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    • 11. 发明申请
    • Bidirectional Downhole Fluid Flow Control System and Method
    • 双向井下流体流量控制系统及方法
    • US20130140038A1
    • 2013-06-06
    • US13594790
    • 2012-08-25
    • Michael Linley FrippJason D. DykstraOrlando DeJesus
    • Michael Linley FrippJason D. DykstraOrlando DeJesus
    • E21B34/08E21B34/06
    • E21B34/08E21B43/12E21B43/16
    • A bidirectional downhole fluid flow control system is operable to control the inflow of formation fluids and the outflow of injection fluids. The system includes at least one injection flow control component and at least one production flow control component in parallel with the at least one injection flow control component. The at least one injection flow control component and the at least one production flow control component each have direction dependent flow resistance, such that injection fluid flow experiences a greater flow resistance through the at least one production flow control component than through the at least one injection flow control component and such that production fluid flow experiences a greater flow resistance through the at least one injection flow control component than through the at least one production flow control component.
    • 双向井下流体流量控制系统可操作以控制地层流体的流入和注入流体的流出。 该系统包括与至少一个喷射流量控制部件并联的至少一个喷射流量控制部件和至少一个生产流量控制部件。 至少一个喷射流量控制部件和至少一个生产流量控制部件各自具有取向流动阻力,使得喷射流体流经由至少一个生产流量控制部件比通过至少一个注射 流动控制部件,并且使得生产流体流通过至少一个喷射流量控制部件比通过至少一个生产流量控制部件经受更大的流动阻力。
    • 13. 发明授权
    • Bidirectional downhole fluid flow control system and method
    • 双向井下流体流量控制系统及方法
    • US09249649B2
    • 2016-02-02
    • US13594790
    • 2012-08-25
    • Michael Linley FrippJason D. DykstraOrlando DeJesus
    • Michael Linley FrippJason D. DykstraOrlando DeJesus
    • E21B43/24E21B34/08E21B43/12
    • E21B34/08E21B43/12E21B43/16
    • A bidirectional downhole fluid flow control system is operable to control the inflow of formation fluids and the outflow of injection fluids. The system includes at least one injection flow control component and at least one production flow control component in parallel with the at least one injection flow control component. The at least one injection flow control component and the at least one production flow control component each have direction dependent flow resistance, such that injection fluid flow experiences a greater flow resistance through the at least one production flow control component than through the at least one injection flow control component and such that production fluid flow experiences a greater flow resistance through the at least one injection flow control component than through the at least one production flow control component.
    • 双向井下流体流量控制系统可操作以控制地层流体的流入和注入流体的流出。 该系统包括与至少一个喷射流量控制部件并联的至少一个喷射流量控制部件和至少一个生产流量控制部件。 至少一个喷射流量控制部件和至少一个生产流量控制部件各自具有取向流动阻力,使得喷射流体流经由至少一个生产流量控制部件比通过至少一个注射 流动控制部件,并且使得生产流体流通过至少一个喷射流量控制部件比通过至少一个生产流量控制部件经受更大的流动阻力。
    • 15. 发明授权
    • Estimating a wellbore parameter
    • 估算井眼参数
    • US08800651B2
    • 2014-08-12
    • US13182508
    • 2011-07-14
    • Michael Linley FrippJason D. Dykstra
    • Michael Linley FrippJason D. Dykstra
    • E21B43/24
    • E21B41/00E21B43/2406
    • A system for estimating a wellbore parameter includes a first component located at or near a terranean surface; a second component at least partially disposed within a wellbore at or near a subterranean zone; and a controller communicably coupled to the first and second components. The second component is associated with a sensor. The controller is operable to: adjust a characteristic of an input fluid to the wellbore through a range of input values; receive, from the sensor, a plurality of output values of the input fluid that vary in response to the input values, the output values representative of a downhole condition; and estimate a wellbore parameter distinct from the downhole condition based on the measured output values.
