| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
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| 221 | FLUID CHARACTERISTIC DETERMINATION OF A MULTI-COMPONENT FLUID WITH COMPRESSIBLE AND INCOMPRESSIBLE COMPONENTS | EP12746220.8 | 2012-08-01 | EP2880417A1 | 2015-06-10 | SCHOLLENBERGER, Frederick Scott; WEINSTEIN, Joel; SHEPHERD, David John |
| A method for determining fluid characteristics of a multicomponent fluid is provided. The method includes a step of measuring a first density, ρ 1, of a multicomponent fluid comprising one or more incompressible components and one or more compressible components at a first density state. The method further includes a step of adjusting the multicomponent fluid from the first density state to a second density state. A second density, ρ 2, of the multicomponent fluid is then measured at the second density state and one or more fluid characteristics of at least one of the compressible components or the incompressible components are determined. | ||||||
| 222 | FLOW VOLUME DETECTOR | EP12877098.9 | 2012-05-21 | EP2853864A1 | 2015-04-01 | SUZUKI, Hideyuki |
A base (41) includes a plurality of flow channels (33, 34) and detection sections (531, 541) for detecting the flow volumes of fluids flowing in the flow channels (33, 34). In the base (41), a blocking section (57) for blocking heat conduction between the flow channels (33, 34) is provided between the flow channels (33, 34). The blocking section (57) is configured of groove (58) formed in the base (41). |
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| 223 | Differential-pressure flowmeter and flow-rate controller | EP10152417.1 | 2010-02-02 | EP2216632B1 | 2014-12-31 | Igarashi, Hiroki |
| 224 | VORRICHTUNG ZUR BESTIMMUNG UND/ODER ÜBERWACHUNG DES VOLUMEN- UND/ODER MASSENSTROMS EINES MEDIUMS | EP04724595.6 | 2004-03-31 | EP1608939B1 | 2014-11-19 | WIEST, Achim; STRUNZ, Torsten; BERGER, Andreas |
| 225 | INTEGRATED ACOUSTIC PHASE SEPARATOR AND MULTIPHASE FLUID COMPOSITION MONITORING APPARATUS AND METHOD | EP11822770 | 2011-09-06 | EP2612140A4 | 2014-07-16 | SINHA DIPEN N |
| 226 | THERMISCH VOLUMENNEUTRALER HUBÜBERTRAGER, INSBESONDERE BEI EINEM DOSIERVENTIL OHNE HYDRAULISCHEN KOMPENSATOR | EP11732408.7 | 2011-07-05 | EP2593659A1 | 2013-05-22 | BACHMAIER, Georg; EBELSBERGER, Gerit; FISCHER, Bernhard; HÖGE, Michael |
| The invention relates to a thermal volume-neutral stroke transmitter (11) for using especially with a metering valve (13), without the need for a hydraulic compensator. The invention is characterised in that, in addition to the liquid (32) in the volume (4) of the stroke transmitter, respectively a first and/or second displacement body (34, 36) is/are positioned in a stroke transmitter (11), for displacing said liquid (32). Such a closed system of three materials can still be designed in such a way that it remains pressure-free during temperature changes. | ||||||
| 227 | MEßAUFNEHMER VOM VIBRATIONSTYP SOWIE IN-LINE-MESSGERÄT MIT EINEM SOLCHEN MESSAUFNEHMER | EP10707899.0 | 2010-03-09 | EP2406588A1 | 2012-01-18 | ANKLIN-IMHOF, Martin; BITTO, Ennio; HUBER, Christof; RIEDER, Alfred |
| The invention relates to a vibration sensor and an in-line measuring device comprising said sensor. The sensor serves to detect at least one physical measurable variable of a flowable medium guided in a tube conduit and/or for producing Coriolis forces which serve to detect the mass flow rate of a flowable medium guided in a tube conduit. The sensor comprises a sensor housing (7 1), a housing end on the inlet side being defined by a splitter (20 1) on the inlet side which has exactly four respective interspaced flow openings (20 1A, 20 1B, 20 1C, 20 1D) and a housing end on the outlet side being defined by a splitter (20 2) on the outlet side which has exactly four respective interspaced flow openings (20 2A, 20 2B, 20 2C, 20 2D), and exactly four straight measuring tubes (18 1, 18 2, 18 3, 18 4) for guiding the flowing medium which tubes are connected to the splitters (20 1, 20 2) to give fluidically parallel flow paths. The respective measuring tube end on the inlet side of each of the four measuring tubes leads to one of the flow openings (20 1A, 20 1B, 20 1C, 20 1D) of the splitter (20 1) on the inlet side and the respective measuring tube end on the outlet side leads