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Floating wind power

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LastUpdate Updated on 05/06/2025 [07:12:00]
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Publicaciones de los últimos 120 días / Applications published in the last 120 days
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FLOATING STRUCTURE FOR OFFSHORE WIND POWER GENERATION AND INSTALLATION METHOD

Publication No.:  WO2025110644A1 30/05/2025
Applicant: 
STN CO LTD [KR]
(\uC8FC)\uC5D0\uC2A4\uD2F0\uC5D4
KR_102719402_B1

Absstract of: WO2025110644A1

Disclosed is a floating structure for offshore wind power generation, comprising: a box-shaped structure which can maintain the airtightness of the internal space; and a water inlet/outlet device through which water can be filled into or discharged from the lower portion of the internal space while an air layer exists in the upper portion of the internal space. The structure may be composed of: wall panels that can cover and seal the internal space; and a reinforcing framework, typically including columns and beams, that span the internal space to support the space between the wall panels, wherein the wall panels, columns, and beams may be integrated into a reinforced concrete structure.

FLOATING STRUCTURE

Publication No.:  US2025171116A1 29/05/2025
Applicant: 
SOLARDUCK HOLDING B V [NL]
SOLARDUCK HOLDING B.V
US_2025171116_PA

Absstract of: US2025171116A1

A floating structure comprises a buoyant member including a surrounding wall within which a pressure reservoir for storage of compressed gas is provided and a compressor for supplying compressed gas to the pressure reservoir. The compressor is a liquid piston gas compressor including two vessels for containing a liquid and a gas to be compressed above the liquid and a pump for pumping a liquid between the vessels. At least the vessels are located within the surrounding wall of the buoyant member and are provided with respective closable inlets for receiving gas from outside the buoyant member and respective closable outlets through which the vessels communicate with the pressure reservoir so as to transfer compressed gas from the vessels to the pressure reservoir under operating conditions.

SYSTEM FOR CONNECTING POWER OR FLUID LINES TO A FLOATING ENERGY CONVERTER DEVICE

Publication No.:  US2025174934A1 29/05/2025
Applicant: 
APL NORWAY AS [NO]
APL Norway AS
AU_2023227746_PA

Absstract of: US2025174934A1

A connection system for connecting at least two cables to or from a floating energy converter device is provided, comprising at least two cables, a lower connection structure, and an upper connection structure, at least one longitudinal element joining the lower connection structure and the upper connection structure. The at least two cables run through the lower connection structure and each of the cables are connected to the upper connection structure and each comprises a connectable end at the upper connection structure, wherein the system is non-buoyant, and the at least one longitudinal element is a flexible longitudinal element.

KINETIC ENERGY RECOVERY WIND-WAVE INTEGRATED SYSTEM

Publication No.:  US2025172119A1 29/05/2025
Applicant: 
SOUTH CHINA UNIV OF TECHNOLOGY [CN]
South China University of Technology
US_2025172119_PA

Absstract of: US2025172119A1

This invention introduces a kinetic energy recovery wind-wave integrated system for offshore wind power generation. The system consists of a semi-submersible platform equipped with a fan and an internal wave energy device. The device includes a shell housing a Power Take-Off (PTO) system, featuring a permanent magnet synchronous linear motor and an active controller. The motor's stator is fixed inside the shell, while its mover is connected to a counterweight block outside the stator, linked to the shell's top via a spring. Limiters are installed at both ends of the shell to restrict the counterweight block's movement. This system utilizes the wave energy device to absorb kinetic energy, which otherwise affects wind turbine stability, and converts it into usable electrical energy via the PTO system. This enhances the stability and safety of offshore wind turbine power generation.

A METHOD FOR DETERMINING THE PRODUCTION AVAILABILITY OF AN OFFSHORE WIND FARM

Publication No.:  EP4558725A1 28/05/2025
Applicant: 
TOTALENERGIES ONETECH [FR]
TotalEnergies OneTech
KR_20250043446_PA

Absstract of: WO2024018001A1

A method for determining the production availability of an offshore wind farm The present invention concerns a method for determining the production availability of an offshore wind farm (10) comprising at least one floating wind turbine (11), the method comprising: - obtaining wind farm data, - obtaining strategy data relative to operation and maintenance resources to carry out an action on the floating wind turbine(s) (11), - obtaining meteorological data relative to an offshore environment for the offshore wind farm (10) over a given period of time, - determining motion parameters as a function of the wind farm data and of the meteorological data, and - determining the production availability of the offshore wind farm (10) in the offshore environment over the given period of time on the basis of the wind farm data, of the strategy data, of the meteorological data, and of the determined motion parameters.

