Abstract: A system for handling a transfer device (10) for transferring load from a storage facility, sub sea or integrated in the production facility (1) to a vessel on the sea surface (2) comprising: a pickup line (11) comprising a first end (11a) connected to the transfer device (10) and a second end (11b & 11c) available at the sea surface (2); a connection device (13) for connection of the transfer device (10) to the tension buoy (14); a swiveling device (20) for rotation of the connection device (13) in relation to the tension buoy (14); and a position limiting device (21) fixed to the connection device (13), for limiting the position of the pickup line (11) in relation to the tension buoy (14).

Abstract: The invention regards a manifold for fluids, comprising a housing (10) with a center axis (11) and a number of fluid apertures (12,13) through the walls forming the housing (10) and a fluid diverter system (20), comprising a fluid diverter element (25) mounted in the system (20) selectively rotating around an axis, comprising an axial outlet (27) and an inlet (26) which may be positioned in connection with one fluid aperture (12,13) in the housing. The fluid diverter system (20) is axially insert able into the housing (10) and further comprises a ring element (21), with an outer configuration complementary to an inner configuration of the housing (10), which ring element (21) is positioned around the fluid diverter element (25) and connected to the fluid diverter element (25), and which ring element (21) comprises fluid apertures (22A,B) corresponding to the fluid apertures (12,13) in the housing.

Abstract: A method of controlling fluid pressure in a closed system including using a pressure regulating unit connected to the system, the unit including a first conduit fluidly connecting the closed system to an external system. A first regulating valve is interposed between the external system and one end of the conduit and a second regulating valve interposed between the closed system and the other end of the conduit. The method further includes: a) opening one of the first or second regulating valves; b) closing said one regulating valve; c) opening the other regulating valve; d) closing the other regulating valve; and e) repeating steps a) to d) in turn until the desired fluid pressure is achieved in the system.

Abstract: An arrangement for directing a fluid flow or a tool transported in a fluid flow in an under water structure includes plural flow line arrangements each including at least one flow line, and at least two distribution devices to be varied between at least two positions. One distribution device connects at least two flow arrangements providing for the selection of the fluid flow pattern directing the fluid through the distribution devices and the flow arrangements depending on the position of each of the distribution devices. A method directs a fluid flow or a tool transported in a fluid flow.

Abstract: An apparatus includes a pump having a pump drive shaft for operating the pump, a first motor connected via a first flexible coupling to drive one end of the shaft and a second motor connected via a second flexible coupling to drive the opposite end of the shaft. The apparatus also includes a variable speed drive connecting each of the first and second motors electrically to drive the pump drive shaft.

Abstract: Apparatus for homogenization of multi-phase fluid; the fluid including at least a first phase and a second phase a gaseous phase and a liquid phase; the apparatus including an inner reservoir fluidly communicative with an outer receptacle; the inner reservoir including an inlet for multiphase fluid, an outlet having a smaller cross sectional area than the body for outflow of the first phase and at least one opening into the outer receptacle for outflow of the second phase, the opening being spaced from the first phase outlet; wherein the outer receptacle has an inlet conduit having a neck which at least partially surrounds the inner reservoir outlet.

Abstract: A counter-rotating wet gas compressor for deployment and operation on the sea floor is described. The compressor has alternating rows of impellers, with each successive row of impellers being mounted a central hub or to an outer sleeve. According to some embodiments, no static diffusers are positioned between the alternating counter-rotating rows of impellers such that the design is structurally robust, compact and capable of compressing fluids that contain significant portions of liquid phase.

Abstract: Apparatus for use in sampling multiphase fluid in a fluid transport pipeline, the apparatus comprising: a process fluid conduit comprising a blind leg connected to an upstream section and a downstream section; and wherein a fluid sampling port is provided in the blind leg.

Abstract: A heat exchanger system is described that includes an inlet and an outlet for a first fluid and a heat exchanger between the inlet and the outlet wherein the first fluid circulates, wherein the heat exchanger comprises at least one deflector to guide the flow of a second fluid. A method is also described to exchange heat between a first and a second fluid using free convection velocity field to create forced convection in the heat exchanger of a heat exchanger system. A method to exchange heat between a first and a second fluid comprising providing a heat exchanger system between the first and the second fluids, said heat exchanger system comprising a heat exchanger wherein the first fluid circulates and increasing the flow turbulences of a second fluid around the heat exchanger.

Abstract: A transfer system is described comprising a subsea installation (4) which is fixed relative to the seabed (1), and at least one transfer element (5) for transfer of at least one fluid and/or electrical signals and/or electric current between the subsea installation (4) and a floating arrangement (3). The transfer element (5) is arranged for connection to the subsea installation (4) at a first end and comprises connecting means for connecting to the floating arrangement (3) at its free end (7). The transfer system further comprises a buoyancy element (31) which is anchored to the seabed, and is provided with at least one through-going hole in the vertical direction. The at least one transfer element (5) extends through the at least one hole in the buoyancy element (31) and is movable in both directions through the at least one hole.

