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    • 1. 发明申请
    • POSITION TRACKING FOR PROPPANT CONVEYING STRINGS
    • 用于推进输送带的位置跟踪
    • WO2017003450A1
    • 2017-01-05
    • PCT/US2015/038519
    • 2015-06-30
    • HALLIBURTON ENERGY SERVICES, INC.
    • PARLIN, Joseph DeWitt
    • E21B43/267E21B17/18E21B43/247
    • E21B47/09E21B43/045E21B43/08E21B43/267E21B47/00E21B47/04E21B47/18E21B2034/007G06K7/10376
    • A well system can include a completion string adjacent to a target formation and a service tool extending within the completion string. When the service tool is in an aligned position with respect to the completion string, the service tool can prevent fluid communication between the target formation and a return conduit to facilitate fluid slurry injection. In such an alignment, a reader of the service tool is positioned within a threshold distance of a tag of the completion string to receive an indicator from the tag. From the tag, the reader receives confirmation that the service tool and the completion string are properly aligned. A pulser of the service tool transmits a signal to a surface location to convey the confirmation. A user may then pump the fluid slurry through an internal fluid flow passage of the service tool to the target formation.
    • 井系统可以包括与目标地层相邻的完井柱和在完井柱内延伸的维修工具。 当维修工具相对于完井柱处于对准位置时,维修工具可以防止目标结构和回流管之间的流体连通,以便于流体淤浆注入。 在这种对准中,服务工具的​​读取器位于完成字符串的标签的阈值距离内,以从标签接收指示符。 从标签中,读卡器接收确认服务工具和完成字符串正确对齐。 服务工具的​​脉冲发生器将信号发送到表面位置以传达确认。 用户可以然后将流体浆料泵送通过服务工具的​​内部流体流动通道到目标地层。
    • 3. 发明申请
    • DUAL MODE TELEMETRY
    • 双模式电视
    • WO2016123588A1
    • 2016-08-04
    • PCT/US2016/015853
    • 2016-01-30
    • SCIENTIFIC DRILLING INTERNATIONAL, INC.
    • WHITE, MatthewWHITACRE, TimothyGLEASON, BrianYOUSSEF, Mohamed
    • E21B47/18E21B47/16
    • H04Q9/00E21B47/04E21B47/122E21B47/18H04B13/02H04B15/00H04L7/0008H04L7/0041H04L7/04H04L7/041H04Q9/04
    • A method may include providing one or more telemetry transmission systems, the one or more transmission systems comprising one or more receivers and one or more transmitters. The method may also include transmitting a first synchronization sequence from the one or more telemetry transmission systems, the first synchronization sequence transmitted in a first channel, and the first synchronization sequence being at least a portion of a first telemetry signal. In addition, the method may include transmitting a second synchronization sequence the one or more telemetry transmission systems, the second synchronization sequence transmitted in a second channel, and the second synchronization sequence being at least a portion of a second telemetry signal. The first and second synchronization sequences may be transmitted simultaneously or at a predetermined time difference. The method may include receiving the first synchronization sequence at the one or more receivers, and receiving the second synchronization sequence at the one or more receivers.
    • 一种方法可以包括提供一个或多个遥测传输系统,所述一个或多个传输系统包括一个或多个接收机和一个或多个发射机。 该方法还可以包括从一个或多个遥测传输系统发送第一同步序列,在第一信道中发送的第一同步序列,以及第一同步序列是第一遥测信号的至少一部分。 此外,该方法可以包括:发送第二同步序列,一个或多个遥测传输系统,在第二信道中发送的第二同步序列,第二同步序列是第二遥测信号的至少一部分。 第一和第二同步序列可以同时或以预定的时间差传输。 该方法可以包括在一个或多个接收机处接收第一同步序列,以及在一个或多个接收机处接收第二同步序列。
    • 5. 发明申请
    • WELL WATER DEPTH MONITOR
    • 井水深度监测仪
    • WO2015171820A1
    • 2015-11-12
    • PCT/US2015/029544
    • 2015-05-06
    • WELLGAUGE, INC.
