Artificial intelligence-assisted, three-axis wind turbine with solar-panelled blades

Abstract

The invention relates to a solar-panelled wind turbine (100) which combines wind and solar energy, which are renewable energy sources, in a single body instead of using them separately, and wherein the data from the sun sensor (191 ), wind direction sensor (192) and wind speed sensor (193) thereon is interpreted by means of an electronic control unit (182) (ECU) containing an artificial intelligence software, and after this interpretation, the most appropriate direction for the support system (140) and solar-panelled blades (110) is selected and electrical energy generation from both the sun and the wind is achieved.

Description

[0001] ARTIFICIAL INTELLIGENCE-ASSISTED, THREE-AXIS WIND TURBINE WITH SOLAR-PANELLED BLADES

[0002] Technical Field

[0003] The invention relates to a wind turbine controlled by artificial intelligence software and equipped with solar-panelled blades to use wind and solar energy together, which are among renewable energy sources, and capable of altering its body, blades, and angle of view towards the sun to generate more electricity than under normal conditions.

[0004] The invention particularly relates to a wind turbine that generates electrical energy from both wind and solar energy, and the artificial intelligence software receives data from sensors and interprets the received data. Thanks to the interpreted data, the mechanical structure of the system is capable of both following the sun and angling the blades. Thus, a greater number of turns is obtained from the wind compared to the present art and more electrical energy is generated. In addition, if there is only sun in the sky, the system will follow the sun by adjusting its blades to face the sun directly and electricity will be generated by solar energy through solar panels.

[0005] State of the Art

[0006] Renewable energy sources are a method of generating electrical energy by utilizing the energy ecology that exists in nature. The most important of these are solar energy and wind energy. Solar energy is the process of converting ultraviolet rays from the sun into electrical energy with the cells on the solar panel. In order to efficiently obtain electrical energy from solar panels, the panels must meet the sun's rays vertically. When these conditions are met, the necessary conditions for the generation of electrical energy will be met and electrical energy will be generated. However, in these cases, agricultural lands and vacant areas will be occupied.

[0007] Wind energy is the process of converting the thrust obtained from the wind into motion energy using an alternator and blades, and generating electrical energy from the alternator with the rotational force generated by the rotation of the blades on their own axis. Herein, the tail in the wind turbine provides the necessary balance for the blades to face the wind from the opposite side according to the wind direction. However, since this process will not always be successful, most of the time wind turbines either operate with low speed or cannot generate enough electrical energy due to not being able to rotate to the required angle.

[0008] As a result, the existence of the above problems and the inadequacy of the existing solutions have made a development in the relevant technical field necessary.

[0009] Object of the Invention

[0010] The present invention relates to a wind turbine that eliminates the above-mentioned disadvantages and brings new advantages to the relevant technical field, controlled by artificial intelligence software and equipped with solar-panelled blades to use wind and solar energy together, which are among renewable energy sources, and capable of altering its body, blades, and angle of view towards the sun to generate more electricity than under normal conditions.

[0011] The object of the invention is to introduce a wind turbine that is more efficient compared to the present art and capable of generating high energy, along with hybrid operation by combining wind and solar energy in a single system, and to eliminate the shortcomings of both systems with artificial intelligence software.

[0012] Another object of the invention is to provide more electrical energy generation with more hours of sunshine compared to present art by following the sun from sunrise to sunset thanks to the system and body design allowing the solar panels on the blades to be adjusted to face perpendicular to the sun.

[0013] Another object of the invention is to enable energy generation and system protection through the ability of the blades to rotate on their own axis, allowing adjustment based on wind speed to achieve higher revolutions compared to present art, or to transition to lower revolutions compared to the present art in stormy weather by altering the angle of the blades. To fulfill all the objectives outlined above and those that may emerge from the detailed description, a wind turbine has been designed which uses wind and solar energy in combination which are among the renewable energy sources, comprising:

[0014] - solar-panelled blades equipped with solar panels thereon to combine wind and solar energy in a single system and convert the force from the wind into rotational force,

[0015] - an octopus hub mechanism to which the solar-panelled blades are attached, which converts the thrust into circular motion in order to rotate all of the solar-panelled blades in the same amount and at the same angle and to transfer the electricity from solar energy to the system independently,

[0016] - a foldable and portable ground fixing foot positioned at the lowest part of the solar-panelled wind turbine for fixing it to the ground,