DENSE FLUIDS FOR BALLASTS

Publication No.:  EP4558392A2 28/05/2025
Applicant: 
MAGELLAN & BARENTS S L [ES]
Magellan & Barents, S.L
CN_119923346_PA

Absstract of: AU2023309353A1

Disclosed are dense fluids for use in offshore applications, such as wind turbine platforms, oil and gas platforms, gravity anchors, catenary weights as well as other gravity-based structures. The dense fluid can be mixed with low-density fluid and high-density solid particles to form an intermediate dense fluid. The intermediate dense fluid is mixed with intermediate-density solid particles having the same density as the intermediate dense fluid to form a dense fluid with the desired target density. The dense fluid can be produced cost-effectively by selecting intermediate-density particles which are plentiful and can be obtained cheaply.

Method of assembling a tubular floating structure and its use

Publication No.:  US2025162696A1 22/05/2025
Applicant: 
STIESDAL OFFSHORE AS [DK]
Stiesdal Offshore A/S
KR_20250048242_PA

Absstract of: US2025162696A1

A first and a second tubular member are welded to opposite sides of a stiffening ring in order to obtain a double-segment. Further segments can be added to form a tubular multi-segment with stiffening rings in between adjacent tubular members. The resulting multi-segment is used as a tubular buoyancy module in a floating offshore structure.

FLOATING PLATFORM WITH MULTI-FREQUENCY ADAPTIVE VIBRATION DAMPING AND OFFSHORE WIND POWER SYSTEM

Publication No.:  US2025162694A1 22/05/2025
Applicant: 
HUAZHONG UNIV OF SCIENCE AND TECHNOLOGY [CN]
HUAZHONG UNIVERSITY OF SCIENCE AND TECHNOLOGY
CN_117416477_PA

Absstract of: US2025162694A1

A floating platform with multi-frequency adaptive vibration damping and an offshore wind power system. The floating platform includes a platform body. An internal space of the platform body is divided by partitions to form a plurality of independent compartments. The compartments are used to hold water to form tuned liquid dampers (TLDs), so that a vibration damping effect on the platform body is achieved through the sloshing of water. The compartments form multi-order TLDs. Setting parameters of water in the compartments corresponding to the TLDs of different orders are different. The multi-order TLDs correspond to multi-order vibration frequencies of the platform body.

FLOATING-TYPE OFFSHORE WIND POWER MOORING SYSTEM CAPABLE OF REDUCING YAW MOTION

Publication No.:  US2025162691A1 22/05/2025
Applicant: 
KOREA INSTITUTE OF OCEAN SCIENCE & TECH [KR]
Korea Institute of Ocean Science & Technology
GB_2630489_PA

Absstract of: US2025162691A1

A floating-type offshore wind power mooring system capable of reducing a yaw motion including a floating body having three columns, disposed at the vertices of a triangle, respectively, and three pontoon units, disposed in a triangular shape to connect the multiple columns; and a wind power generation unit disposed in any one of the three columns and including a mooring unit. The mooring unit includes first, second, and third mooring lines, and a connection unit. The first mooring line has one end connected to any one of the three columns; the second mooring line has one end connected to another of the three columns; the third mooring line has one end connected to the seabed. The connection unit connects the other end of the first, second and third mooring lines so that the first mooring line, the second mooring line, and the third mooring line are arranged in a Y-shape.

FACTORY FOR PRODUCING AN ELONGATED TENSION MEMBER, AND METHOD FOR CONSTRUCTING SUCH A FACTORY

Publication No.:  WO2025105956A1 22/05/2025
Applicant: 
CABIN AIR GROUP BV [NL]
CABIN AIR GROUP B.V
WO_2025105956_PA

Absstract of: WO2025105956A1

A factory 2 for producing an elongated tension member is provided. The factory comprises at least one apparatus for producing the elongated tension member. The at least one apparatus comprises: a feeder, a processing device and at least one end fitting device. The feeder is arranged to provide input material. The input material comprises: at least one load bearing yarn and/or at least one load bearing wire and/or load bearing fibres. The processing device is arranged to wind and/or twist and/or bundle the input material provided by the feeder. The at least one end fitting device is arranged to provide the elongated tension member with a proximal end fitting and a distal end fitting. The factory further comprises a buoyant body 4 arranged to support said at least one apparatus for producing the elongated tension member.