    • BOURGEOIS, Andre, EmileDICOCCO, Enrico, AnthonyBULLARD, Rodhney, ScottWHIPPLE, Stephen, Vincent
    • E21B47/047G01F23/26
    • E21B47/04E03B3/16E21B47/042G01F23/24
    • Methods, apparatuses, and computer readable medium including computer program products, are provided for determining the depth of water in a well. A method may include coupling a signal onto a cable connected to a submersible well pump. The method may further include monitoring the cable to determine a first time corresponding to a first reflection of the signal caused by the cable entering a water column between a water surface and the submersible pump. The method may further include monitoring the cable to determine a second time corresponding to a second reflection of the signal caused by an impedance mismatch between the cable surrounded by water and a motor in the submersible well pump. The method may further include determining a water height between the submersible pump and the water surface from the first time and the second time.
    • 包括计算机程序产品的方法,装置和计算机可读介质被提供用于确定井中的水的深度。 一种方法可以包括将信号耦合到连接到潜水井泵的电缆上。 该方法还可以包括监测电缆以确定对应于由电缆进入水表面和潜水泵之间的水柱引起的信号的第一反射的第一时间。 该方法还可以包括监视电缆以确定对应于由水包围的电缆与潜水井泵中的电动机之间的阻抗失配引起的信号的第二反射的第二时间。 该方法还可以包括从第一次和第二次确定潜水泵和水面之间的水高度。
    • 7. 发明申请
    • METHOD AND APPARATUS FOR IN-WELL WIRELESS CONTROL USING INFRASOUND SOURCES
    • 用于使用侵入源的井内无线控制的方法和设备
    • WO2014113549A3
    • 2014-12-31
    • PCT/US2014011817
    • 2014-01-16
    • SAUDI ARABIAN OIL COARAMCO SERVICES CO
    • NOUI-MEHIDI MOHAMED NBLACK MICHAEL J
    • E21B34/06E21B47/04E21B47/18
    • E21B47/04E21B34/066E21B47/18
    • A system and method for downhole data communication using an infrasound wave generator (26) and receivers (28 ). The infrasound waves (30) have a low frequency and a wavelength that is much larger than the transverse dimensions of the well (10). When the infrasound waves (30) are directed down the well (10), the well (10) will act as a wave guide for low frequency excitations. The receivers (28) are operatively connected to inflow valves (23) and other downhole equipment, and receive the infrasound waves (30). If the waves (30) are of a predetermined frequency, the receivers (28) command the valves to open or close, or otherwise control downhole equipment. The infrasound waves (30) can also be used to probe well (10) geometry and to identify fluid properties within the well (10).
    • 一种使用次声波发生器(26)和接收器(28)进行井下数据通信的系统和方法。 次声波(30)具有低频率和比孔(10)的横向尺寸大得多的波长。 当次声波(30)指向井(10)下方时,井(10)将充当低频激励的波导。 接收器(28)可操作地连接到流入阀(23)和其他井下设备,并接收次声波(30)。 如果波(30)具有预定频率,则接收器(28)命令阀打开或关闭,或以其他方式控制井下设备。 次声波(30)也可用于探测井(10)几何形状并识别井(10)内的流体性质。
    • 8. 发明申请
    • SYSTEM AND METHOD FOR DETECTING STRUCTURAL INTEGRITY OF A WELL CASING
    • 用于检测壳体结构完整性的系统和方法
    • WO2014164944A1
    • 2014-10-09
    • PCT/US2014/023863
    • 2014-03-12
    • CHEVRON U.S.A. INC.