[0017] - a body rotation mechanism attached to the ground fixing foot, which rotates 360 degrees on its axis in order to monitor the sun from sunrise to sunset by means of sensors to obtain more hours of sunshine, while also rotating the parts attached thereto other than the ground fixing foot,

[0018] - solar-wind separation mechanism connected to the octopus hub mechanism for the separation of the electrical energy of solar and wind energy,

[0019] - a support system attached onto the body rotation mechanism, which holds together all the parts of the solar-panelled wind turbine, except for the ground fixation foot, transfers the load generated by the weight of these parts evenly to the ground fixation foot, and provides the angle for positioning the solar-panelled blades according to the sun and wind,

[0020] - a gearbox connected to the support system, which transfers the rotational force generated by the solar-panelled blades to the alternator motor after increasing its revolution,

[0021] - an alternator motor rotated by means of a gearbox and which converts the mechanical energy generated by the rotational movement into electrical energy,

[0022] - sensors positioned on the tail connected to the gearbox to detect data such as sun direction, wind force, and wind speed,

[0023] - an electronic control unit (ECU) containing artificial intelligence software which, in the absence of sunlight, interprets data from the sensors and, according to this data, adjusts the angle by rotating both the support system and the solar-panelled blades based on wind direction and intensity; in the absence of wind, interprets data from the sensor and, according to this data, positions the solar-panelled blades at a right angle to the sun to ensure the solar-panelled blades face the sun directly; and in conditions where both the sun and wind are present, angles both its body and blades to generate energy from both, even if their directions are different.

[0024] In a preferred embodiment of the invention, the number of said solar-panelled blades is at least 5.

[0025] The structural and characteristic features and advantages of the invention will be understood more clearly with the drawings given below and the references to these drawings. Therefore, the evaluation should be made by taking into account these figures and descriptions.

[0026] Drawings that Help Understanding the Invention

[0027] Figure-1 is a schematic overview of the assembled state of the solar-panelled wind turbine,

[0028] Figure-2 is a schematic overview of the disassembled state of the solar-panelled wind turbine,

[0029] Figure-3 is a schematic overview of the disassembled state of the solar-panelled blades,

[0030] Figure-4 is A schematic overview of the disassembled state of the octopus hub mechanism,

[0031] Figure-5 is a schematic overview of the disassembled state of the solar-wind separation mechanism,

[0032] Figure-6 is a schematic overview of the disassembled state of the support system, Figure-7 is a schematic overview of the disassembled state of the gearbox,

[0033] Figure-8 is a schematic overview of the disassembled state of the body rotation mechanism,

[0034] Figure-9 is a schematic overview of the disassembled state of the ground fixation foot, Figure-10 is a schematic overview of the disassembled state of the sensors,

[0035] Figure-11 is a schematic overview of the assembly state of the octopus hub mechanism and solar-wind separation mechanism,

[0036] Figure-12 is a schematic overview of the assembly state of the support system, Figure-13 is a schematic overview of the assembly state of the gearbox,

[0037] Figure-14 is a schematic overview of the assembly state of the alternator motor and sensors,

[0038] Figure-15 is a schematic overview of the assembly state of the body rotation mechanism,

[0039] Figure-16 is a schematic overview of the assembly state of the ground fixation foot, Figure-17 is a schematic overview of the assembly state of the solar-panelled blades.

[0040] Description of the Part References

[0041] 100. Solar-panelled wind turbine

[0042] 110. Solar-panelled blades

[0043] 120. Octopus hub mechanism

[0044] 121 . Blade attachment arms

[0045] 122. Rotation shaft

[0046] 123. Arm bearing

[0047] 124. Holder hub

[0048] 125. Arm holder

[0049] 130. Solar-wind separation mechanism

[0050] 131 . Linear motion stabilizer

[0051] 132. Ball-Bearing

[0052] 133. Linear ball-bearing

[0053] 140. Support system

[0054] 141 . Rotational drive shaft

[0055] 142. Fixing plate

[0056] 143. Thrust actuator

[0057] 144. Support plates

[0058] 150. Gearbox

[0059] 151 . Large pulley

[0060] 152. Small pulley

[0061] 153. Belt

[0062] 160. Alternator motor

[0063] 170. Body rotation mechanism

[0064] 171 . Support

[0065] 172. Motor inlet 173. Rotating section

[0066] 180. Ground fixation foot

[0067] 181 . Support post

[0068] 182. Electronic control unit

[0069] 190. Sensors

[0070] 191 . Solar sensor

[0071] 192. Wind direction sensor

[0072] 193. Wind speed sensor

[0073] Detailed Description of the Invention

[0074] In this detailed description, the solar-panelled wind turbine (100) using wind energy and solar energy, which are among the renewable energy sources, in combination, is explained without any limiting effect.

