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493
resultados
Última actualización
10/09/2025 [07:07:00]
Resultados 400 a 425 de 493
Resumen de: GB2638417A
A floatable foundation 100 for a wind turbine generator comprising a tubular central column 10, an upper support structure 11 arranged about and fixed to the tubular central column, a lower support structure 12 fixed to the tubular central column 10, three outer column members 20,21,22 and three horizontally extending pontoon members 30,31,32, each fixed to and extending between the lower support structure 12 and an outer column member 20,21,22; and three horizontally extending beam members 40,41,42, each fixed to and extending between the upper support structure 11 and an outer column member 20,21,22. The upper support structure 11 may comprise a plurality of vertically arranged interconnected flat panels (11 a-f, Fig.6) and corresponding support plates (11g-l, Fig.6) and the pontoons and upper beam members may be box beams. There is also provided a method of constructing a floatable foundation 100 for a wind turbine generator.
Resumen de: GB2638500A
A floatable foundation (fig.2, 100) for a wind turbine generator comprising a central column structure having upper and lower support structures (fig.2, 11,12), three outer column members 20 each being a polygonal prism with rectangular side wall panels (fig.2, 22), three horizontal pontoon members 30 and three horizontal beam members 40 fixed between the central column structure and the outer column members, each pontoon member and each beam member being a box beam with four flat panels, and inner corner supports 70, each inner corner support comprising a rectangular plate 71 fixed to the rectangular side wall panel of the outer column member and to the pontoon and beam member. The rectangular plates may be oriented between 30 and 60 degrees towards the pontoon or beam members. The corner supports may have side panels 72 that may be welded to the rectangular plates.
Resumen de: GB2638495A
A method of designing a floatable foundation 100 for a wind turbine generator, the method comprising generating a three-dimensional (3D) computer model of the foundation 100; providing a set of metocean data representative of environmental conditions at a proposed operational site for the foundation 100; simulating an operation of the foundation 100 at the proposed operational site; and determining a parameter indicative of stress and/or fatigue loads on the floatable foundation 100 under the environmental conditions at the proposed operational site. There is also provided a floatable foundation 100 for a wind turbine generator, the floatable foundation 100 comprising three outer column members 20,21,22 disposed about a tubular central column 10, three horizontally extending pontoon members 30,31,32, three horizontally extending beam members 40,41,42, and a plurality of reinforcement members (50, Fig.26) each extending between at least two pontoon members 30,31,32.
Resumen de: EP4607065A1
A wind turbine gearbox connecting structure and a gearbox. The wind turbine gearbox connecting structure is used for connecting a sun shaft (1) and a planet carrier (2); and mutually matching butting surfaces are configured between the sun shaft (1) and the planet carrier (2), a plurality of mounting holes are formed in the butting surfaces to rigidly connect the sun shaft (1) to the planet carrier (2) by means of fixing members. In a wind turbine gearbox, the sun shaft (1) and the planet carrier (2) are connected by using the wind turbine gearbox connecting structure. The wind turbine gearbox connecting structure is simple in design and easy to operate, and the rigid connection of parts can be effectively achieved without heating the planet carrier, so that the manufacturing cost and the difficulty in field operation are reduced.
Resumen de: EP4607064A1
Provided is a wind turbine gearbox lubricating apparatus, wherein an inner shaft tube is arranged in a driving shaft and a driven shaft, an annular flow channel is formed by the inner shaft tube and the driving shaft, and lubricating oil is provided in the annular flow channel; and the lubricating oil in the annular flow channel can flow to a flexible spline through a lubricating oil flow channel to lubricate and cool spline teeth. Since the lubricating oil flows outward in a radial direction during lubrication, the lubricating oil can also provide sufficient lubrication for the spline teeth when a wind turbine rotates at a high speed, preventing abrasion and failure of the flexible spline, and prolonging the service life of a gearbox. Also provided is a wind turbine gearbox.
Resumen de: EP4607059A1
A wind turbine generator parallel-stage intermediate-speed shaft train connecting structure, comprising a sun shaft (1), a downstream shaft portion, and a high-speed gear (4), wherein the high-speed gear (4) is arranged outside of the downstream shaft portion in an axial direction, an axial position of the downstream shaft portion is fixed relative to a wind turbine generator box (9), and the sun shaft (1) is connected to the high-speed gear (4) by a thin-walled flange ring to allow the thin-walled flange ring to absorb a floating shift of the sun shaft (1) by means of elastic deformation.
Resumen de: EP4607773A1
A wind turbine generator parallel-stage intermediate-speed shaft train connecting structure, wherein a sun shaft and a hollow shaft are connected together by means of rigid connection. A bearing for the hollow shaft is arranged on a box body on one side of a generator. Floating shift of the sun shaft during the operation of the generator is absorbed by the bearing. Because interference splines are used to achieve the rigid connection between the sun shaft and the hollow shaft, there is no need to provide lubrication and cooling for the splines, and the structure has low manufacturing costs and the structure is simple. Further provided is a wind turbine generator parallel-stage intermediate-speed shaft train, having the advantages of simple structure and low maintenance costs.
