| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 261 | METHOD AND APPARATUS FOR FLUID FLOW TESTING | EP04753504 | 2004-05-27 | EP1687613A4 | 2007-06-20 | YUNG TIN-WOO; SLOCUM SCOTT T; SANDSTROM ROBERT E; DING ZHONG; SMITT LEIF |
| This invention relates generally to testing apparatus and methodology for measuring fluid dynamic properties of structures within fluid flows. One embodiment includes a fluid induced motion testing apparatus of the type which includes a test rig (21) suitable for holding a test body (1) in a fluid body. The apparatus may include any of an actuator (8) suitable for producing a force upon the test body (1); a turbulence generator (65) located in the fluid body up current from the test body (1) suitable for generating a turbulent flow field with uniform turbulence intensity across the fluid body-test body interface, the turbulent flow field including dominate vortical structures, the axis of the vortical structures about parallel to the longitudinal axis of the test body (1); or a test body adjuster suitable for adjusting the test body (1) relative to the fluid current in four or more increments, thereby enabling multiple headings of the test body (1) to be tested against the current of the fluid body. This invention also relates to designing and constructing offshore structures and to producing hydrocarbon resources using offshore structures designed using the testing apparatus and methodology. | ||||||
| 262 | METHOD AND APPARATUS FOR FLUID FLOW TESTING | EP04753504.2 | 2004-05-27 | EP1687613A2 | 2006-08-09 | YUNG, Tin-Woo; SLOCUM, Scott, T.; SANDSTROM, Robert, E.; DING, Zhong; SMITT, Leif |
| This invention relates generally to testing apparatus and methodology for measuring fluid dynamic properties of structures within fluid flows. One embodiment includes a fluid induced motion testing apparatus of the type which includes a test rig (21) suitable for holding a test body (1) in a fluid body. The apparatus may include any of an actuator (8) suitable for producing a force upon the test body (1); a turbulence generator (65) located in the fluid body up current from the test body (1) suitable for generating a turbulent flow field with uniform turbulence intensity across the fluid body-test body interface, the turbulent flow field including dominate vortical structures, the axis of the vortical structures about parallel to the longitudinal axis of the test body (1); or a test body adjuster suitable for adjusting the test body (1) relative to the fluid current in four or more increments, thereby enabling multiple headings of the test body (1) to be tested against the current of the fluid body. This invention also relates to designing and constructing offshore structures and to producing hydrocarbon resources using offshore structures designed using the testing apparatus and methodology. | ||||||
| 263 | Water-flow testing apparatus | EP02250142.3 | 2002-01-09 | EP1221604A3 | 2004-02-25 | Schumacher, Thomas Phillip; Mertz, Steven Craig; Meece, David Wayne |
A water-testing apparatus (50) tests an article such as a turbine airfoil component (20) having at least two water flow passage article inlets (30, 38, 44). The apparatus (50) includes an apparatus body (52) having a water inlet (54), and an attachment head (56) integral with the apparatus body (52). The attachment head (56) includes a holder (72) that receives the article therein in sealing contact with an article seal (58), and at least two ports, each port being in registry with at least one of the at least two water flow passage article inlets. A water flow controller (88) within the apparatus body (52) has a controller inlet (90) in water-flow communication with the water inlet (54), at least two controller outlets, each controller outlet being in water-flow communication with one of the ports of the attachment head (56), and a flow-control valve (94) disposed in a water flow path between the controller inlet (90) and the controller outlets. The flow-control valve (94) is controllable to controllably connect a single one of the controller outlets at a time to the controller inlet (90). |
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| 264 | Water-flow testing apparatus | EP02250142.3 | 2002-01-09 | EP1221604A2 | 2002-07-10 | Schumacher, Thomas Phillip; Mertz, Steven Craig; Meece, David Wayne |