to one of the flow openings (20 2A, 20 2B, 20 2C, 20 2D) of the splitter (20 2) on the outlet side. The sensor further comprises an electro-mechanical exciter arrangement (5) for producing and/or maintaining mechanical vibrations of the four measuring tubes (18 1, 18 2, 18 3, 18 4), the exciter arrangement being designed such that it can be used to excite the paired measuring tubes to perform respective counter-phase flexural vibrations in a respective common imaginary plane of vibration (XZ 1, XZ 2). The sensor according to the invention is especially suitable for measuring a density and/or a mass flow rate of a medium which flows at least temporarily inside a tube conduit at a mass flow rate of more than 2200 t/h. | ||||||
| 228 | Flow rate sensor structure | EP10166382.1 | 2010-06-17 | EP2306161A1 | 2011-04-06 | Saito, Takayuki; Kobayashi, Chihiro; Yogo, Takayuki |
The present invention utilizes self-heating of electronic components to improve a humidity sensing part 500 with low environment resistance, such as a condensation problem and the like, and also to enhance the heat radiation efficiency of electronic components. The humidity sensing part 500 is used in an intake tube 101 of an automobile by integrating, for example, with a heating resister type mass air flow measurement device 200. A humidity sensing element is mounted on an electronic circuit board 203 in a mass air flow measurement device 200 with the temperature thereof starting to increase immediately after a sensor has been actuated. This urges the temperature of the humidity sensing element to start increasing (being heated) immediately after the sensor has been actuated. To urge the humidity sensing element to be further heated, a base plate 202 is composed of two types of materials, resin and metal. A part of the base plate 202 holding an area of the electronic circuit board 203 generating a large quantity of heat is composed of the metal. A part of the base plate 202 corresponding to the periphery of the humidity sensing part 500 which is to be heated is composed of the resin.
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| 229 | Flow meter and flow volume controlling device | EP09169680.7 | 2009-09-08 | EP2163863A1 | 2010-03-17 | Inagaki, Hiroyuki; Aoshima, Shigeru; Watanabe, Takeshi |
To provide a flow meter, and a flow volume controlling device equipped therewith, capable of reducing pressure loss while obtaining a flow rectifying effect in a measurement fluid. A flow meter for measuring the flow volume of a measurement fluid, equipped with a flow path wherein the measuring fluid flows, and a flow rectifier that is disposed within the flow path, where the flow rectifier has holes for rectifying the flow of a measurement fluid, and has an area that is wider than the flow path cross-sectional area in a direction that is perpendicular to the direction in which the flow path extends. The flow volume controlling device is provided with the flow meter, a controlling valve, and controlling means for adjusting the flow volume of a fluid that flows through the flow path of the flow meter through controlling the controlling valves based on information regarding the flow volume detected by the flow meter.
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| 230 | Thermal flow meter control method | EP08017400.6 | 2008-10-02 | EP2045584A2 | 2009-04-08 | Sukegawa, Yoshihiro; Tokuyasu, Noboru; Hoshika, Hiroaki; Kashio, Kaori |
A thermal flow meter corrects flow rate detection errors produced by vaporization of liquid phase components included in a gas to be measured. The thermal flow meter includes a correction circuit 500 that applies respectively different predetermined voltages to heating resistors consisting of first heating resistor Rh1 and second heating resistor Rh2 of a sensor element disposed in the gas to be measured to set a first temperature state and a second temperature state, calculates a first flow rate value Q1 of the gas to be measured in the first temperature state and a second flow rate value Q2 of the gas to be measured in the second temperature state, and calculates a flow rate correction value ΔQ based on a ratio (Q1/Q2) between the first flow rate value and second flow rate value or a fourth-power value (Q1/Q2)4 of the ratio to correct a flow rate of the gas to be measured.
