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    • 4. 发明申请
    • BOREHOLE PRODUCTION BOOSTING SYSTEM
    • 井眼生产升压系统
    • WO2002092965A1
    • 2002-11-21
    • PCT/GB2002/002255
    • 2002-05-14
    • ALPHA THAMES LTD.APPLEFORD, David, EricLANE, Brian, William
    • APPLEFORD, David, EricLANE, Brian, William
    • E21B43/36
    • E21B43/124E21B43/34
    • Method and apparatus for assisting the flow of production fluid from a hydrocarbon wellbore (4) to a remote host facility (16) including a separation facility (6) situated close to the wellbore (4). Jetting fluid is supplied initially from the host facility (16) to a downhole jet pump (14) via the separation facility (6) for assisting the flow of production fluid from the wellbore (4) to the separation facility (6) where the resulting mixture enters one of two parallel gravity separation chambers (32). Separated jetting fluid (60) is recirculated to the jet pump (14) via a pump (38) and production fluid is routed to the host facility via a production pipeline (18). A jetting fluid supply pipe (20) can be of relatively small diameter and the production pipeline (18) does not have to be enlarged to accommodate jetting fluid returned to the host facility (16).
    • 用于帮助将生产流体从烃井(4)流动到远程主机设施(16)的方法和装置,该远程主机设施(16)包括靠近井眼(4)的分离设施(6)。 喷射流体最初通过分离设备(6)从主机设施(16)提供到井下喷射泵(14),用于帮助生产流体从井眼(4)流到分离设备(6),在所述分离设备 混合物进入两个平行的重力分离室(32)之一。 分离的喷射流体(60)经由泵(38)再循环到喷射泵(14),并且生产流体经由生产流水线(18)被路由到主机设施。 喷射流体供应管道(20)可以具有相对较小的直径,并且生产管道(18)不必被扩大以适应返回主机设施(16)的喷射流体。
    • 5. 发明申请
    • SUBSEA HYDROCARBON PRODUCTION SYSTEM
    • SUBSEA碳氢化合物生产系统
    • WO2004003339A1
    • 2004-01-08
    • PCT/GB2003/002767
    • 2003-06-27
    • ALPHA THAMES LTDAPPLEFORD, David, EricLANE, Brian, William
    • APPLEFORD, David, EricLANE, Brian, William
    • E21B43/017
    • E21B43/017
    • A system (1) for extracting subsea hydrocarbon fluid has five discrete subsea developments (10, 12, 14, 16, 18) for hydrocarbon extraction linked to four hydrocarbon receiving facilities (2, 4, 6, 8) by a pipeline network (94). Each subsea development (10, 12, 14, 16, 18) has a manifold to which pipelines of the network (94) are connected, and a pair of retrievable modules (22) docked on the manifold. Each module has a control pod which is able to control flows of fluids between the subsea developments and between the subsea developments and the receiving facilities, and each control pod is connected to monitoring devices for monitoring parameters pertaining to the subsea developments. Parameters are monitored at a first one of the subsea developments and a requirement for a first fluid type is identified and parameters at another second one of the subsea developments are monitored and a surplus of the first fluid type is identified. The relevant control pods are then operated to enable a quantity of the first fluid to be conveyed from the second to the first subsea development via the pipeline network (94).