Abstract: A fluid pump system comprises an electrical drive unit and a rotary pump comprising a rotatable shaft and a drive element formed from a number of impellers attached to the shaft for causing flow within a process fluid. The electrical drive unit comprises an electrical stator and an electrical rotor attached to the shaft via a coupling, the electrical stator being disposed adjacent to the electrical rotor. The electrical stator is disposed within a first casing and the rotary pump and the electrical rotor are disposed within a second casing. The first casing contains a first fluid and the second casing contains a second fluid.

Abstract: The present invention relates to a loading system for transferring at least one medium between a first installation and a floating vessel, comprising an anchoring device which can be fixed relative to a seabed, at least one elongated first transfer element, which is normally vertically oriented in an installed state, at least one flexible second transfer element arranged in the extension of the first transfer element by a swivel arrangement which is mounted between the first and second transfer element. The swivel arrangement is rotatable at least about a longitudinal axis of the first transfer element. A free end of the second transfer element, in an installed state when the system is not being used, is located freely suspended in the body of water. The invention also relates to a retrieval system and method.

Abstract: The present invention regards a subsea valve system comprising a valve, a fluid supply line connectable to a remote fluid supply and in connection with an inlet of the valve, an outlet of the valve connectable to an outlet fluid line and a fluid tight housing at least partly enclosing the valve. According to the invention the fluid supply line comprises an outlet within the housing, establishing a pressure within the housing mainly equal to the pressure of the supply fluid at the inlet of the valve. The invention also regards a method for protecting a subsea valve system.

Abstract: A system for handling a transfer device (10) for transferring load from a storage facility, sub sea or integrated in the production facility (1) to a vessel on the sea surface (2) comprising: a pickup line (11) comprising a first end (11a) connected to the transfer device (10) and a second end (11b & 11c) available at the sea surface (2); a connection device (13) for connection of the transfer device (10) to the tension buoy (14); a swiveling device (20) for rotation of the connection device (13) in relation to the tension buoy (14); and a position limiting device (21) fixed to the connection device (13), for limiting the position of the pickup line (11) in relation to the tension buoy (14).

Abstract: A resilient (slide) bearing device, for example for use in connection with support of a rotating element in a vessel, where the bearing insert comprises devices for gradual absorption of loads to which the bearing is exposed. This is achieved by the devices for gradual absorption of loads comprising two or more elastic elements with different modulus of elasticity, where the elements are furthermore placed in layers. A method for maintenance and service of the device is also presented.

Abstract: The invention relates to a sealing device for a swivel, an improved attachment device and a method for improving a seal in a swivel, where a sealing medium is composed according to the viscosity and chemical composition of the application concerned and has a viscosity substantially over 500 cst and where the sealing medium is pressurized by a pressure transmission unit.

Abstract: The present invention relates to a loading system for transferring at least one medium between a first installation and a floating vessel, comprising an anchoring device which can be fixed relative to a seabed, at least one elongated first transfer element, which is normally vertically oriented in an installed state, at least one flexible second transfer element arranged in the extension of the first transfer element by a swivel arrangement which is mounted between the first and second transfer element. The swivel arrangement is rotatable at least about a longitudinal axis of the first transfer element. A free end of the second transfer element, in an installed state when the system is not being used, is located freely suspended in the body of water. The invention also relates to a retrieval system and method.

Abstract: A system to pressurize barrier fluid of a submersible installation to provide a differential pressure between the ambient pressure surrounding the submersible installation and the pressure of the barrier fluid internally in the submersible installation during submersion of the system, wherein the differential pressure fits within a predetermined differential pressure range. The system comprises a pre-charge arrangement and a pressure intensifier which is adapted to start working at a start-up pressure. The pre-charge arrangement is adapted, during submerging of the system, to provide a differential pressure within the predetermined differential pressure range until the ambient pressure equals the start up pressure of the pressure intensifier, while the pressure intensifier is adapted to provide a differential pressure within the predetermined differential pressure range when the ambient pressure equals the start-up pressure of the pressure intensifier during further submersion of the system.

Abstract: A tanker (1) is converted to a floating production ship by a vertical opening (1) being cut out in the hull (1) and a cassette-like plate structure (7) inserted in the opening. The cassette (7) is composed of plate elements (12, 13) which are designed to fit and connect with the cut elements in the hull's opening. The cassette (7) will thereby form part of the ship's hull strength. The cassette has a vertical shaft (8) for mounting a turret (14) in/near the ship's bottom area. The turret (14) is wet-mounted in the shaft.

Abstract: The invention concerns a subsea system transporting fluid, wherein the subsea system comprises a first part having a flow path carrying a flow of fluid and at least a second part having a flow path provided for carrying fluid. The second part is temporarily being closed off from the flow path of the first part of the subsea system. The heat from the fluid transported in the first part of the subsea system is transferred to the second part by a heat conducting structure establishing a contact between the first and second part of the subsea system, to prevent the formation of hydrates in the second part of the subsea system.