Systems and methods for assembling an offshore support system for use with a wind turbine

1. A method of assembling an offshore support system for use with a wind turbine, said method comprising:

coupling a first damper member to a wind turbine tower;

coupling at least a second damper member to the first damper member and to the tower to form a damper body that circumscribes the tower;

coupling a plurality of floats to the damper body;

coupling a counter-balance system to the damper body for suspending at least a portion of the wind turbine above a water surface;

positioning the damper body at least partially below the water surface to facilitate reducing movement of the wind turbine in at least one direction; and,

positioning the counter-balance system at least partially below the water surface to stabilize the wind turbine when subjected to wind and tidal forces.

2. A method in accordance with claim 1 , further comprising defining a plurality of openings extending through the damper body to facilitate channeling water as a jet through the plurality of openings to facilitate a dampening effect on the wind turbine.

3. A method in accordance with claim 1 , further comprising:

forming a ballast tank defining a ballast chamber; and,

positioning a ballast within the ballast chamber to form the counter-balance system.

4. A method in accordance with claim 1 , further comprising:

forming a toroidal-shaped tank defining a cavity; and,

positioning at least one counter weight within the cavity to form the counter-balance system.

5. An offshore support system for use with a wind turbine, said offshore support system comprising:

a damper adapted to be coupled to a wind turbine tower to facilitate reducing movement of the wind turbine in at least one direction, said damper comprising:

a damper body comprising an outer surface that circumscribes the wind turbine tower; and

a plurality of floats coupled to said outer surface, said plurality of floats oriented circumferentially about said damper body; and,

a counter-balance system coupled to said damper for suspending at least a portion of the wind turbine above a water surface, said counter-balance system configured to stabilize the wind turbine when subjected to wind and tidal forces.

6. An offshore support system in accordance with claim 5 , wherein said damper body comprises at least one opening defined through said body.

7. An offshore support system in accordance with claim 5 , wherein said damper further comprises a yaw system coupled to said damper body for rotating the tower about a tower axis.

8. An offshore support system in accordance with claim 5 , wherein said damper further comprises at least one of a fin and a stabilizer wall coupled to said damper body.

9. An offshore support system in accordance with claim 5 , wherein said damper comprises a first damper member coupled to a second damper member to form a substantially disk-shaped body.

10. An offshore support system in accordance with claim 5 , wherein said counter-balance system comprises a ballast tank defining a plurality of ballast chambers and including a ballast.

11. An offshore support system in accordance with claim 10 , further comprising a fluid distribution system providing flow communication between said plurality of ballast chambers for moving said ballast between said plurality of ballast chambers to facilitate adjusting a center of buoyancy of the wind turbine.

12. An offshore support system in accordance with claim 11 , further comprising a control system in operational control communication with said fluid distribution system, said control system configured to control operation of the fluid distribution system to facilitate stabilizing the wind turbine.

13. An offshore support system in accordance with claim 5 , wherein said counter-balance system comprises a counter-balance tank having a toroidal shape and defining a cavity.

14. An offshore support system in accordance with claim 13 , wherein said counter-balance system further comprises at least one counter weight positioned within said cavity, said counter weight movable within said cavity to facilitate stabilizing the wind turbine.

15. A wind turbine, comprising:

a tower;

a nacelle coupled to said tower;

a rotor rotatably coupled to said nacelle; and,

an offshore support system coupled to said tower for suspending at least a portion of said wind turbine above a water surface, said offshore support system comprising:

a damper coupled to said tower to facilitate reducing movement of the wind turbine in at least one direction, said damper comprising:

a damper body comprising an outer surface that circumscribes the wind turbine tower; and

a plurality of floats coupled to an outer surface of said damper body, said plurality of floats oriented circumferentially about said damper body; and,

a counter-balance system coupled to said damper, said counter-balance system configured to stabilize said wind turbine when subjected to wind and tidal forces.

16. A wind turbine in accordance with claim 15 , wherein said damper body comprises a plurality of openings defined through said body.

17. A wind turbine in accordance with claim 16 , wherein said damper further comprises at least one of a fin, and a stabilizer wall coupled to said damper body.

18. A wind turbine in accordance with claim 15 , wherein said counter-balance system comprises a ballast tank defining a plurality of ballast chambers and including a ballast.

19. A wind turbine in accordance with claim 18 , wherein said offshore support system further comprises:

a fluid distribution system providing flow communication between said plurality of ballast chambers for moving said ballast between said plurality of ballast chambers to facilitate adjusting a center of buoyancy of said wind turbine; and,

a control system in operational control communication with said fluid distribution system, said control system configured to control operation of said fluid distribution system to facilitate stabilizing said wind turbine.

20. A wind turbine in accordance with claim 15 , wherein said counter-balance system comprises:

a counter-balance tank having a toroidal shape and defining a cavity; and,

at least one counter weight positioned within said cavity, wherein said counter weight is movable within said cavity to facilitate stabilizing said wind turbine.