    • 用于提取海底烃流体的系统(1)具有五个离散的海底开发(10,12,14,16,18),用于通过管道网络(94)连接到四个碳氢化合物接收设施(2,4,6,8)的烃提取 )。 每个海底开发(10,12,14,16,18)具有连接网络(94)的管道的歧管,以及对接在歧管上的一对可检索模块(22)。 每个模块都有一个控制箱,能够控制海底发展之间以及海底发展和接收设施之间的流体流动,每个控制舱连接到监控装置,用于监测与海底发展相关的参数。 在第一个海底开发中监测参数,并且识别对第一流体类型的要求,并且监测海底开发的另一个第二个的参数,并且识别第一流体类型的剩余。 然后操作相关的控制盒,以使得能够经由管道网络(94)从第二到第一海底显影传送的第一流体的量。
    • 6. 发明申请
    • A METHOD AND SYSTEM FOR CONTROLLING THE OPERATION OF DEVICES IN A HYDROCARBON PRODUCTION SYSTEM
    • 用于控制油气生产中装置的方法和系统
    • WO2004003328A2
    • 2004-01-08
    • PCT/GB2003/002787
    • 2003-06-27
    • ALPHA THAMES LTDAPPLEFORD, David, EricLANE, Brian, WilliamWAKEFIELD, Paul, David
    • APPLEFORD, David, EricLANE, Brian, WilliamWAKEFIELD, Paul, David
    • E21B
    • E21B43/12
    • A system for controlling the operation of devices (61, 62, 63) of a hydrocarbon production system has two reprogrammable central controllers (100) contained in a retrievable module (49a) of a seabed facility (20') associated with a hydrocarbon field (170). Local controllers are configured to control the operation of specific devices, such as actuators (61), sensors (62) and valves (63) within the module (49a) and within tree wellheads (30') of the field (170) and are locally connected to these devices (61, 62, 63). A single common data bus (130) links the central controllers (100) and the local controllers and enables data to be transmitted between the central controllers (100) and the local controllers in response to the central controllers (100) receiving signals. Each local controller has a microprocessor for processing the data transmitted to it, and the processed data is transmitted between the local controller and its associated devices (61, 62, 63) in accordance with the processed data so as to locally control the operation of those devices.
    • 用于控制烃生产系统的装置(61,62,63)的操作的系统具有包含在与烃场相关联的海床设施(20')的可回收模块(49a)中的两个可重新编程的中央控制器(100) 170)。 本地控制器被配置为控制特定设备(例如模块49a内的传感器)和阀(63)以及场(170)的树井口(30')内的操作,并且是 本地连接到这些设备(61,62,63)。 单个公共数据总线(130)响应于中央控制器(100)接收信号而链接中央控制器(100)和要发送的使能数据。
    • 7. 发明申请
    • SYSTEM AND METHOD FOR SEPARATING FLUIDS
    • 用于分离流体的系统和方法
    • WO2003033871A1
    • 2003-04-24
    • PCT/GB2002/004637
    • 2002-10-11
    • ALPHA THAMES LTDAPPLEFORD, David, EricLANE, Brian, William
    • APPLEFORD, David, EricLANE, Brian, William
    • E21B43/36
    • E21B43/36
    • A system for separating fluids from a hydrocarbon well production fluid mixture at a subsea location has a centrifugal separator (16) for separating the mixture into gas and liquid. A hydrocyclone separator (32) then separates the liquid into oil and water and an oil-in-water sensor (38) detects the amount of oil in water leaving the separator. If the sensor (38) detects that the water contains more than the prescribed amount of oil, the water is recirculated through the hydrocarbon separator (32) for removal of further oil form water. The hydrocyclone separator (32) has a level interface sensor (66) and if this sensor detects that the oil/water interface is not within prescribed limits for optimum separation of the oil and water, the amount of oil removed from the separator is adjusted until the oil/water interface is within the prescribed limits. The sensors (38, 66) are connected to a control means (68) which controls electrically actuable control valves (42, 58) to cause the water to be recirculated to adjust the amount of oil removed from the hydrocarbon separator. The system also includes a gas slug detection device (14) upstream of the centrifugal separator (16) for sensing the presence of a gas slug in the production fluid. A liquid flow control valve (21) is adjusted by the control means (68) to ensure that the level of liquid in the centrifugal separator (16) does not fall below prescribed limits.
    • 用于在海底位置从烃井生产流体混合物中分离流体的系统具有用于将混合物分离成气体和液体的离心分离器(16)。 水力旋流分离器(32)然后将液体分离成油和水,并且水包油传感器(38)检测离开分离器的水中的油量。 如果传感器(38)检测到水含有超过规定量的油,则水通过烃分离器(32)再循环以除去进一步的油状水。 水力旋流分离器(32)具有液位界面传感器(66),如果该传感器检测到油/水界面不在规定的限度内,以最佳地分离油和水,则调节从分离器去除的油量,直到 油/水界面在规定的范围内。 传感器(38,66)连接到控制电气控制阀(42,58)的控制装置(68),以控制水再循环以调节从烃分离器去除的油量。 该系统还包括在离心分离器(16)上游的气体块检测装置(14),用于感测在生产流体中存在气体塞。 通过控制装置(68)调节液体流量控制阀(21),以确保离心分离器(16)中的液体水平不会低于规定的限度。