ROTATION SPEED TRACKING CONTROL METHOD AND SYSTEM FOR FLOATING WIND TURBINE GENERATOR SET OPERATING ABOVE RATED WIND SPEED

Publication No.:  WO2025102628A1 22/05/2025
Applicant: 
UNIV TSINGHUA [CN]
\u6E05\u534E\u5927\u5B66
WO_2025102628_PA

Absstract of: WO2025102628A1

A rotation speed tracking control method and system for a floating wind turbine generator set operating above a rated wind speed, the method comprising: acquiring a gearbox ratio and the rated electromagnetic torque of a wind turbine generator set, the rotation speed of a rotor of the wind turbine generator set, the pitch angular velocity of a floating foundation of the wind turbine generator set, and the inflow wind speed of the wind turbine generator set; on the basis of the gearbox ratio, the rated electromagnetic torque, the rotation speed of the rotor, the pitch angular velocity of the floating foundation, and the inflow wind speed, using a first electromagnetic torque formula to calculate an electromagnetic torque control signal of the wind turbine generator set; sending to a wind turbine generator set controller the electromagnetic torque control signal, so as to eliminate a limit cycle, and controlling the electromagnetic torque of the wind turbine generator set, so as to keep the rotation speed of the rotor of the wind turbine generator set constant.

FLOATING-TYPE STAND-COLUMN TURBULENT FLOW STRUCTURE, FLOATING-TYPE STAND COLUMN AND FLOATING-TYPE FAN

Publication No.:  EP4556361A1 21/05/2025
Applicant: 
HUANENG CLEAN ENERGY RES INST [CN]
Huaneng Clean Energy Research Institute
EP_4556361_PA

Absstract of: EP4556361A1

A floating column spoiler structure, a floating column and a floating wind turbine are provided. The floating column spoiler structure includes multiple spoiler plates and lifting and unfolding assemblies connecting each of the spoiler plates and a column. Each of the lifting and unfolding assemblies includes a first connecting rod, a second connecting rod, a first gear and a second gear; a first end of the first connecting rod is rotatably connected with a first end of the second connecting rod, and each of the spoiler plates is arranged at the first end of the first connecting rod and the first end of the second connecting rod; a second end of the first connecting rod is rotatably connected with the first gear, and a second end of the second connecting rod is rotatably connected with the second gear.

MULTIFUNCTIONAL INTEGRATED PLATFORM

Publication No.:  EP4557604A1 21/05/2025
Applicant: 
HUANENG CLEAN ENERGY RES INST [CN]
Huaneng Clean Energy Research Institute
EP_4557604_PA

Absstract of: EP4557604A1

Disclosed in the present application is a multifunctional integrated platform, comprising a fan, a photovoltaic power generation system, a floating body, and a net cage. The fan, the photovoltaic power generation system and the net cage are all mounted on the floating body. The fan is configured to perform wind power generation, and the photovoltaic power generation system is configured to perform photovoltaic power generation, and comprises a plurality of photovoltaic cell panels. Integrated utilization based on a space is achieved, and the fan, the photovoltaic power generation system and the smart net cage are arranged on one floating body, such that the total construction cost is reduced.

INSTALLATION FOLLOWER FOR INSTALLING PLATE ANCHORS FOR FLOATING WIND TURBINES OF A WIND FARM

Publication No.:  EP4555148A1 21/05/2025
Applicant: 
ITREC BV [NL]
Itrec B.V
WO_2024013198_PA

Absstract of: WO2024013198A1

Installation follower (10) for installing plate anchors (30) for floating wind turbines of a wind farm, wherein each of the plate anchors comprises a plate (31) and a shank (33) for attaching a mooring line. The installation follower (10) has a hollow elongate body with a top end for driving the installation follower into the seabed, a bottom end for holding multiple plate anchors, and a central axis extending between the top end and the bottom end. The follower is at the bottom end provided with three or more docking stations (14, 15) arranged for holding the plate anchors parallel to the central axis and preferably uniformly distributed along a circumference of the installation follower.

PLATAFORMA FLOTANTE

Publication No.:  AR132079A1 21/05/2025
Applicant: 
GAZELLE WIND POWER LTD [IE]
GAZELLE WIND POWER LIMITED
TW_202442532_A

Absstract of: TW202442532A

A floating platform (1) comprising a pedestal frame (100) configured to serve as a support for a structure, wherein the pedestal frame (100) is attached to a bottom plate (200) by means of a plurality of pillars (300) such that, in operating condition, the pedestal frame (100) is supported by the bottom plate (200) by means of the pillars (300), wherein the floating platform (1) comprises a plurality of immersion floats (400) projecting from the bottom plate (200) to an intermediate distance between the bottom plate (200) and the maximum height above the bottom plate (200) of the pillars (300). It also includes a geometry that allows the platform to be manufactured exclusively with flat panels.