[0075] The solar-panelled wind turbine (100) of the invention shown in Figure-1 comprises the following parts:

[0076] - solar-panelled blades (110) equipped with solar panels on one surface to combine wind and solar energy in a single system and having another surface that is curved to convert the force from the wind into rotational force;

[0077] - an octopus hub mechanism (120) to which the solar-panelled blades (110) are attached, which rotates all of the solar-panelled blades (110) in the same amount and at the same angle to equally position them with respect to both the sun and the wind, and converts the thrust into circular motion to transfer the electricity from solar energy to the system independently;

[0078] - a foldable and portable ground fixing foot (180) positioned at the lower part of the solar-panelled wind turbine (100) for fixing it to the ground;

[0079] - a body rotation mechanism (170) attached to the ground fixing foot (180), which rotates 360 degrees on its axis in order to monitor the sun from sunrise to sunset by means of sensors (190) to obtain more hours of sunshine, while also rotating the parts attached thereto other than the ground fixing foot (180);

[0080] - solar-wind separation mechanism (130) connected to the octopus hub mechanism (120) for the separation of the electrical energy of solar and wind energy; - a support system (140) attached onto the body rotation mechanism (170), which holds together all the parts of the solar-panelled wind turbine (100), except for the ground fixation foot (180), transfers the load generated by the weight of these parts evenly to the ground fixation foot (180), and provides the angle for positioning the solar-panelled blades (110) according to the sun and wind;

[0081] - a gearbox (150) connected to the support system (140), which transfers the rotational force generated by the solar-panelled blades (110) to the alternator motor (160) after increasing its revolution;

[0082] - an alternator motor (160) rotated by means of a gearbox (150) and which converts the mechanical energy generated by the rotational movement into electrical energy;

[0083] - sensors (190) positioned on the tail connected to the gearbox (150) to detect data such as sun direction, wind force, and wind speed,

[0084] - an electronic control unit (182) (ECU) containing artificial intelligence software which, in the absence of sunlight, interprets data from the sensors (190) and, according to this data, adjusts the angle by rotating both the support system (140) and the solar-panelled blades (110) based on wind direction and intensity; in the absence of wind, interprets data from the sensor (190) and, according to this data, positions the solar-panelled blades (110) at a right angle to the sun to ensure the solar-panelled blades (110) face the sun directly; and in conditions where both the sun and wind are present, angles both its body and the solar-panelled blades (110) to generate energy from both, even if their directions are different.

[0085] Said solar-panelled wind turbine (100) combines wind and solar energy in a single system by means of the solar-panelled blades (110) it contains, and along with hybrid operation, offers a solution that is more efficient compared to the present art and capable of generating high energy by eliminating the shortcomings of both systems with artificial intelligence software. At the lowest part of the solar-paneled wind turbine (100) shown in Figure-2, the ground fixation foot (180) is positioned to provide contact with the ground. The body rotation mechanism (170) is attached to said ground fixation foot (180). The support system (140) is connected to said body rotation mechanism (170). The support system (140) combines the alternator motor (160), gearbox (150), and solar-wind separation mechanism (130). Sensors (190) are located at the end of the tail wherein said alternator motor (160) is located. The octopus hub mechanism

[0086] (120) connected to the solar-wind separation mechanism (130) is connected to the solar-panelled blades (110). The alternator motor (160) is rotated by means of the gearbox (150), and thanks to the gearbox (150), it rotates with high revolution, thereby generating electrical energy from this rotational force.

[0087] The solar-panelled blades (110) shown in Figure-3 generate electrical energy from the sun's rays thanks to the solar panels placed on one surface, and generate rotational force by rotating in windy weather thanks to its other curved surface. Thanks to the aerodynamic structure of the solar-panelled blades (110) capable of rotating in the wind, rotation and electricity generation are achieved even at low wind speeds. Due to the aerodynamic structure of said blade shape, rotational force is formed, and the revolution rate of this rotational force is further increased with the gearbox (150), then transferred to the alternator motor (160), generating electrical energy from there. The octopus hub mechanism (120) is a specially designed mechanism to hold the solar panel wings (110) together at an equal angle.

