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    • 61. 发明申请
    • SYSTEMS AND METHODS OF DRILLING CONTROL
    • 钻井控制系统与方法
    • US20150105912A1
    • 2015-04-16
    • US14403119
    • 2012-07-12
    • Jason D. Dykstra
    • Jason D. Dykstra
    • E21B41/00G05B15/02
    • E21B41/0092E21B44/00E21B45/00E21B47/00
    • A system to optimize a drilling parameter of a drill string includes a drill string control subsystem. The system includes an optimization controller to coordinate operations of the drill string control subsystem during a drilling process at least in part by: determining a first optimized rate of penetration based on a drilling parameter model and a first drilling parameter estimate; providing a first set of commands to the drill string control subsystem based on the first optimized rate of penetration; determining a second drilling parameter estimate during the drilling process based, at least in part, on the drilling parameter model and feedback corresponding to the drill string control subsystem; determining a second optimized rate of penetration during the drilling process based on the second drilling parameter estimate; and providing a second set of commands to the drill string control subsystem based on the second optimized rate of penetration.
    • 用于优化钻柱的钻孔参数的系统包括钻柱控制子系统。 所述系统包括优化控制器,用于在钻井过程期间至少部分地通过以下方式来协调钻柱控制子系统的操作:基于钻井参数模型和第一钻井参数估计确定第一优化的穿透速率; 基于所述第一优化的穿透速率向所述钻柱控制子系统提供第一组命令; 至少部分地基于对应于钻柱控制子系统的钻孔参数模型和反馈,在钻孔过程中确定第二钻孔参数估计; 基于所述第二钻孔参数估计确定所述钻孔过程中的第二优化穿透速率; 以及基于所述第二优化穿透速率向所述钻柱控制子系统提供第二组命令。
    • 62. 发明授权
    • Three dimensional fluidic jet control
    • 三维流体喷射控制
    • US08844651B2
    • 2014-09-30
    • US13187821
    • 2011-07-21
    • Michael L. FrippJason D. Dykstra
    • Michael L. FrippJason D. Dykstra
    • E21B10/61E21B7/18E21B41/00
    • E21B10/61E21B41/0078
    • A method of controlling a fluid jet can include discharging fluid through an outlet of a jetting device, thereby causing the fluid jet to be flowed in multiple non-coplanar directions, and the fluid jet being directed in the non-coplanar directions by a fluidic circuit of the jetting device. A jetting device can include a body having at least one outlet, and a fluidic circuit which directs a fluid jet to flow from the outlet in multiple non-coplanar directions without rotation of the outlet. A method of drilling a wellbore can include flowing fluid through a fluidic switch of a jetting device, thereby causing a fluid jet to be discharged in multiple non-coplanar directions from the jetting device, and the fluid jet cutting into an earth formation.
    • 控制流体射流的方法可以包括通过喷射装置的出口排出流体,从而使得流体射流在多个非共面方向上流动,并且流体射流通过流体回路在非共面方向上被引导 的喷射装置。 喷射装置可以包括具有至少一个出口的主体和引导流体射流在多个非共面方向上从出口流出而不旋转出口的流体回路。 钻井井的方法可以包括使流体流过喷射装置的流体开关,从而使得流体射流从喷射装置以多个非共面方向排出,流体射流切割成地层。
    • 64. 发明授权
    • Selectively variable flow restrictor for use in a subterranean well
    • 用于地下井的选择性可变流量限制器
    • US08678035B2
    • 2014-03-25
    • US13084025
    • 2011-04-11
    • Michael L. FrippJason D. Dykstra
    • Michael L. FrippJason D. Dykstra
    • F15C1/16
    • E21B43/12E21B34/08E21B47/18Y10T137/2098Y10T137/2109Y10T137/2202Y10T137/2218
    • A variable flow resistance system for use with a subterranean well can include a flow chamber through which a fluid composition flows, the chamber having at least two inlets, and a flow resistance which varies depending on proportions of the fluid composition which flow into the chamber via the respective inlet flow paths, and an actuator which varies the proportions. The actuator may deflect the fluid composition toward one of the inlet flow paths. A method of variably controlling flow resistance in a well can include changing an orientation of a deflector relative to a passage through which a fluid composition flows, thereby influencing the fluid composition to flow toward one of multiple inlet flow paths of a flow chamber, the chamber having a flow resistance which varies depending on proportions of the fluid composition which flow into the chamber via the respective inlet flow paths.
