会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 6. 发明公开
    • SUBSEA CONTROL VALVE
    • EP3516277A1
    • 2019-07-31
    • EP17777227.4
    • 2017-09-22
    • FMC Kongsberg Subsea AS
    • MAGNUS, Heyn, HalfdanMATHISEN, Stig, Fredrik
    • F16K11/087
    • The present invention relates to a subsea control valve (10) for controlling the supply of hydraulic fluid to a subsea fluid-actuated device (4). The valve comprises a housing (11) with an input fluid line bore (16) connectable to a input fluid system (2), a return fluid line bore (17) connectable to a return fluid system (3) and an actuator fluid line bore (18) connectable to the fluid-actuated device (4). A ball valve member (20) with a through bore (21) is pivotably connected within the housing (11) between the input fluid line bore (16), the return fluid line bore (17) and the actuator fluid line bore (18), the ball valve member (20) having a first and a second position. The actuator fluid line bore (18) and the return fluid line bore (17) are connected to each other via the through bore (21) when the ball valve member (20) is in its first position, thereby allowing fluid to be returned from the fluid-actuated device (4) to the return fluid system (3). The input fluid line bore (16) and the actuator fluid line bore (18) are connected to each other via the through bore (21) when the ball valve member (20) is in its second position, thereby allowing fluid to flow from the input fluid system (2) to the fluid-actuated device (4).
    • 8. 发明公开
    • HEAVY SOLIDS SEPARATOR
    • EP3374086A1
    • 2018-09-19
    • EP16791036.3
    • 2016-11-07
    • FMC Kongsberg Subsea AS
    • OPAWALE, Adekunle, Olutayo
    • B04C5/04B04C5/081B04C5/13B04C5/185
    • B01D21/267B01D21/265B04C5/081B04C5/13B04C5/185
    • The present invention provides a heavy solids separator for separating solids from fluids, comprising a swirl-generating chamber (1) and a solids accumulation chamber (2), wherein the swirl-generating chamber (1) comprises an inlet (3), a solids outlet (4) and a fluid extraction pipe (5) arranged at the centerline (C) of the chamber (1), the inlet arranged at an upper part of the swirl-generating chamber, the solids outlet is fluidly connected to the solids accumulation chamber and arranged in the bottom of the swirl-generating chamber, and the fluid extraction pipe (5) has a fluid inlet (6,19) comprising an opening (6) arranged at the centerline of the fluid extraction pipe, the opening facing the solids outlet (4), and a fluid outlet (7) for extracting fluid out of the swirl-generating chamber; and the solids accumulation chamber (2) comprises a solids inlet (8) fluidly connected to the solids outlet (4) of the swirl-generating chamber, and a solids outlet (9) arranged in a lower part of the solids accumulation chamber; and at least parts of the swirl-generating chamber and the solids accumulation chamber are arranged in a cylindrical housing (12) comprising a funnel-shaped frustoconical element (13) delimiting at least a lower section of the swirl-generating chamber and an upper section of the solids accumulation chamber, the funnel-shaped frustoconical element has an upper opening (14) and a lower opening (15), the upper opening having a larger diameter than the lower opening; wherein the solids accumulation chamber (2) comprises a fluid outlet (10) arranged above the level of the solids inlet (8) and fluidly connected downstream of the fluid outlet (7) of the fluid extraction pipe.
    • 9. 发明公开
    • PUMP PROTECTION METHOD AND SYSTEM
    • EP3371453A1
    • 2018-09-12
    • EP16790994.4
    • 2016-11-03
    • FMC Kongsberg Subsea AS
    • TODAL, KarenGRØTTERUD, Helge
    • F04B49/06
    • F04B49/065F04B49/06
    • A method of protecting a hydrocarbon pump (6) from excessive flow rates in a system for pumping a hydrocarbon fluid, which system comprises said pump and an electrical motor (10) for driving the pump. The method comprises the steps of: for each of a plurality of gas volume fraction values of the hydrocarbon fluid, establishing a maximum torque limit for the pump by mapping the maximum allowable torque of the pump as a function of the differential pressure across the pump, thereby creating a plurality of maximum torque curves (4), each representing the maximum torque limit for a unique gas volume fraction value; from the plurality of maximum torque curves (4), establishing a master maximum torque curve (5) which represents the maximum torque limit for all gas volume fraction values; monitoring the torque of the pump and the differential pressure across the pump; based on the monitored differential pressure (DP′) and using the master maximum torque curve, establishing a maximum allowable torque (T′) for the pump; and taking a predetermined action if the monitored torque exceeds the established maximum allowable torque (T′), e.g. raising an alarm and/or shutting down the system.