[0088] The octopus hub mechanism (120) shown in Figure-4 is connected to each other by the thrust actuator (143) in the movable support system (140). The octopus hub mechanism (120) converts the thrust force received from the thrust actuator (143) into circular motion, rotates all of the solar-panelled blades (110) at the same angle at the same amount, and transfers the electricity from the solar energy to the system independently. Said octopus hub mechanism (120) comprises blade attachment arms

[0089] (121 ) to which solar-panelled blades are connected; a rotation shaft (122), which is fixed by engaging with the movable support system (140), and on which rotational movement takes place thanks to the wind reaching the solar-panelled blades (110); an arm bearing (123), to which said blade attachment arms (121 ) are connected at the lower part to be supported and held together; a holder hub (124) positioned in the center, rotating the blade attachment arms (121 ) connected to the arm holder (125) by moving forward and backward to angle the solar-panelled blades (110); arm holder (125) positioned between the arm bearing (123) and the holder hub (124), one for each blade attachment arm (121 ) in order to ensure that the solar-panelled blades (110) are all at the same angle and to ensure the angle synchronization of the solar-panelled blades (110). The solar-wind separation mechanism (130) connected to said octopus hub mechanism (120) and shown in figure-5, used to separate the electrical energy obtained from the sun from the rotating part in the solar-panelled blades (110) comprises a linear ball-bearing (133) placed in the rotation shaft (122) to rotate together, positioned in the middle part thereof; a ball-bearing (132) positioned on the rear part of the linear ball-bearing (133), which is positioned on both sides for separating the electrical energies of solar and wind energy, which keeps the linear motion stabilizer (131 ) to which the thrust actuators (143) are connected fixed without rotation. The rotation shaft (122), which rotates with the force from the wind, primarily passes through the linear ball-bearing (133). The linear ball-bearing (133) is housed in a standard ball-bearing (132) to achieve both a point fixation of movement and rotational force. The rotation shaft (122) in the octopus hub mechanism (120) passes through the linear ball-bearing (133) in the solar-wind separation mechanism (130), rotating together. This rotational movement is carried out in the ball-bearing (132). Said ball-bearing (132) also rotates in linear motion stabilizer (131 ). In this way, rotational motion and linear motion can be controlled on this region. However, when the inside of the rotation shaft (122) is empty, the transmission of electrical energy from the solar panels on the solar-panelled blades (110) is provided by the cables passing through this rotational shaft (122).

[0090] The support system (140) shown in Figure-6 holds together the parts of the solar energy wind turbine (100) on the ground fixation foot (180) and transfers the total load to the ground fixation foot (180). Said support system (140) comprises a rotational drive shaft (141 ) connected at its lowest part to the body rotation mechanism (170) for rotating the octopus hub mechanism (120) and the solar-panelled blades (110) connected thereto in the right and left directions on the horizontal axis; a fixing plate

[0091] (142) positioned at the upper part of the rotational drive shaft (141 ); support plates (144) positioned oppositely on the upper part of the fixing plate (142), one of which connected to the alternator motor (160) and the other to the thrust actuator (143); and a thrust actuator (143) connected to the support plate (144), which is an electrically powered piston that moves the holder hub (124) in a forward and backward direction to rotate the blade attachment arms (121 ) to which the solar-panelled arms (110) are attached to take the appropriate angle based on the wind and sun. The thrust actuator

[0092] (143) provides the thrust that can increase the rotational force from the wind through the solar-panelled blades (110) to higher revolutions or to the angle necessary to bring the solar panels to the perpendicular position to the rays coming from the sun. Said thrust actuator (143) is the piston capable of moving forward and backward with electrical energy. With the movement of this piston, the octopus hub mechanism (120) moves forward and backward and is capable of rotating on its own axis on the solar- panelled blades (110). In this way, the angle of the solar-panelled blades (110) can be adjusted against the wind. For the collective movement of the solar panel wings (110), octopus hub mechanism (120), solar-wind separation mechanism (130), gearbox (150), alternator motor (160), and sensors (190) supported on the support system (140), the collective rotation process is carried out after the rotational drive shaft (141 ) engages with the rotating section (173) in the body rotation mechanism (170).

