19/00G01N29/036G01N29/32
    • G01N29/024G01K11/22G01L11/06G01L19/0092G01N29/036G01N29/323G01N29/326G01N2291/02872G01N2291/02881
    • 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.
    • 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与测量通道分离的布置,使得压力屏障的完整性不会破裂。