SYSTEM OF ROTOR, TRANSMISSION AND COLLECTION ELEMENTS THAT OPTIMISES A VERTICAL AXIS WIND TURBINE

Abstract

The invention is made up of a supporting tower on which a rotor is installed, which comprises two parallel crossarms having two parallel rings fastened to the outer ends thereof which serve as a support for the bearings which, secured to the outer casing, make up the rotor, and said casing fixed on the inside thereof comprises a toothed wheel for transmitting the force of rotation, by epicyclic gearing, to the interior of the tower which forms a space suitable for housing the transmission, which is necessarily vertical, and runs towards the multiplier box. The blades are formed on two horizontal parallel beams which are joined and compacted together by metal boxes which house the guiding mechanisms and shafts that support and orient the blades.

Claims

1. A system that includes a rotor, a transmission and collection elements that optimises a vertical axis wind turbine, comprising: a structure of crossarms and beams that are comprised of one of structural steel and wood, coupled to an electric transport tower, wherein the rotor with its blades is disposed at a distance below the conductor support arms of the electric tower; a main vertical axis of transmission is disposed at a center of the rotor, the main vertical axis of transmission being connected to a multiplier box and an alternator; and a series of blades equipped with means to regulate the blades resistance to a passage of air.

2. The system of claim 1, wherein the main axis integrally incorporates a brake disc that that is configured to allow the machine to brake completely.

3. The system of claim 1, wherein, when the multiplier box and the alternator are housed on the ground, the main axis is divided into sections linked by swivel heads.

4. The system of claim 1, wherein the blades include four horizontally parallel beams, which run from the outer ring of the rotor, and are compacted by one of metal boxes and angle gears inside which the slat guiding mechanisms are housed and support the slats which run from the anchoring mechanism upwards and downwards leaving the support structure in a middle and rotate on the support structure.

5. The system of claim 1, wherein the slats comprise a rectangular shape inside which the slats comprise a skeleton that supports the rectangular format shape having one of a mast and an axis (14) in a center that penetrates the metal boxes that join the beams and inside link with the mast of the slat of the lower part of the beams with one of a cogwheel and a sprocket.

6. The system of claim 1, wherein the slats are guided and positioned from a reader mechanism associated with a copying disc positioned by an orientation sprocket of an electronic mechanism associated to a vane, and they are connected together by one of a toothed strip and axis that forces the sprockets integral to the vertical axis of the slat.

7. The system of claim 1, wherein the metal boxes that horizontally assemble the beams supporting the slats, internally house in a sealed way, the necessary bearings and supports so that both the mast of the slats and the toothed strip that will orient the slats can move.

8. The system of claim 1, wherein at a height at which the rotor is set, a platform is elevated, with anchors and stiffeners, on which a double rail lies, which will serve to move bearings of the rotor, which are positioned at different angles so as to prevent the rotor from being dislodged from the double slide rail.

9. The system of claim 1, wherein the transmission of force is received from the cogwheel integral to the rotor that transfers that force to a epicyclic gearing and the the epicyclic gearing to the main axis.

Description

BRIEF DESCRIPTION OF THE DRAWINGS

[0025] For a better understanding of the present description, drawings representing a preferred embodiment of the present invention are attached:

[0026] FIG. 1: Elevation view of an electric transport tower with the system object of the present invention installed under the conductor support arms.

[0027] FIG. 2: Plan section of the electric transport tower with the system object of the present invention installed under the conductor support arms.

[0028] FIG. 3: Plan view of the rotor with the beams of the blades without slats.

[0029] FIG. 4: Conventional perspective view of the slat with its axis and sprocket integral thereto.

[0030] FIG. 5: Section elevation detail of the rotor fastening system to the pair of rails by bogies.

[0031] FIG. 6: Conventional perspective detail of the copying disc.

[0032] The numerical references that appear in said figures correspond to the following constituent elements of the invention: [0033] 1. Crossarm structure [0034] 2. Beams [0035] 3. Rotor [0036] 4. Main axis [0037] 5. Multiplier box and alternator [0038] 6. Brake disc [0039] 7. Blades [0040] 8. Metal boxes [0041] 9. Slats [0042] 10. Copying disc [0043] 11. Vane [0044] 12. Toothed strip [0045] 13. Sprocket integral to the slat axis [0046] 14. Axis or mast of the slat [0047] 15. Double rail [0048] 16. Bogies [0049] 17. Rotor cogwheel [0050] 18. Epicyclic gearing [0051] 19. Orientation sprocket

DESCRIPTION OF A PREFERRED EMBODIMENT

[0052] A preferred embodiment of the system of rotor, transmission and collection elements that optimises a vertical axis wind turbine object of the present invention, with reference to the numerical references, can be based on a structure of crossarms (1) and beams (2) of structural steel or wood, coupled to an electric transport tower, leaving the rotor (3) with its blades (7) at the convenient distance below the conductor support arms, where, at its centre, the main vertical transmission axis (4) is housed and which will be associated with the multiplier box and its alternator (5). Said main axis (4) also integrally incorporates a brake disc (6) that will allow stopping the machine completely.

[0053] The blades (7) are housed at the crown of the rotor (3), and are constituted by four horizontally parallel beams (2), which run from the outer ring of the rotor (3), and are compacted by metal boxes (8) or angle gears inside which the slat (9) guiding mechanisms are housed and support the slats (9) which run from the anchoring mechanism upwards and downwards leaving this support structure in the middle and rotate on it.

[0054] The slats (9) are guided and positioned from a reader mechanism associated with a copying disc (10) positioned by an orientation sprocket (19) of an electronic mechanism associated with a vane (11), and are connected to each other by a toothed strip (12) or axis that forces sprockets (13) integral to the vertical axis (14) of the slat (9). This sprocket (13) is inside the metal boxes (8) and will rotate the slat (9) in the desired direction.

[0055] At the height at which the rotor (3) is set, a platform (1) is elevated, with its anchors and stiffeners, on which a double rail (15) lies, which will serve to move bogies (16) or bearings of the rotor (3), which are positioned at different (upper and side) angles so as to prevent the rotor (3) from being dislodged from the double slide rail (15). These bogies (16) are bearings with a specific configuration that allows both radial and axial support to the rotor (3).

[0056] The transmission of force is received from the cogwheel (17) integral to the rotor (3) that transfers that force to an epicyclic gearing (18) and the latter to the main axis (4). The electricity generated by the machine is emptied through conventional power lines.

[0057] In a different embodiment the system is installed on a repeater post or other type of tower.