[0093] The gearbox (150) shown in Figure-7 increases the rotational force obtained from the wind to higher revolutions compared to the present art. Thus, more electrical energy is produced compared to the present art. Said gearbox (150) comprises a toothed large pulley (151 ), into which the rotation shaft (122) is inserted for collective rotation; a belt (153) for transferring the rotational force generated in the large pulley (151 ) to the small pulley (152); a small pulley (152) having a diameter less than the large pulley (151 ) for increasing the rotational speed transmitted from the large pulley (151 ) to a higher revolution. The rotational force at higher revolutions is transferred by the small pulley (152) to the electricity generating alternator motor (160) to which it is directly connected.

[0094] The body rotation mechanism (170) shown in Figure-8 is capable of rotating all parts of the solar-panelled wind turbine (100) on the ground fixation foot (180) by 360° (degrees). The body rotation mechanism (170) performs said 360° rotation function by means of a stepper motor and a reducer with a powerful reduction ratio. Thanks to the body rotation mechanism (170), the sun sensor (191 ), the wind direction sensor (192) and the wind speed sensor (193), it is possible to monitor the sun from sunrise to sunset and obtain more hours of sunshine. Said body rotation mechanism (170) comprises a motor inlet (172) positioned at its side for connecting a stepper motor; a rotating part (173) positioned at its upper part for generating a rotational force, into which a rotational drive shaft (141 ) is inserted for rotating all parts thereon by the desired amount; a support (171 ) connected to the load ground fixation foot (180) for transferring the total load to the ground fixation foot (180). The ground fixation foot shown in Figure-9 (180) fixes the solar-panelled wind turbine (100) to the ground. The ground fixation foot (180) is portable and can be folded and transported. Said ground fixation foot (180) comprises a ground fixation support post (181 ) to transfer the total load to the ground and keep the system standing; an electronic control unit (182) (ECU) containing the artificial intelligence software, which is a combination of motherboard and processor containing the entire system software in order to automatically perform operations such as monitoring the sun, angling the solar-panelled blades (110) according to the wind, and determining the main position according to the ambient conditions based on the data from the sensors (190). The diagonal posts under said ground fixation support post (181 ) act as a balance.

[0095] The sensors (190) shown in Figure-10 positioned on the tail connected to the gearbox (150) are the sun sensor (191 ) used to determine the direction of the sun, the wind direction sensor (192) to determine from which direction the wind force arrives, and the wind speed sensor (193) used to determine the variability of the wind speed over time, and send data to the electronic control unit (182).

[0096] For the installation of the solar-panelled wind turbine (100) of the invention, firstly, the rotation shaft (122) shown in figure-11 is passed through the linear ball-bearing (133) and the octopus hub mechanism (120) is connected to the solar-wind separation mechanism (130). Then, the rotation shaft (122) shown in figure-12 is connected to the support system (140) from the side where the thrust actuators (143) are located. The gearbox (150) is mounted between the support plates (144) of the support system (140) shown in figure-13 to which the octopus hub mechanism (120) is mounted. Alternator motor (160) and sensors (190) are mounted from outside on the free support plate (144) of the carrier system (140) shown in figure-14. After the alternator motor (160) shown in figure-15 is mounted, the body rotation mechanism (170) is connected to the lower part of the support body. After the ground fixation foot (180) is mounted on the lower part of the body rotation mechanism (170) shown in figure-16, the assembly is completed by fitting the solar-panelled blades (110) shown in figure-17 to the blade attachment arms (121 ).

[0097] In a preferred embodiment of the invention, the number of said solar-panelled blades (110) is at least 5.