    • 与地下井一起使用的可变流阻系统可以包括流动室,流体组合物通过该流动室流动,腔室具有至少两个入口,流动阻力根据流入腔室的流体组成的比例而变化 相应的入口流动路径和改变比例的致动器。 致动器可以将流体组合物偏向于一个入口流动路径。 可变地控制井中的流动阻力的方法可以包括改变偏转器相对于流体组合物流过的通道的取向,从而影响流体组成流向流动室的多个入口流动路径之一,腔室 具有根据通过相应入口流动路径流入腔室的流体组成的比例而变化的流动阻力。
    • 66. 发明授权
    • Systems for self-balancing control of mixing and pumping
    • 混合泵送自平衡控制系统
    • US07620481B2
    • 2009-11-17
    • US11803151
    • 2007-05-11
    • Jason D. Dykstra
    • Jason D. Dykstra
    • G05D7/00G06F17/00G05B21/00B28C7/04B01F15/04
    • B01F15/00207B01F15/00233B01F15/00285E21B21/062E21B33/14G05D11/135
    • Systems for controlling the in-feed and discharge rates of materials flowing into and out of a mixing process where one priority is to achieve a target mixture flow rate from the mixing process and another priority can be to achieve a target value for a mixture property. Actuators can be operated to control material in-feed rates, the mixture composition, and discharge rate, and can maintain a hold-up of the mixture in the mixing process. A total flow rate controller provides a control signal to a controller acting on the discharge rate and a controller acting on the in-feed rates. The mixture discharge flow rate can be automatically reduced from its desired target when the commanded rate of at least one of the materials exceeds its available supply rate as inferred from an inability to maintain the targeted value for the mixture property.
    • 用于控制流入和流出混合过程的材料的进料和排出速率的系统,其中一个优先事项是从混合过程获得目标混合物流速和另一优先级可以是获得混合物性质的目标值。 可以操作致动器来控制材料进料速率,混合物组成和排出速率,并且可以在混合过程中保持混合物的滞留。 总流量控制器向控制器提供控制信号,该控制器作用于排放速率,控制器作用于进给速率。 当不能维持混合物性能的目标值时,当至少一种材料的指令速率超过其可用供应速率时,混合物排放流量可以从其期望的目标自动降低。
    • 67. 发明授权
    • Methods for managing flow control valves in process systems
    • 在过程系统中管理流量控制阀的方法
    • US07606636B2
    • 2009-10-20
    • US11700533
    • 2007-01-31
    • Jason D. Dykstra
    • Jason D. Dykstra
    • G05D7/00G05B13/02
    • G05D7/0635G05B13/041G05B23/0283
    • Methods for managing the operational condition of flow control valves in process systems. As a control valve experiences mechanical wear during operation, the physical changes to the valve can alter its dead band and flow coefficient. A non-linear dynamic model determines the present dead band by modeling the relationship between the actual flow through the valve and the commanded drive signal to the valve. The present valve flow coefficient can be determined by removing the dead band from the drive signal and using that modified signal in a flow rate model for the valve to adaptively find the flow coefficient value which matches the predicted flow from the flow rate model to the present measured flow from a flow rate sensor. The present dead band and flow coefficient can be used to update valve control algorithms and to make valve maintenance decisions.
    • 管理流程系统中流量控制阀运行状态的方法。 由于控制阀在运行过程中经历机械磨损,因此阀门的物理变化可改变其死区和流动系数。 非线性动力学模型通过建模通过阀门的实际流量与到阀门的指令驱动信号之间的关系来确定当前死区。 目前的阀流量系数可以通过从驱动信号去除死区来确定,并且在阀的流量模型中使用该修正信号来自适应地找到与从流速模型到现在的预测流量相匹配的流量系数值 从流量传感器测量流量。 目前的死区和流量系数可用于更新阀门控制算法并进行阀门维护决策。
    • 70. 发明申请
    • Method and Apparatus for Controlling the Manufacture of Well Treatment Fluid
    • 用于控制井处理液制造的方法和装置
    • US20080236818A1
    • 2008-10-02
    • US11691623
    • 2007-03-27
    • Jason D. Dykstra
    • Jason D. Dykstra
    • E21B49/08E21B47/00
    • E21B43/267
    • A method and apparatus for controlling the production of well treatment fluid is disclosed. The apparatus includes: a sand system, a water system, a pumping system, a blender tub, and a virtual rate control system. The method includes determining an output rate from a sand system; sensing an output rate from a water system; sensing an output rate from a pumping system; sensing the height within a blender tub of a mixture of sand from the sand system and water from the water system; providing a virtual rate control system; and producing a drive signal to the pumping system using the virtual rate control system using a desired rate of well treatment fluid to be delivered to a well, the output rate of the sand system, the output rate of the water system, and the output rate of the pumping system.
    • 公开了一种用于控制井处理流体的生产的方法和装置。 该装置包括:沙子系统,水系统,泵送系统,搅拌桶和虚拟速率控制系统。 该方法包括确定砂系统的输出速率; 感测水系统的输出速率; 感测来自泵送系统的输出速率; 感测来自砂体系的砂混合物的搅拌桶内的高度和来自水系统的水; 提供虚拟速率控制系统; 以及使用所述虚拟速率控制系统,使用要输送到井的井处理流体的期望速率,砂系统的输出速率,水系统的输出速率和输出速率,向泵送系统产生驱动信号 的泵送系统。