    • 用于估计井筒参数的系统包括位于地下表面处或附近的第一部件; 至少部分地设置在地下区域内或附近的井筒内的第二组分; 以及可通信地耦合到第一和第二组件的控制器。 第二个组件与传感器相关联。 所述控制器可操作以:通过一定范围的输入值调节所述井眼的输入流体的特性; 从传感器接收响应于输入值而变化的输入流体的多个输出值,表示井下状况的输出值; 并且基于测量的输出值来估计与井下状况不同的井筒参数。
    • 16. 发明授权
    • Downhole fluid flow control system having a fluidic module with a bridge network and method for use of same
    • 具有桥式网络的流体模块的井下流体流量控制系统及其使用方法
    • US08584762B2
    • 2013-11-19
    • US13217738
    • 2011-08-25
    • Michael Linley FrippJason D. DykstraJohn Charles GanoLuke William Holderman
    • Michael Linley FrippJason D. DykstraJohn Charles GanoLuke William Holderman
    • E21B34/08
    • E21B34/08E21B43/08E21B43/12
    • A downhole fluid flow control system includes a fluidic module (150) having a main fluid pathway (152), a valve (162) and a bridge network. The valve (162) has a first position wherein fluid flow through the main fluid pathway (152) is allowed and a second position wherein fluid flow through the main fluid pathway (152) is restricted. The bridge network has first and second branch fluid pathways (163, 164) each having a common fluid inlet (166, 168) and a common fluid outlet (170, 172) with the main fluid pathway (152) and each including two fluid flow resistors (174, 176, 180, 182) with a pressure output terminal (178, 184) positioned therebetween. In operation, the pressure difference between the pressure output terminals (178, 184) of the first and second branch fluid pathways (163, 164) shifts the valve (162) between the first and second positions.
    • 井下流体流量控制系统包括具有主流体路径(152),阀(162)和桥接网络的流体模块(150)。 阀(162)具有第一位置,其中允许通过主流体路径(152)的流体流动,并且其中流过主流体通路(152)的流体受到限制的第二位置。 桥网具有第一和第二分支流体路径(163,164),每个分支流体通路具有与主流体路径(152)相同的公共流体入口(166,168)和公共流体出口(170,172),并且每个包括两个流体流 具有位于其间的压力输出端子(178,184)的电阻器(174,176,180,182)。 在操作中,第一和第二分支流体路径(163,164)的压力输出端子(178,184)之间的压力差在第一和第二位置之间移动阀(162)。
    • 20. 发明申请
    • Managing Treatment of Subterranean Zones
    • 管理地下治理
    • US20120318511A1
    • 2012-12-20
    • US13161623
    • 2011-06-16
    • Jason D. DykstraMichael Linley Fripp
    • Jason D. DykstraMichael Linley Fripp
    • E21B36/00
    • E21B43/24
    • A downhole heated fluid generation system includes an air subsystem having at least one of an air compressor and an air flow control valve; a fuel subsystem having at least one of a fuel compressor and a fuel flow control valve; a treatment fluid subsystem having a fluid pump; a combustor fluidly coupled to at least one of the air subsystem, the fuel subsystem, or the treatment fluid subsystem, and operable to provide a heated fluid into a wellbore; and a controller operable to receive an input representing a heated fluid parameter; determine a virtual heated fluid generation rate based at least partially on the heated fluid parameter; and control at least one of the air subsystem, the fuel subsystem, or the treatment fluid subsystem by the virtual heated fluid generation rate.
    • 井下加热流体产生系统包括具有空气压缩机和空气流量控制阀中的至少一个的空气子系统; 具有燃料压缩机和燃料流量控制阀中的至少一个的燃料子系统; 具有流体泵的处理液体子系统; 流体耦合到空气子系统,燃料子系统或处理流体子系统中的至少一个的燃烧器,并且可操作以将加热的流体提供到井筒中; 以及控制器,其可操作以接收表示加热的流体参数的输入; 至少部分地基于加热的流体参数确定虚拟加热流体产生速率; 并且通过虚拟加热的流体产生速率来控制空气子系统,燃料子系统或处理流体子系统中的至少一个。