Resumen de: EP4607734A1
Provided are a frequency response control method and device for a wind farm. The frequency response control method comprises: periodically determining a full-field power regulation quantity which is caused by the frequency and/or the frequency change rate of a grid connection point and required for regulation in a wind farm; when in a primary frequency modulation mode, periodically determining the actual full-field power deficit according to the current full-field power regulation quantity; according to the current actual full-field power deficit and the variable-pitch adjustable power of each unit in the wind farm within a future preset duration, determining the single-unit power regulation quantity of each unit; and issuing the corresponding single-unit power regulation quantity to each unit, so that each unit adjusts output power according to the corresponding single-unit power regulation quantity.
Resumen de: GB2638387A
A wind turbine rotor blade comprising: a plurality of carbon-containing structural spars 26, 28, 30, whereby each structural spar extends spanwise along the blade between a root-wards position and a tip-wards position, each structural spar having an outward facing surface; an electrically conductive lightning-protection structure, the electrically conductive lightning-protection structure being electrically connected to, or electrically connectable to, a ground connection at a root end of the wind turbine rotor blade; whereby the lightning-protection structure comprises a branch 34, 36, 38 for each structural spar, each branch extending along and covering the outward facing surface of the corresponding structural spar; each branch electrically connected to the respective structural spar at least at a tip-wards location and a root-wards location.
Resumen de: EP4607024A1
A method of operating a wind turbine (1) that comprises a wind turbine rotor (10) is provided. The wind turbine (1) comprises at least a first sensing device (12) configured to obtain a rotational speed of the wind turbine rotor (10) and a second sensing device (13) configured to obtain a rotational speed of the wind turbine rotor (10). The wind turbine (1) is operable in a first operating mode in which a rotational speed of the wind turbine rotor (10) is within a first speed range and is operable in a second operating mode in which the rotational speed of the wind turbine rotor (10) is within a second speed range. The second sensing device (13) has a noise level in the second speed range that is lower than a noise level of the first sensing device (12) in the second speed range. The wind turbine (1) is configured to operate a safety function that uses the rotational speed of the wind turbine rotor (10) as an input. The method comprises operating the wind turbine (1) in the first operating mode and providing a speed signal of the first sensing device (12) as an input to the safety function and operating the wind turbine (1) in the second operating mode and providing a speed signal of the second sensing device (13) as an input to the safety function.
Resumen de: EP4607737A1
A method for controlling a wind power plant (1), the wind power plant (1) comprising one or more generator devices (14) and a grid-forming component (5) electrically connected to an output terminal (17) of the one or more generator devices (14), the wind power plant (1) including an electrical grid and/or being electrically connected to an electrical grid (4), and the method comprising:a) determining (S4) a frequency deviation (ΔF) of a current frequency (FC) of the respective electrical grid (4) from a nominal frequency (FN),c) controlling (S7) the power flow in the wind power plant (1) and grid-forming component (5) based on the determined frequency deviation (ΔF) and a droop characteristic (27, 28) of the grid-forming component (5) relating on a current power output (PGC) of the one or more generator devices (14).Thus, frequency regulation of the grid can be improved.
Resumen de: EP4607025A1
Es wird ein Verfahren zur Überprüfung einer Schmiereinheit (200) in einer Windenergieanlage (100) vorgesehen, wobei die Windenergieanlage (100) mindestens eine zu schmierende Komponente (150) und eine Schmiereinheit (200) zum Schmieren der zu schmierenden Komponente (150) aufweist. Die Schmiereinheit (200) weist eine Pumpe (210) und ein Ventil (220) aufweist. Ein Testgerät (300) wird mit einem Pumpenanschluss (341) für die Pumpe (210) und einem Ventilanschluss (361) für das Ventil (220) vorgesehen. Der Pumpenanschluss (341) wird an die Pumpe (210) zur Steuerung der Pumpe (210) durch das Testgerät (300) angeschlossen. Der Ventilanschluss (361) wird an das Ventil (220) zur Steuerung des Ventils (220) durch das Testgerät (300) angeschlossen. Die Pumpe (210) und/oder des Ventils (220) wird mittels des Testgerätes (300) zur Überprüfung der Schmiereinheit (200) gesteuert.