    • THOMPSON, Melvin ClarkBECK, David William
    • E21B47/00G01V1/40G01V1/48
    • E21B47/0006E21B33/04E21B47/04E21B47/06
    • This disclosure relates to a system and method for detecting structural integrity of a well casing. The system may detect casing structural integrity events. The casing structural integrity events may include structural failures of the casing and/or potential structural failures of the casing. The well casing may be drilled and/or otherwise embedded into a geologic structure. The well casing may be subject to geologic forces generated by the geologic structure. Unplanned and/or unexpected forces and/or movement may pose a risk to the structural integrity of the casing. Forces and/or movement of sufficient magnitude may result in damage to and/or destruction of the casing. Damage to and/or destruction of the casing may cause a loss of the natural resources being extracted via the well associated with the well casing, contamination of areas surrounding the well, undesirable surface expression, and/or other negative effects.
    • 本公开涉及一种用于检测井套管结构完整性的系统和方法。 系统可以检测套管结构完整性事件。 套管结构完整性事件可能包括套管的结构故障和/或套管潜在的结构故障。 钻井套管可以钻孔和/或以其他方式嵌入到地质结构中。 井套管可能受到地质结构产生的地质力量的影响。 意外的和/或意外的力和/或运动可能对套管的结构完整性构成风险。 足够大的力和/或运动可能导致套管损坏和/或破坏。 外壳的损坏和/或破坏可能导致通过与井套管相关联的井提取的自然资源的损失,井周围的区域的污染,不期望的表面表达和/或其他负面影响。
    • 9. 发明申请
    • TUBULAR ASSEMBLY AND METHOD OF DEPLOYING A DOWNHOLE DEVICE USING A TUBULAR ASSEMBLY
    • 管状组件和使用管状组件分配井下装置的方法
    • WO2012168728A3
    • 2013-11-21
    • PCT/GB2012051298
    • 2012-06-08
    • META DOWNHOLE LTDGORRARA ANDREWWOOD PETER
    • GORRARA ANDREWWOOD PETER
    • E21B29/00E21B23/02E21B33/124E21B43/10E21B43/25E21B47/04
    • E21B43/14E21B17/00E21B23/00E21B23/02E21B29/002E21B29/08E21B33/124E21B43/103E21B43/11E21B43/25E21B47/04
    • A tubular assembly is disclosed for use in a wellbore (5) of an oil, gas or water well, typically for landing a downhole device in the wellbore. The assembly has a sleeve (1) adapted to receive the body of the downhole device. The sleeve is deployed into a conduit in the wellbore and expanded, so that the outer circumferential surface of the sleeve is radially expanded against the inner surface of the conduit. The sleeve has a bore with an inner circumferential surface comprising an inwardly facing formation adapted to engage with an outwardly facing formation on the body of the downhole device when the body of the downhole device is disposed in the bore of the sleeve. The sleeve is typically deployed in the wellbore at the desired location and is radially expanded by an expander device (2) that is deployed within the bore of the sleeve. The expanded sleeve plastically deforms and retains its expanded configuration after the radial expansion force is removed from the sleeve. The sleeve provides a modular anchoring or landing point in the wellbore that can be retrospectively set in the conduit at different locations, and various downhole devices can then be deployed into the sleeves at predictable depths and a reliable connection can be made with the sleeve. The assembly can typically pass through a smaller diameter before being morphed to seal and anchor in a larger diameter.
    • 公开了用于油井,气井或水井的井筒(5)中的管状组件,通常用于将井下装置落在井筒中。 组件具有适于容纳井下装置的主体的套筒(1)。 套筒被部署在井眼中的导管中并且膨胀,使得套筒的外圆周表面相对于导管的内表面径向膨胀。 套筒具有内孔,其内周表面包括向内表面的地层,其适于在井下装置的主体设置在套筒的孔中时与井下装置的主体上的面向外的地层接合。 套管通常在期望的位置处在井眼中展开,并且通过展开在套筒的孔内的膨胀器装置(2)径向扩张。 膨胀的套筒在径向膨胀力从套筒上移除之后塑性变形并保持其膨胀构型。 套筒在井筒中提供模块化锚固或着陆点,其可以在不同位置的管道中追溯地设置,并且然后可以将各种井下装置以可预测的深度部署到套筒中,并且可以与套筒进行可靠的连接。 组装件通常可以在变形之前通过较小的直径,以便以更大的直径密封和固定。