A water-testing apparatus (50) tests an article such as a turbine airfoil component (20) having at least two water flow passage article inlets (30, 38, 44). The apparatus (50) includes an apparatus body (52) having a water inlet (54), and an attachment head (56) integral with the apparatus body (52). The attachment head (56) includes a holder (72) that receives the article therein in sealing contact with an article seal (58), and at least two ports, each port being in registry with at least one of the at least two water flow passage article inlets. A water flow controller (88) within the apparatus body (52) has a controller inlet (90) in water-flow communication with the water inlet (54), at least two controller outlets, each controller outlet being in water-flow communication with one of the ports of the attachment head (56), and a flow-control valve (94) disposed in a water flow path between the controller inlet (90) and the controller outlets. The flow-control valve (94) is controllable to controllably connect a single one of the controller outlets at a time to the controller inlet (90). |
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| 265 | METHOD OF REDUCING FRICTION RESISTANCE OF HULL, SHIP WHOSE FRICTION RESISTANCE IS REDUCED BY THE METHOD, AND METHOD OF ANALYZING JETTED BUBBLES ON SHIP | EP96939344 | 1996-12-03 | EP0865985A4 | 2000-11-02 | KATO HIROHARU; TAKAHASHI YOSHIAKI; YOSHIDA YUKI; MASUKO AKIRA; WATANABE OSAMU |
| The friction resistance of the hull (2) of a ship (1) while navigating is reduced by jetting out minute air bubbles (8) of a predetermined diameter from positions of small static pressure near starting points of flow lines (F.L.) of water, which extend toward the bottom (5) of the ship from positions of small draft in a submerged part of the bow (4) of the hull (2) along both side surfaces of the hull (2), and allowing the minute air bubbles (8) to move down to the bottom (5) of the ship (1) along the flow lines (F.L.), thereby distributing minute air bubbles (8) over at least a part of a region around the submerged part of the hull (2). | ||||||
| 266 | METHOD OF REDUCING FRICTION RESISTANCE OF HULL, SHIP WHOSE FRICTION RESISTANCE IS REDUCED BY THE METHOD, AND METHOD OF ANALYZING JETTED BUBBLES ON SHIP | EP96939344.6 | 1996-12-03 | EP0865985A1 | 1998-09-23 | KATO, Hiroharu; TAKAHASHI, Yoshiaki; YOSHIDA, Yuki; MASUKO, Akira; WATANABE, Osamu |
The friction resistance of the hull (2) of a ship (1) while navigating is reduced by jetting out minute air bubbles (8) of a predetermined diameter from positions of small static pressure near starting points of flow lines (F.L.) of water, which extend toward the bottom (5) of the ship from positions of small draft in a submerged part of the bow (4) of the hull (2) along both side surfaces of the hull (2), and allowing the minute air bubbles (8) to move down to the bottom (5) of the ship (1) along the flow lines (F.L.), thereby distributing minute air bubbles (8) over at least a part of a region around the submerged part of the hull (2). |
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| 267 | FLUID FLOW MONITORING | EP87900674.0 | 1987-01-13 | EP0254732B1 | 1989-09-27 | Longmore, Donald Bernard |
| Aerodynamic or hydrodynamic testing of shapes is performed by NMR (Nuclear Magnetic Resonance) image reconstruction. A fluid which is NMR opaque or translucent is passed through a duct in which non-magnetic shapes are mounted, and the duct is positioned within the working volume of an NMR imaging system. | ||||||
| 268 | Dispositif de mesure du sillage d'une maquette navigante | EP88402087.6 | 1988-08-11 | EP0305266A1 | 1989-03-01 | Le Guet, Pierre.Loic; Dern, Jean-Claude |
L'invention concerne un dispositif de mesure du sillage d'une maquette navigante (17) dans un bassin d'essais (1) équipé d'une plate-forme mobile (2) capable de se déplacer pour poursuivre la maquette à la même vitesse que celle-ci. Ce dispositif comprend cinq têtes (3) de mesure optique ponctuelle du niveau d'eau portées par la plate-forme (2) et susceptibles de se déplacer horizontalement par rapport à celle-ci en une direction transversale par rapport à la direction de son mouvement de poursuite de la maquette (17) de façon à fournir, par balayage transversal, un relevé des ondulations de la surface de l'eau (8) dues au sillage de la maquette (17) dans cinq plans verticaux parallèles juxtaposés formant une bande (16). |
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| 269 | Method and system for creating surface waves in a body of liquid | EP85200926.5 | 1985-06-11 | EP0164811B1 | 1988-03-02 | Vegter, Derk |
| 270 | Dispositif d'essais hydrodynamiques | EP85400200.3 | 1985-02-07 | EP0156661B1 | 1988-02-03 | Giovachini, Jean-Luc; Varnier, Jean-Paul; Dern, Jean-Claude; Le Guet, Pierre Loîc; Pascal, Jean-Pierre |
| 271 | Dispositif de mise en circulation d'eau, notamment dans un tunnel d'essais hydrodynamiques | EP86104416.2 | 1986-04-01 | EP0201705A1 | 1986-11-20 | Chantrel, Paul; Lecoffre, Yves |
L'invention concerne la mise en circulation d'un débit important d'eau. Plutot que d'utiliser un petit nombre de grandes pompes à hélice, il est préférable, par exemple dans un tunnel d'essais hydrodynamique (2), d'utiliser un grand nombre (cent) de petites pompes (6) de diamètres plus faibles. Application aux grands tunnels d'essais hydrodynamiques. |
