This relates to a wind power installation comprising a pylon (tower) and a rotor arranged on the pylon and having at least one individually adjustable rotor blade. The wind power installation further comprises a device to detect the wind direction, a device to detect the azimuthal position and/or a
This relates to a wind power installation comprising a pylon (tower) and a rotor arranged on the pylon and having at least one individually adjustable rotor blade. The wind power installation further comprises a device to detect the wind direction, a device to detect the azimuthal position and/or a device to detect the deviation from vertical of the pylon (tower). In one embodiment, a control unit is coupled to the rotor blade to adjust an angle of incidence of the at least one adjustable rotor blade using information which is representative of (i) the wind direction, (ii) the azimuthal position of the rotor, and (iii) the deviation from vertical of the pylon. The rotor blade may be adjusted in dependence on a deviation between the ascertained wind direction and the detected azimuthal position.
대표청구항▼
The invention claimed is: 1. A wind power installation comprising: a pylon; a rotor disposed on the pylon, wherein the rotor includes at least one individually adjustable rotor blade; a device to detect a wind direction; a device to detect an azimuthal position of the rotor; a device to detect a de
The invention claimed is: 1. A wind power installation comprising: a pylon; a rotor disposed on the pylon, wherein the rotor includes at least one individually adjustable rotor blade; a device to detect a wind direction; a device to detect an azimuthal position of the rotor; a device to detect a deviation from vertical of the pylon; and a control unit, coupled to the rotor blade, to adjust an angle of incidence of the at least one adjustable rotor blade using information which is representative of: (i) the wind direction, (ii) the azimuthal position of the rotor, and (iii) the deviation from vertical of the pylon. 2. The wind power installation of claim 1 further including a platform, adapted to float on or in water, wherein the pylon and rotor are disposed on the platform. 3. The wind power installation of claim 2 further including a device to detect a deviation from horizontal of the platform. 4. The wind power installation of claim 3 wherein the control unit adjusts the angle of incidence of the at least one adjustable rotor blade using information which is representative of the deviation from horizontal of the platform. 5. The wind power installation of claim 1 further including: an azimuthal bearing to adjust the azimuthal position of the rotor; and a braking device, coupled to the azimuthal bearing, to brake movement of the azimuthal bearing. 6. The wind power installation of claim 1 further including: an azimuthal bearing to adjust the azimuthal position of the rotor; and an azimuthal drive, coupled to the azimuthal bearing, to adjust the azimuthal position of the rotor, wherein the azimuthal drive includes at least two asynchronous motors which are mechanically coupled to the azimuthal bearing and controlled using a three-phase current. 7. The wind power installation of claim 1 further including: an azimuthal bearing to adjust the azimuthal position of the rotor; and an azimuthal drive, coupled to the azimuthal bearing, to adjust the azimuthal position of the rotor, wherein the azimuthal drive includes four asynchronous motors which are mechanically coupled to the azimuthal bearing and controlled using a three-phase current. 8. The wind power installation of claim 1 further including a braking device, coupled to an azimuthal bearing, to provide a braking torque to the azimuthal bearing. 9. The wind power installation of claim 8 wherein the braking device includes at least two asynchronous motors that are responsive to a direct current to apply a braking torque to the azimuthal bearing. 10. A wind power installation comprising: a pylon; a rotor disposed on the pylon; a plurality of rotor blades, disposed on the rotor, including at least one adjustable rotor blade; a device to detect a wind direction; a device to detect an azimuthal position of the rotor; a device to detect a deviation from vertical of the pylon; and a controller, coupled to the rotor blade, to adjust a position of the at least one adjustable rotor blade relative to the wind direction using information which is representative of (i) the wind direction, (ii) the azimuthal position of the rotor, and (iii) the deviation from vertical of the pylon. 11. The wind power installation of claim 10 further including a platform, adapted to float on or in water, wherein the pylon and rotor are disposed on the platform. 12. The wind power installation of claim 11 further including a device to detect a deviation of the platform out of the horizontal. 13. The wind power installation of claim 12 wherein the controller adjusts the angle of incidence of the at least one adjustable rotor blade using information which is representative of deviation of the platform out of the horizontal. 14. The wind power installation of claim 10 further including: an azimuthal bearing to adjust the azimuthal position of the rotor; and a braking device, coupled to the azimuthal bearing, to brake the movement of the azimuthal bearing. 15. The wind power installation of claim 10 further including: an azimuthal bearing to adjust the azimuthal position of the rotor; and an azimuthal drive, coupled to the azimuthal bearing, to adjust the azimuthal position of the rotor, wherein the azimuthal drive includes at least two asynchronous motors which are mechanically coupled to the azimuthal bearing and controlled using a three-phase current. 16. The wind power installation of claim 10 further including: an azimuthal bearing to adjust the azimuthal position of the rotor; and an azimuthal drive, coupled to the azimuthal bearing, to adjust the azimuthal position of the rotor, wherein the azimuthal drive includes four asynchronous motors which are mechanically coupled to the azimuthal bearing and controlled using a three-phase current. 17. The wind power installation of claim 10 further including a braking device, coupled to an azimuthal bearing, to provide a braking torque to the azimuthal bearing. 18. The wind power installation of claim 17 wherein the braking device includes at least two asynchronous motors that are responsive to a direct current to apply a braking torque to the azimuthal bearing. 19. A method for controlling a wind power installation having a pylon, a rotor disposed on the pylon, and at least one adjustable rotor blade disposed on the rotor, the method comprising: detecting a wind direction; detecting an azimuthal position of the rotor; detecting a deviation from vertical of the pylon; and controlling an angle of incidence of at least one adjustable rotor blade relative to the wind direction using information which is representative of (i) the wind direction, (ii) the azimuthal position of the rotor, and (iii) the deviation from vertical of the pylon. 20. The method of claim 19 further including adjusting the angle of incidence of the at least one adjustable rotor blade relative to the wind direction when a first threshold value in respect of the magnitude of the change in wind direction and a predetermined duration are exceeded. 21. The method of claim 19 further including adjusting the angle of incidence of the at least one adjustable rotor blade relative to the wind direction using the azimuthal drive when a second threshold value of the magnitude of the change in wind direction is exceeded. 22. The method of claim 19 further including adjusting the angle of incidence of the at least one adjustable rotor blade relative to the wind direction using only the azimuthal drive when a third threshold value of the magnitude of the change in wind direction is exceeded.
연구과제 타임라인
LOADING...
LOADING...
LOADING...
LOADING...
LOADING...
이 특허에 인용된 특허 (17)
Wobben, Aloys, Azimuthal driving system for wind turbines.
Nielsen, Finn Gunnar; Skaare, Bjorn; Tande, John Olav G.; Norheim, Ian; Uhlen, Kjetil, Method for damping tower vibrations in a wind turbine installation.
Morgenthaler, Gaye Elizabeth; Jones, David Vancott, Sourcing phosphorus and other nutrients from the ocean via ocean thermal energy conversion systems.
※ AI-Helper는 부적절한 답변을 할 수 있습니다.