FLOATING-TYPE WIND POWER FLOATING BODY AND BALANCING METHOD FOR FLOATING-TYPE WIND POWER FLOATING BODY

Publication No.:  WO2025097850A1 15/05/2025
Applicant: 
HUANENG CLEAN ENERGY RES INSTITUTE [CN]
\u4E2D\u56FD\u534E\u80FD\u96C6\u56E2\u6E05\u6D01\u80FD\u6E90\u6280\u672F\u7814\u7A76\u9662\u6709\u9650\u516C\u53F8
WO_2025097850_PA

Absstract of: WO2025097850A1

Disclosed in the present application are a floating-type wind power floating body and a balancing method for a floating-type wind power floating body. A first floating body section is connected to a second floating body section by means of a first sealing device; the first floating body section is connected to a third floating body section by means of a second sealing device; a first water storage device is connected to a second water storage device by means of a first conveying device; a third water storage device is connected to a fourth water storage device by means of a second conveying device; and a fifth water storage device is connected to a sixth water storage device by means of a third conveying device. In the present application, by means of dividing the floating-type wind power floating body into three floating body sections, water pumping devices on the conveying devices in the floating body sections can be simultaneously controlled to operate, causing liquid stored in an initial water storage device to flow at a preset flow rate or a target flow rate to a final water storage device connected thereto, such that the final water storage devices in the floating body sections all store a target volume of water, thereby making the floating-type wind power floating body achieve a balance.

OFFSHORE WIND TURBINE PLATFORM

Publication No.:  WO2025099023A1 15/05/2025
Applicant: 
TOTALENERGIES ONETECH [FR]
TOTALENERGIES ONETECH
WO_2025099023_PA

Absstract of: WO2025099023A1

The invention relates to an offshore wind turbine platform (1) comprising: - a main body (4) intended to receive a mast of a wind turbine attached to it, - several floats (2), each float comprising an upper metal wall (2') forming an upper end of the float, a lower metal wall (2'') forming a lower end of the float, and several side walls (18, 28, 28', 48, 58) connecting the upper and lower metal walls to create a watertight enclosure of the float, - several metal connection structures (6), each metal connection structures comprising at least a first end (8) attached to one float and a second end (10) attached to the main body.

Factory for Producing an Elongated Tension Member, and Method for Constructing Such a Factory

Publication No.:  US2025153816A1 15/05/2025
Applicant: 
CABIN AIR GROUP B V [NL]
Cabin Air Group B.V

Absstract of: US2025153816A1

A factory for producing an elongated tension member has a buoyant body, which may be a ship with a hull and an upper deck, arranged to support at least one apparatus for producing the elongated tension member. The at least one apparatus for producing the elongated tension member has a feeder, a processing device and at least one end fitting device. The feeder is arranged to provide input material, such as at least one load bearing yarn and/or at least one load bearing wire and/or load bearing fibres (fibers). The processing device is arranged to wind and/or twist and/or bundle the input material provided by the feeder. The at least one end fitting device is arranged to provide the elongated tension member with a proximal end fitting and a distal end fitting.

OFFSHORE WIND TURBINE PLATFORM

Publication No.:  EP4552966A1 14/05/2025
Applicant: 
TOTALENERGIES ONETECH [FR]
TotalEnergies OneTech
EP_4552966_PA

Absstract of: EP4552966A1

The invention relates to an offshore wind turbine platform (1) comprising:- a main body (4) intended to receive a mast of a wind turbine attached to it,- several floats (2), each float comprising an upper metal wall (2') forming an upper end of the float, a lower metal wall (2") forming a lower end of the float, and several side walls (18, 28, 28', 48, 58) connecting the upper and lower metal walls to create a watertight enclosure of the float,- several metal connection structures (6), each metal connection structures comprising at least a first end (8) attached to one float and a second end (10) attached to the main body.

FLOATING POWER GENERATION PLATFORM

Publication No.:  EP4551455A2 14/05/2025
Applicant: 
MIGHTY WAVES ENERGY LLC [US]
MIGHTY WAVES ENERGY, LLC
KR_20250036849_PA

Absstract of: US2024010310A1

A floating power generation platform includes a water plane platform having a plurality of buoyant columns, and at least one tower extending above the water plane platform. The tower is configured to support at least one first power generation system and has a center core configured for stowing a deployable member. The floating power generation platform includes a deployable spar movable between a stowed position, in which the deployable spar is stowed within the center core of the tower, and a deployed position, in which the deployable spar is extended below the water plane platform.