Resumen de: EP4607050A1
The invention describes a main bearing unit (1) of a wind turbine drivetrain (2), comprising a tapered roller bearing (10) arranged between a housing (11) of the main bearing unit (1) and the low-speed shaft (20) of the drivetrain (2); a press-fit connection between an inner surface (11S) of the housing (11) and the outer surface (1025) of the bearing cup (102); and a means (3, 16) of facilitating an axial displacement (ΔP) of the bearing cup (102) to reinstate preload force (Fpreload) on the bearing (10). The invention further describes a method of reinstating a preload force (Fpreload) in a bearing (10) of such a main bearing unit (1) .
Resumen de: EP4607240A1
Die vorliegende Offenbarung betrifft ein computerimplementiertes Verfahren zur Kennzeichnung eines Luftfahrthindernisses (10) mit folgenden Schritten: Bereitstellen von ersten Transpondersignalen (16), welche jeweils einem Luftfahrzeug (12) einer Mehrzahl erster Luftfahrzeuge (12) zugeordnet sind und jeweils eine aktuelle Positionsinformation des Luftfahrzeugs (12) aufweisen, und Bereitstellen von jeweiligen ersten Signalstärkewerten für die ersten Transpondersignale (16); Bestimmen, aus den ersten Transpondersignalen (16), von jeweiligen Entfernungen der ersten Luftfahrzeuge (12) zu einem Luftfahrthindernis (10); Bestimmen von normierten Signalstärkewerten mittels jeweiligen Normierens der ersten Signalstärkewerte; Bestimmen eines Referenzwerts aus einem niedrigsten oder mehreren niedrigsten der normierten Signalstärkewerte; Bereitstellen eines zweiten Transpondersignals (16), welches einem zweiten Luftfahrzeug (12) zugeordnet ist, und eines zweiten Signalstärkewerts für das zweite Transpondersignal (16); Bestimmen des zweiten Luftfahrzeugs (12) als relevantes Luftfahrzeug oder Bestimmen des zweiten Luftfahrzeugs (12) als irrelevantes Luftfahrzeug unter Verwendung eines Vergleichs des zweiten Signalstärkewerts mit dem Referenzwert; und Erzeugen eines Ausgabesignals für eine Kennzeichnungsvorrichtung (11) zur Kennzeichnung des Luftfahrthindernisses (10) in Abhängigkeit vom Vorliegen oder Nichtvorliegen mindestens eines relevanten Luftfahrzeugs. Ferner sind ein Verfa
Resumen de: TW202432952A
The present invention relates to an electrical system (1) for a wind turbine, comprising a first electrical device (2), a second electrical device (3), a plurality of electrical conductors (4) for electrically connecting the first electrical device (2) to the second electrical device (3) and a monitoring system (5) for monitoring a temperature condition of an electrical conductor (4). The monitoring system (5) comprises a monitoring device (6) and a first control loop (7) with a first temperature switch (8) for performing a temperature-dependent electrical switching action. The invention also relates to a method for operating an electrical system (1) of a wind turbine and to a method for retro-fitting an electrical system (1) of a wind turbine.
Resumen de: CN120225344A
The invention relates to a distribution network (20) for producing a composite material element, in which the distribution network (20) comprises a distribution material (21) comprising at least one epoxy-compatible group and/or a group reactive to epoxy groups.
Resumen de: WO2024115295A1
A method of producing a wind turbine blade or a part thereof is described, the method comprising providing a mold containing a compound having a chemical structure of general formula (I) or of general formula (II), applying a resin into the mold, and curing the resin. In addition, a respectively produced wind turbine blade or a part thereof, a method of recycling a wind turbine blade or a part thereof and compounds that may be used in the production of a wind turbine blade or a part thereof, in particular as flow regulators and/or hot melt adhesives, are described, wherein R1, R2, R3, R4, R5 and R6 independently from each other represent a linear or branched, saturated or unsaturated, substituted or unsubstituted alkyl group; a linear or branched, saturated or unsaturated, substituted or unsubstituted heteroalkyl group; a saturated or unsaturated, substituted or unsubstituted cycloalkyl group; a saturated or unsaturated, substituted or unsubstituted heterocycloalkyl group; a substituted or unsubstituted aryl group; a substituted or unsubstituted heteroaryl group; a linear or branched, substituted or unsubstituted aralkyl group; or a linear or branched, substituted or unsubstituted alkaryl group; and n represents an integer of from 1 to 10.
Resumen de: TW202432275A
Rack (15, 15', 15'') as a transport and/or storage device for preform element (54) and/or precast element manufacturing, in particular for a wind turbine blade, the rack (15, 15', 15'') comprising a longitudinal frame structure (16), to which lateral support elements (21) are mounted, which each comprise a support portion (23) and which form multiple support assemblies (24) for multiple longitudinal items (44, 44', 44'') to store and transport horizontally in the frame structure (16), wherein the items (44, 44', 44'') have a horizontal manufacturing process orientation for use in the manufacturing process, wherein the support assemblies (24) comprise, - for support portions (23) of support elements (21) mounted opposingly in width direction (4), width adjustment means for adjusting the distance of support portions (23) of the support assemblies (24) in a width direction to different widths of the items (44, 44', 44''), and/or, - for support portions (23) spanning the frame structure (16) in the width direction (4) by having their support element (21) mounted to the frame structure (16) at opposing positions in the width direction (4), comprise shape adjustment means for adjusting to different height profiles of supported items (44, 44', 44'') in the width direction (4).