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| 272 | Method and system for creating surface waves in a body of liquid | EP85200926.5 | 1985-06-11 | EP0164811A1 | 1985-12-18 | Vegter, Derk |
Method for controlling a reciprocating displacer (1) for creating surface waves in a body of liquid. The wave height (N) on the front face ofthe displacerwave board is measured. The corresponding height signal (11) is integrated in time (4) and subtracted from a wave board position determining control signal (6) which is dependent of the desired wave pattern to be created. The resulting signal (X) controls the drive means (7) of the wave board such that the signal determines the position of the wave board in relation to a reference (zero) position. |
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| 273 | Dispositif d'essais hydrodynamiques | EP85400200.3 | 1985-02-07 | EP0156661A1 | 1985-10-02 | Giovachini, Jean-Luc; Varnier, Jean-Paul; Dern, Jean-Claude; Le Guet, Pierre Loîc; Pascal, Jean-Pierre |
Contrairement au dispositif d'essais habituels dans un bassin comprenant un support porté par un pont roulant, le dispositif selon l'invention comporte un support de maquette comprenant un châssis (2) immergé, équipé de galets de roulement et prenant appui sur le fond (1) du bassin. Une platine amovible (8) est fixée sur le dessus du châssis (2) et un moteur linéaire est fixé sur le côté du châssis (2) et alimenté par des rails conducteurs (18) fixés dans le fond (1) du bassin. |
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| 274 | Positioning Device For Arrangement Of Basin False Bottom In Ocean Engineering | US15541100 | 2015-09-15 | US20170370801A1 | 2017-12-28 | Jianmin Yang; Xinliang Tian; Xiaoxian Guo; Longfei Xiao; Tao Peng |
| A positioning device for arrangement of a basin false bottom in ocean engineering comprises a laser transmitting system, a rotating platform system, and a control and calculation system. The laser transmitting system comprises a laser transmitter used for providing laser beams. The rotating platform system comprises a two-degree-of-freedom rotating platform used for carrying the laser transmitter and making the laser beams have spatially arbitrary directivity. The control and calculation system is used for calculating, according to given coordinates, the angle by which the two-degree-of-freedom rotating platform needs to rotate, controlling rotation of the two-degree-of-freedom rotating platform, and making the laser beams transmitted by the laser transmitter accurately indicate the given coordinates at the basin false bottom. Compared with an existing manual positioning method for a false bottom, the positioning device is high in accuracy, easy to operate, and rapid, and saves labor and greatly improves the test efficiency. | ||||||
| 275 | SIX-AXIS MOTION MECHANISM | US15174007 | 2016-06-06 | US20170350917A1 | 2017-12-07 | SHUEEI-MUH LIN |
| A six-axis motion mechanism combines three translation axes in the directions of the X-axis, the Y-axis, and the Z-axis and three rotation axes in the directions of the x-axis, the y-axis, and the z-axis to carry out a six-axis compound motion. The six-axis motion mechanism includes a movable support frame provided with a connecting mechanism. Drive mechanisms are provided in the directions of the X-axis, the Y-axis, and the Z-axis respectively for controlling the displacement, velocity and acceleration of three translation axes. Rotation mechanisms are provided in the directions of the x-axis, the y-axis, and the z-axis respectively for controlling the rotation angles (θ, φ, Ψ), angular velocity, and angular acceleration of the three rotation axes. The six-axis motion mechanism further includes a motion body which can proceed its rotation and displacement at any angle to imitate a single motion of rolling, yawing and pitching and a compound motion. | ||||||
| 276 | Ship resistance prediction using a turbulent spot inducer in model testing | US14706333 | 2015-05-07 | US09588011B1 | 2017-03-07 | Young T. Shen; Michael J. Hughes |
| Exemplary practice of the present invention provides and implements a superior small-scale test model of a full-scale vessel hull describing a smooth axisymmetric body. The boundary layer of a smooth axisymmetric body moving in water is characterized, in succession from front axial-longitudinal end to back axial-longitudinal end, by a laminar region, an unstable region, an intermittent region, and a turbulent region. The smooth axisymmetric body's intermittent region is characterized by generation of turbulent spots, which bring about the turbulent region. According to exemplary inventive practice, a “turbulent spot inducer” (ring-shaped structure or structural arrangement) is strategically sized and placed to increase generation of turbulent spots, thereby reducing (axially-longitudinally shortening) the intermittent region and enlarging (axially-longitudinally lengthening) the turbulent region. The turbulent spot inducer is circumferentially coupled with the smooth axisymmetric body at a location coinciding with the smooth axisymmetric body's delimitation between its unstable region and its intermittent region. | ||||||