DAMPING MOTION OF A FLOATING BODY

Publication No.:  WO2025093930A1 08/05/2025
Applicant: 
ACERGY FRANCE SAS [FR]
ACERGY FRANCE SAS
WO_2025093930_A1

Absstract of: WO2025093930A1

Motion of a floating body is damped by anchoring a piston with a sea anchor to restrict movement of the piston, permitting greater movement of a chamber that surrounds the piston and is fixed to the body, but braking the resulting relative movement between the chamber and the piston by displacement of fluid in the chamber. Thus, a motion damper has a brake structure that comprises a submerged sea anchor suspended in a water column and connected to a piston. The piston is movable within an elongate chamber that is in fixed relation to the floating body and that contains a fluid such as water.

DOCKING METHOD

Publication No.:  WO2025095830A1 08/05/2025
Applicant: 
TJOLOLO AB [SE]
TJOLOLO AB
WO_2025095830_A1

Absstract of: WO2025095830A1

A docking system (29) for docking a first floating object (1) anchored at sea with a first anchor (9) with a second floating object (18) comprising a vertical movement system providing vertical forces and a horizontal movement system providing horizontal forces. The vertical movement system comprises lifting means (31 ) located on the second floating object (18) providing a force for lifting the first floating object (1), and the horizontal movement system comprises retracting means (35) containing a connecting cable (36) providing a force for shortening the distance between the two floating objects and resilient separating means (37) encircling the two floating objects providing a resilient counterforce to prevent the two floating objects from colliding.

METHOD FOR CONSTRUCTING FLOATING WIND POWER GENERATION EQUIPMENT

Publication No.:  WO2025094466A1 08/05/2025
Applicant: 
SUMITOMO MITSUI CONSTRUCTION CO LTD [JP]
\u4E09\u4E95\u4F4F\u53CB\u5EFA\u8A2D\u682A\u5F0F\u4F1A\u793E
WO_2025094466_A1

Absstract of: WO2025094466A1

The purpose of the present invention is to provide a method for constructing floating wind power generation equipment which is less susceptible to the effects of wind and waves when towed. A provisional assembly (1a) is assembled on the ground. The provisional assembly (1a) includes: a base part (8) of a floating body (2); and provisionally mounted members (6, 13, 16) disposed at positions different from the positions at the time of completion. After assembling the provisional assembly (1a), the provisional assembly (1a) is launched. After being launched, the floating wind power generation equipment under construction is towed to an installation position, and the provisionally mounted members (6, 13, 16) are deployed to the positions at the time of completion. Since the vertical length of the provisional assembly (1a) is shorter than the floating wind power generation equipment at the time of completion, the provisional assembly (1a) is less likely to be affected by wind and waves when towed.

OFFSHORE HYDROCARBON PRODUCTION SYSTEM

Publication No.:  WO2025093931A1 08/05/2025
Applicant: 
SAIPEM S P A [IT]
SAIPEM S.P.A
WO_2025093931_A1

Absstract of: WO2025093931A1

An offshore hydrocarbon production system is provided with : an offshore floating assembly (6) having a floating unit (12) provided with a renewable power source (13) to generate electric power and a back-up power source (15); an underwater hydrocarbon production facility (4), which is located on the bed (2) of a body of water (3) and is electrically powered by the renewable power source (13) and/or the back-up power source (15); - a power circuit having a power management device (16) connected to the renewable power source (13), the back-up power source (15) and the underwater hydrocarbon production facility (4); and a control circuit having a master control unit (21) connected to the power management device (16) and the underwater hydrocarbon production facility (4) for balancing the production of electric power and the demand of electric power.

OPERATING A FLOATING WIND TURBINE

Nº publicación: WO2025093344A1 08/05/2025

Applicant:

SIEMENS GAMESA RENEWABLE ENERGY AS [DK]
SIEMENS GAMESA RENEWABLE ENERGY A/S

WO_2025093344_A1

Absstract of: WO2025093344A1

A method of operating a floating wind turbine (FWT) is provided. The floating wind turbine (100) comprises a nacelle (105) and a rotor (101) mounted to the nacelle (105), wherein the floating wind turbine (100) is exposed to waves during operation, the waves causing a wave induced motion of the floating wind turbine (100). The floating wind turbine (100) is configured to operate a protective function (30). The method comprises obtaining wave information (17) indicative of the waves to which the floating wind turbine (100) is exposed and modifying the operation of the protective function (30) using the obtained wave information (17) to reduce an influence of the wave induced motion of the floating wind turbine (100) on the protective function (30).

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