Siemens Aktiengesellschaft

Siemens Gamesa Renewable Energy A/s

Jesper Moeller

Henrik Stiesdal

Johnny Soerensen

Paul Brian Brogan

Thomas Hammer

Jörg Dorn

Peter Menke

Dominik Ergin

Hans-Joachim Knaak

Kenneth Helligsoe Svinth

Steen Mattrup Hansen

Jan Thisted

Henrik Fomsgaard Lynderup

Jacob Groenvald Nielsen

Henrik Lynderup Hansen

Russell James Brice

Boris Franke

Roland Schuster

Mark Reinders

Peter Andresen

Michell Mirsbach Olsen

Andreas Winther Jepsen

Jasper Koot

A wind turbine is provided including: a power production component including at least a generator; an electric assembly and at least one first further wind turbine to an electric export cable, which is connectable or connected to a power grid, such that the electric assembly configures the wind turbine as a booster turbine, wherein the electric assembly comprises: a switchgear operated on a first lower voltage level; a transformer for transforming, from a primary side of the transformer, and a second higher voltage level input and/or output interface, located at the secondary side of the transformer and operating on the second higher voltage level, for providing an interconnection link to a second further wind turbine that is configured as a booster turbine and is arranged to receive and/or provide power via the interconnection link on the second higher voltage level.

Wind turbine and wind farm

Provided is a lifting apparatus for a lifting crane, adapted to carry an elongated component having a non-circular cross section extending over the major part of its length, especially a rotor blade of a wind turbine, including a frame with at least one holder for holding the component with a horizontal orientation, wherein a pitching system for pitching the component around its longitudinal axis is provided.

Lifting apparatus for a lifting crane

Provided is a system for assembling or disassembling components of a wind turbine including: a motion compensation mechanism, wherein the motion compensation mechanism includes: a first connection interface for connection with a first component of the wind turbine moved by a crane, a second connection interface for connection with a second component of the wind turbine, a tension element connecting the first connection interface and the second connection interface, and a tension device for keeping the tension element under constant tension as the first component and the second component move relative to each other, wherein the motion compensation mechanism allows a movement of the first component relative to the second component as the first component and the second component are moved relative to each other on a given trajectory.

System and method for assembling or disassembling of a wind turbine

An offshore arrangement, a connecting device, and a method for providing an electrical offshore connection. An offshore arrangement, in particular offshore wind farm, including a first substation, second substation, a first connecting cable electrically connected to the first substation, a second connecting cable electrically connected to the second substation, and an intermediate cable electrically connecting the first and the second cable, wherein at least one of the first and the second connecting cable is more flexible than the intermediate cable. Thus, by using the less flexible cable, costs for a cable connection between substations may be reduced.

Offshore arrangement, a connecting device, and a method for providing an electrical offshore connection

A method for connecting a blade to a hub of a wind turbine, the method including pulling the blade towards the hub using a rope guided through an interior of the hub is provided. Thus, movements between the hub and the blade, in particular due to oscillations or waves, are reduced during the connection process.

Method for connecting a blade to a hub and method for disconnecting a blade from a hub

Provided is a lifting tool for lifting a wind turbine blade by means of a crane for subsequent assembly with a wind turbine, the lifting tool having at least one attachment means for attachment to the crane and at least one holding device for holding the wind turbine blade, whereby the at least one holding device is connected to a controller of the lifting tool and the holding device includes at least one movable supporting element for supporting the wind turbine blade and at least one actuator connected to the at least one movable supporting element and controlled by the controller so that the movable supporting element is movable by means of the actuator. Further provided is a lifting arrangement, a wind turbine installation environment and a method for assembling a wind turbine blade with a hub of a wind turbine.

Lifting tool for lifting a wind turbine blade, lifting arrangement, wind turbine installation environment and method for assembling a wind turbine blade with a hub of a wind turbine

Provided is a lifting arrangement configured to facilitate alignment of a load with a wind turbine assembly. The lifting arrangement includes a crane arrangement for hoisting the load to the wind turbine assembly, a tagline arrangement for stabilizing the load during a lifting manoeuvre, a sensor arrangement configured to detect a motion of the wind turbine assembly relative to the load during the lifting manoeuvre, an actuator arrangement for adjusting the position of the load relative to the wind turbine assembly, and a control arrangement for controlling actuators of the actuator arrangement to reduce the detected relative motion. Also provided is a method of aligning a load with a wind turbine assembly.