| 277 | BIDIRECTIONAL VARIABLE CROSS-SECTION WATER-PRESSURE BEARER CYCLE TEST SYSTEM FOR COAL MINE WATER INRUSH MODEL TEST | US15105369 | 2014-10-21 | US20160327449A1 | 2016-11-10 | Qiang WU; Lei NIU; Shucai LI; Shouqiang LIU; Yifan ZENG; Shengheng XU |
| A bidirectional variable cross-section water-pressure bearer cycle test system for a coal mine water inrush model test, comprising a water-pressure loading portion and a water-pressure bearer portion, wherein the water-pressure loading portion has a water supply tank, a loading water pump, a water piezometer, a water control valve, a water inlet pipe, a water discharge pipe, etc., through the loaded water pressure to control the cyclic loading of the water pressure. The water-pressure bearer portion has a variable cross-section water-pressure bearer assembly and a airtight main frame variable water-level water-pressure bearer assembly. The variable cross-section water-pressure bearer assembly has a cross-section water storage tank, a cross-section water baffle and a cross-section porous plate, and the water-pressure bearer assembly has a water-level water storage tank, a water-level water baffle and a water-level porous plate, which through loading or unloading the size of water control the bidirectional variable cross-section water-pressure bearer cycle. | ||||||
| 278 | Mobile hydro geothermal testing systems and methods | US13205568 | 2011-08-08 | US09341400B2 | 2016-05-17 | Scott Freitag |
| A fluid flushing and pressurization apparatus for use with geothermal systems, capable of delivering a reversible high-velocity flow of fluid through a system of buried PE pipe without introducing an overpressure condition or water hammer. The apparatus can be utilized with methods for installing, preparing, flushing, filling, testing, and certifying geothermal heating and cooling systems. A portable pumping and testing apparatus can include a high-volume pump, a high-pressure pump, a flow meter, and pressure sensors in wired or wireless communication with a processor or logic controller such that continuous or periodic monitoring of the system can be recorded. The system can be programmed to operate automatically under computer control such that reversal of the flow through the geothermal system does not shock or damage the equipment or buried piping. | ||||||
| 279 | MOBILE HYDRO GEOTHERMAL TESTING SYSTEMS AND METHODS | US14794965 | 2015-07-09 | US20160091390A1 | 2016-03-31 | Scott Freitag |
| A fluid flushing and pressurization apparatus for use with geothermal systems, capable of delivering a reversible high-velocity flow of fluid through a system of buried PE pipe without introducing an overpressure condition or water hammer. The apparatus can be utilized with methods for installing, preparing, flushing, filling, testing, and certifying geothermal heating and cooling systems. A portable pumping and testing apparatus can include a high-volume pump, a high-pressure pump, a flow meter, and pressure sensors in wired or wireless communication with a processor or logic controller such that continuous or periodic monitoring of the system can be recorded. The system can be programmed to operate automatically under computer control such that reversal of the flow through the geothermal system does not shock or damage the equipment or buried piping. | ||||||
| 280 | MOBILE HYDRO GEOTHERMAL TESTING SYSTEMS AND METHODS | US14794973 | 2015-07-09 | US20160091266A1 | 2016-03-31 | Scott Freitag |
| A fluid flushing and pressurization apparatus for use with geothermal systems, capable of delivering a reversible high-velocity flow of fluid through a system of buried PE pipe without introducing an overpressure condition or water hammer. The apparatus can be utilized with methods for installing, preparing, flushing, filling, testing, and certifying geothermal heating and cooling systems. A portable pumping and testing apparatus can include a high-volume pump, a high-pressure pump, a flow meter, and pressure sensors in wired or wireless communication with a processor or logic controller such that continuous or periodic monitoring of the system can be recorded. The system can be programmed to operate automatically under computer control such that reversal of the flow through the geothermal system does not shock or damage the equipment or buried piping. | ||||||