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| 231 | ULTRASCHALLMESSSTRECKE AUS KUNSTSTOFF UND ENTSPRECHENDES MESSVERFAHREN | EP06829078.2 | 2006-11-21 | EP1891400A1 | 2008-02-27 | RICKLI, André |
| The invention relates to an ultrasound measuring section (1) made from plastic, for measuring flow of fluids, comprising two ultrasound transceivers (2, 3) at a separation from each other in the direction of flow, characterised in that the ultrasound may be guided in a Z-pattern between the transceivers (2, 3) by means of at least two reflectors (4). The invention further relates to a corresponding measuring method and a method for one-piece production of a measuring section (1) by injection moulding. | ||||||
| 232 | ULTRASONIC FLOWMETER | EP00909746 | 2000-03-17 | EP1182431A4 | 2006-06-14 | IWANAGA SHIGERU; UMEKAGE YASUHIRO |
| An ultrasonic flowmeter comprises a measurement channel (6) through which fluid to be measured flows; ultrasonic transmitter/receiver units (8, 9) provided upstream and downstream of the measurement channel (6); openings (11, 12) through which the ultrasonic transmitter/receiver units (8, 9) face the measurement channel (6); a first control member (15) provided near the downstream opening (12) for limiting the fluid flowing into the opening (12); a second control member (16) provided in the measurements channel (6) upstream from the openings (11, 12) for limiting the fluid flowing into the openings (11, 12); a measurement control (19) for measuring the time of ultrasonic propagation between ultrasonic transmitter/receiver units (8, 9); and a processor (20) for calculating the flow rate based on the signal from the measurement control (19). | ||||||
| 233 | FLOW RATE MEASURING METHOD AND FLOW-METER | EP01956839.3 | 2001-08-10 | EP1326062A1 | 2003-07-09 | HIRAIZUMI, K., c/o MITSUI MINING & SMELTING CO.LTD; KOIKE, A., c/o MITSUI MINING & SMELTING CO., LTD.; MIYAJIMA, H., c/o MITSUI MINING & SMELTING CO.,LTD; YAMAGISHI, K., c/o MITSUI MINING & SMELTING CO.LTD |
A flowmeter comprising a flow rate detection circuit including a thermal flow rate sensor (10) disposed in a measurement flow passage through which fluid to be measured passes, a temperature sensor circuit (12), a flow rate conversion circuit and a storage means EEPROM. The storage means stores, for respective discrete temperature values, a plurality of individual calibration curves indicating the relationship between electric outputs from the flow rate detection circuit and flow rates, and the individual calibration curves are prepared by using flow rates converted into those at a reference temperature. The flow rate conversion circuit performs interpolation based on temperatures measured by the temperature sensor circuit (12) and a plurality of individual calibration curves to obtain calibrated flow rate values corresponding to temperature at measuring. |
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| 234 | ULTRASONIC FLOWMETER | EP00909746.0 | 2000-03-17 | EP1182431A1 | 2002-02-27 | IWANAGA, Shigeru; UMEKAGE, Yasuhiro |
An ultrasonic flow meter of the present invention includes: a measurement flow path 6 through which a fluid to be measured flows; ultrasonic transducers 8 and 9 provided respectively on an upstream side and a downstream side with respect to each other along the measurement flow path 6; an upstream aperture hole 11 and a downstream aperture hole 12, the aperture holes 11 and 12 for exposing the ultrasonic transducers 8 and 9 to the measurement flow path 6; a first influent suppressor 15 provided in a vicinity of at least the downstream aperture hole 12 for reducing inflow of the fluid to be measured into the aperture hole 12; a second influent suppressor 16 provided on an upstream side of the measurement flow path 6 with respect to the aperture holes 11 and 12 for reducing the inflow of the fluid to be measured into the aperture holes 11 and 12; a measurement control section 19 for measuring a propagation time of an ultrasonic wave between the ultrasonic transducers 8 and 9; and a calculation section 20 for calculating a flow rate based on a signal from the measurement control section 19. The first influent suppressor 15 provided for the downstream aperture hole 12 comprises an aperture hole sealing section 21 having at least one ultrasonically transmissive hole 22. Thus, it is possible to stabilize the flow between the ultrasonic transducers so as to enhance the ultrasonic reception level, thereby increasing the measurement precision and the upper limit value for the flow rate measurement, and to reduce the driving input for the ultrasonic transducers. |
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| 235 | DEVICE FOR TEMPERATURE COMPENSATION IN AN ACOUSTIC FLOW METER | EP99971503.0 | 1999-11-03 | EP1135670A1 | 2001-09-26 | DELSING,Jerker |