Wind turbine lifting arrangement

A lifting device for a wind turbine component includes a yoke for connecting the wind turbine component to a crane, the yoke including at least one sensor for measuring the position and/or the speed and/or the acceleration of the wind turbine component at least during a lifting operation of the component is provided. The yoke further includes a pitching device for rotating the wind turbine component around a pitching axis when the wind turbine component is connected to the yoke. The lifting device further includes a controller for controlling the rotation of the pitching device around the pitching axis as a function of the measurement of the at least one sensor.

Lifting device for wind turbine components

Provided is an offshore wind turbine installation arrangement, including a lifting assembly realized to hoist a suspended load between a floating installation vessel and a wind turbine assembly, the lifting assembly including a crane supported by the floating installation vessel; a sensor arrangement realized to sense at least a motion of the floating installation vessel; and a controller realized to control elements of the lifting assembly on the basis of the sensed installation vessel motion to adjust the position of the suspended load relative to the wind turbine assembly. Also provided is a method of hoisting a load between a floating installation vessel and an offshore wind turbine assembly.

Sensing arrangement for stabilizing an offshore wind turbine installation arrangement

Provided is a lifting device for a wind turbine component including a yoke for connecting the wind turbine component to a crane, the yoke including at least one anchor point connectable to a forcing system for pushing or pulling the yoke in order to rotate the yoke around a central axis of the yoke. The yoke is configurable in at least a first closed configuration, wherein in the first closed configuration the at least one anchor point is at a first distance from the central axis of the yoke, and at least a second extended configuration, wherein in the second extended configuration the at least one anchor point is at a second distance from the central axis of the yoke greater than the first distance.

Provided is a transition piece for a wind turbine, to connect a wind turbine to a foundation, wherein the transition piece includes a connection area to be connected to a foundation.

Transition piece for a wind turbine

A load guiding arrangement realized for mounting to a crane, which load guiding arrangement comprises a number of load guides, wherein a load guide comprises a guide wire extending from a lower level of the crane to an upper level of the crane; a bridging connector realized to bridge a gap between the guide wire and a control wire, which bridging connector is free to travel along the guide wire and the control wire according to a vertical displacement of a load; and a control wire extending from a lower level of the crane, through the bridging connector to a lifting connector for connecting to the load, and through the bridging connector again to an upper level of the crane is provided.

Load guiding arrangement

Provided is an automated receptor system of a sling-receiving element for gripping a connection device of a sling of a blade gripping device for gripping a rotor blade, in particular a rotor blade of a wind turbine, which automated receptor system includes a receptor for connecting the connection device to the sling-receiving element and a drive system for pivoting the receptor for coupling the connection device to the sling-receiving element and for decoupling the connection device from the sling-receiving element. Further a sling-receiving element and a blade gripping device are described. Furthermore, provided is a method for gripping a connection device of a sling of a blade gripping device for gripping a rotor blade, in particular a rotor blade of a wind turbine.

Automated receptor system

A load guiding arrangement realized for mounting to a crane, which load guiding arrangement comprises a number of load guides, wherein a load guide comprises a guide wire extending from a lower level of the crane to an upper level of the crane; a bridging connector realized to bridge a gap between the guide wire and a control wire, which bridging connector is free to travel along the guide wire and the control wire according to a vertical displacement of a load; and a control wire extending from a lower level of the crane, through the bridging connector to a lifting connector for connecting to the load (), and through the bridging connector again to an upper level of the crane is provided.

An arrangement and a method to align a part of a wind turbine to a counterpart is provided. The part of the wind turbine and its counterpart are approached in a main direction of approach, to be connected. The arrangement includes a first and a second alignment tool, whereby the alignment tools include a first area to be connected to the part of the wind turbine, and a second area that protrudes over the physical dimensions of the part of the wind turbine mainly in the main direction of approach. The second area is arranged and prepared in a way to abut on the counterpart, in a direction perpendicular to the main direction of approach, as an arrester to stop and/or hinder a movement of the part of the wind turbine in respect to the counterpart during the alignment.

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Brande, Denmark

Jesper Moeller