Resumen de: TW202430774A
A method of monitoring a mooring system (10) of a floating offshore installation, FOI, (100) that is moored by the mooring system (10) is provided. The method comprises obtaining parameters related to a position of the FOI, wherein the parameters include at least mooring system parameters that are indicative of a region (15) within which a position of the FOI is expected to lie. The method further includes obtaining position measurements of an actual position (11) of the FOI, and deriving, from the obtained parameters and from the position measurements of the FOI, a state of the mooring system (10) of the FOI.
Resumen de: WO2024083294A1
The invention relates to adjusting collective pitch of the wind turbine rotor blades. A sensor signal is received, from wind turbine sensors, indicative of wind turbine rotor loading in a fore-aft direction. A first component is determined, based on the received sensor signal, in the fore-aft direction, the first component including high frequency collective content, greater than 2P frequency content, from the received sensor signal. A second component that is orthogonal to the first component is generated. The first and second components are rotated about a phase angle to obtain first and second phase-shifted components. A collective pitch reference offset value is determined for the three rotor blades based on the first or the second phase-shifted component. A control signal is transmitted to adjust collective pitch of the rotor blades based on the determined collective pitch reference offset value.
Resumen de: CN120077362A
A computer-implemented method of performing a software upgrade of a control system of a wind turbine, the control system comprising a network of nodes, the method comprising the steps of receiving and reading an upgrade request, and in response to reading the upgrade request, performing an interrogation process during which one or more of the nodes are interrogated. Input from a query process is received and analyzed to determine if an upgrade request can be permitted. If permission is granted, at least one of the nodes is upgraded with new software.
Resumen de: DK202200941A1
After assembling a floating offshore wind turbine construction (1), which includes the wind turbine (2) as well as the support structure (3), it is transported to a platform (16) at a head of an inclined slipway (23) that extends from a level above a surface (4) of the water to a position under the surface (4) of the water. The construction (1) is launched by moving it from the platform (16) down along the slipway (23) into the water until the assembled floating offshore wind turbine (1) is lifted off the slipway (23) by the buoyancy on the floating support structure (3).
Resumen de: WO2024084024A1
In a first aspect, a wind turbine blade torsion measuring system is provided. The wind turbine blade torsion measuring system comprises a shaft, a rotary sensor assembly and a connecting structure. The connecting structure is configured to movably connect the rotary sensor assembly to a blade structure to allow a relative movement between the rotary sensor assembly and the blade structure in a direction substantially parallel to the spanwise direction of the wind turbine blade. In a further aspect, a wind turbine blade comprising one or more wind turbine blade torsion measuring systems is provided. In yet a further aspect, a method of determining the torsional deformation of this wind turbine blade is provided. In yet a further aspect, a method for mounting the wind turbine blade torsion measuring system in a wind turbine blade is provided.
Resumen de: CN120112739A
The invention relates to a shaft-hub connection (10) for a planetary transmission (2), comprising a shaft (12) and a hub element (14) which is drivingly connected to the shaft (12) via a spline (16) about a main axis of rotation (AR) and which circumferentially surrounds the shaft (12) from the outside. Wherein a housing element (3, 42), which is fixed relative to the main axis of rotation, is provided, and an oil duct (24), which opens in the region of the spline (16), extends in the housing element (3, 42) and in the hub element (14) in order to supply lubricating oil to at least the spline (16) via the oil duct (4) for refueling. Wherein a non-contact bushing (26) is arranged between the housing element (3, 42) and the hub element (14). Oil is delivered from the stationary component into the rotating component via the bushing (26).
Nº publicación: EP4605646A1 27/08/2025
Solicitante:
OMNI WIND B V [NL]
Omni Wind B.V
Resumen de: WO2024085754A1
The invention relates to a vertical axis wind turbine comprising: - a shaft that extends along a longitudinal axis; - a rotor that is rotatably attached to the shaft and comprises a number of rotor blades; - at least two wind guides that, when viewed along the longitudinal axis, are positioned on opposite sides of the rotor, wherein each wind guide has a wind guide surface that faces the rotor such that the wind guide surfaces form a wind duct; and wherein the wind guide surfaces are tiltable with respect to the longitudinal axis to adapt a height of the wind duct. The invention also relates to an energy generation assembly and a method for increasing the energy yield from a vertical axis wind turbine.
BOPI
Sede Electrónica