| A meter comprises a casing (1) with a fluid passage (2), in which two transducer mountings (3, 4) arranged at a distance (Lb) from each other support two transducers (5, 6) which are acoustically opposed to each other. Between the transducers (5, 6) there is a distance (Lu) over which they transmit and receive sound pulses through a fluid which in a direction (a) flows through the fluid passage (2). On the basis of the transit times of the sound pulses over the distance (Lu) both countercurrently with and countercurrently to the direction of flow (a), e.g. the velocity of the flow of the fluid is then calculated. A compensating means (8, 9) is arranged between at least one of the transducers (5, 6) and one of the transducer mountings (3, 4), said compensating means (8, 9) being made of a material having a known function of thermal expansion and having such a length that a longitudinal change, caused by a change in temperature of the fluid, of the distance (Lb) between the transducer mountings (3, 4) and, thus, of the distance (Lu) between the transducers (5, 6) is essentially compensated for by an opposite longitudinal change of the compensating means (8, 9). | ||||||
| 236 | FLOWMETERING APPARATUS | EP90917585.0 | 1990-11-26 | EP0504178A1 | 1992-09-23 | MOHN, Frank |
| On mesure l'écoulement d'un liquide polyphasique et des fractions liquides ou gazeuses qu'il contient à l'aide d'un dispositif de déplacement du liquide, par exemple une pompe à piston, en détectant la position d'un élément comprimant le liquide, par exemple un piston (10), ainsi qu'à l'aide d'un capteur de pression (36) ou bien en détectant l'ouverture d'une soupape de décharge (9) s'effectuant à une pression déterminée. | ||||||
| 237 | Magnetisch-induktive Durchflussmessanordnung | EP88115657.4 | 1988-09-23 | EP0309932B1 | 1992-04-15 | Hafner, Peter Dr., |
| 238 | Metered gas volume correcting arrangement | EP84105054.5 | 1984-05-04 | EP0125583A1 | 1984-11-21 | Schneider, George W., Jr. |
Mechanism for continuously correcting volumetric flow indications of a gas meter for temperature and pressure variations is porvided with a pair of variable ratio transmissions (18,78) which operably connect an input shaft (10) rotatable according to actual volumetric flow through the meter with an output shaft (112) that drives a counter (114) indicating gas consumption. Each transmission (18, 78) preferably includes an assembly in which there are a plurality of undirectional clutches (24, 26, 28, 82) symmetrically arranged about a common axis, and a member (52, 76) relatively movable with respect to such axis for changing the ratio of the transmission. A temperature responsive device (60, 62) controls the ratio of one transmission in a manner resulting in a temperature corrected speed for such output shaft (112). A pressure responsive device (90) controls the ratio of the other transmission (78) in a manner resulting in the application of the pressure correction which is linearly dependent upon pressure to the output shaft (112) driving the counter (114), either directly or through a ratio multiplying planetary gear train. |
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| 239 | Flow-meter for liquid or gaseous fluids | EP81101906 | 1981-03-14 | EP0036201A3 | 1984-05-16 | Rogg, Werner, Dipl.-Phys. |
| Die Erfindung betrifft einen nach dem Schwebekörper prinzip arbeitenden Durchflußmengenmesser. Der Schwebe körper (8,9,10) ist über eine Stange (7) starr mit einem aus ferromagnetischem Material bestehenden Gewichtskörper (2) verbunden, welcher gleichzeitig den Kern einer gehäuse festen Induktionsspule (3) bildet. Die Veränderung der Induk tivität ist folglich von der Durchflußmenge abhängig. Im glei chen Sinn wie der Gewichtskörper (2) wirkt eine vorgespannte Feder (4) der Verschiebung des Schwebekörpers (8,9,10) ent gegen. Bei Anwendung eines derartigen Durchflußmengen messers zur Kraftstoffmessung in einem bewegten Fahrzeug ergeben sich dadurch Meßfehler, daß sich dem Flüssigkeits strom von außen ausgelöste Stoßwellen überlagern. Nach der Erfindung werden diese Meßfehler durch einen auf der Verbindungsstange (7) zwischen Rückstellfeder (4) und einem Gehäusebund (6) verschiebbar angeordneten Dämpfungs kolben (5) kompensiert, dessen wirksamer Querschnitt unge fähr dem des Schwebekörpers (8,9,10) entspricht, wobei der Medienzufluß (12) zwischen Schwebekörper (8,9,10) und Dämpfungskolben (5) mündet. | ||||||
| 240 | Appareil de mesure de la consommation de carburant | EP83401731.1 | 1983-08-31 | EP0104978A1 | 1984-04-04 | Colonnello, Rino |
57 L'invention concerne la mesure de la consommation en carburant d'un moteur thermique. Elle se rapporte à un appareil qui comporte deux débit-mètres (24,26) donnant des signaux compensés en température car leurs roues elliptiques 28 ont le même coefficient de dilatation que leurs bottiers. Des capteurs 36 de température permettent la correction des débits avant leur soustraction, les opérations étant effectuées par un microordinateur 34. Application à la mesure de la consommation en carburant des véhicules automobiles. |
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