Claims

CLAIMS1. A solar-panelled wind turbine (100) using wind energy and solar energy in combination, which are among the renewable energy sources, characterized in that it comprises:- solar-panelled blades (110) equipped with solar panels on one surface to combine wind and solar energy in a single system and having another surface that is curved to convert the force from the wind into rotational force;- an octopus hub mechanism (120) to which the solar-panelled blades (110) are attached, which rotates all of the solar-panelled blades (110) in the same amount and at the same angle to equally position them with respect to both the sun and the wind, and converts the thrust into circular motion to transfer the electricity from solar energy to the system independently;- a foldable and portable ground fixing foot (180) positioned at the lower part of the solar-panelled wind turbine (100) for fixing it to the ground;- a body rotation mechanism (170) attached to the ground fixing foot (180), which rotates 360 degrees on its axis in order to monitor the sun from sunrise to sunset by means of sensors (190) to obtain more hours of sunshine, while also rotating the parts attached thereto other than the ground fixing foot (180);- solar-wind separation mechanism (130) connected to the octopus hub mechanism (120) for the separation of the electrical energy of solar and wind energy;- a support system (140) attached onto the body rotation mechanism (170), which holds together all the parts of the solar-panelled wind turbine (100), except for the ground fixation foot (180), transfers the load generated by the weight of these parts evenly to the ground fixation foot (180), and provides the angle for positioning the solar-panelled blades (110) according to the sun and wind;- a gearbox (150) connected to the support system (140), which transfers the rotational force generated by the solar-panelled blades (110) to the alternator motor (160) after increasing its revolution;- an alternator motor (160) rotated by means of a gearbox (150) and which converts the mechanical energy generated by the rotational movement into electrical energy;- sensors (190) positioned on the tail connected to the gearbox (150) to detect data such as sun direction, wind force, and wind speed;- an electronic control unit (182) containing artificial intelligence software which, in the absence of sunlight, interprets data from the sensors (190) and, according to this data, adjusts the angle by rotating both the support system (140) and the solar-panelled blades (110) based on wind direction and intensity; in the absence of wind, interprets data from the sensor (190) and, according to this data, positions the solar-panelled blades (110) at a right angle to the sun to ensure the solar-panelled blades (110) face the sun directly; and in conditions where both the sun and wind are present, angles both the body and the solar-panelled blades (110) to generate energy from both, even if their directions are different.

2. The solar-panelled wind turbine (100) according to claim 1 , characterized in that it comprises blade attachment arms (121 ) to which the solar-panelled blades are connected.

3. The solar-panelled wind turbine (100) according to claim 1 , characterized in that it comprises a rotation shaft (122), which is fixed by engaging with the movable support system (140), and on which rotational movement takes place thanks to the wind reaching the solar-panelled blades (110).

4. The solar-panelled wind turbine (100) according to claim 2, characterized in that it comprises an arm bearing (123), to which blade attachment arms (121 ) are connected at the lower part to be supported and held together.

5. The solar-panelled wind turbine (100) according to claim 1 , characterized in that it comprises a holder hub (124) positioned in the center, rotating the blade attachment arms (121 ) connected to the arm holder (125) by moving forward and backward to angle the solar-panelled blades (110).

6. The solar-panelled wind turbine (100) according to any one of the claims 2, 3, 4, and 5, characterized in that it comprises arm holder (125) positioned between the arm bearing (123) and the holder hub (124), one for each blade attachment arm (121 ) in order to ensure that the solar-panelled blades (110) are all at thesame angle and to ensure the angle synchronization of the solar-panelled blades (110).

7. The solar wind turbine (100) according to claim 3, characterized in that it comprises a linear ball-bearing (133) placed in the rotation shaft (122) to rotate together, positioned in the middle part thereof.

8. The solar wind turbine (100) according to claim 1 , characterized in that it comprises a ball-bearing (132) positioned on the rear part of the linear ballbearing (133), which is positioned on both sides for separating the electrical energies of solar and wind energy, which keeps the linear motion stabilizer (131 ) fixed without rotation.

9. The solar-panelled wind turbine (100) according to claim 1 , characterized in that it comprises a linear motion stabilizer (131 ) to which the thrust actuators (143) are connected.

10. The solar-panelled wind turbine (100) according to claim 1 , characterized in that it comprises a rotational drive shaft (141 ) connected at its lowest part to the body rotation mechanism (170) for rotating the octopus hub mechanism (120) and the solar-panelled blades (110) connected thereto in the right and left directions on the horizontal axis.

11. The solar-panelled wind turbine (100) according to claim 10, characterized in that it comprises a fixing plate (142) positioned at the upper part of the rotational drive shaft (141 ).

12. The solar-panelled wind turbine (100) according to claim 1 , characterized in that it comprises support plates (144) positioned oppositely on the upper part of the fixing plate (142), one of which connected to the alternator motor (160) and the other to the thrust actuator (143).

13. The solar-panelled wind turbine (100) according to claim 1 , characterized in that it comprises a thrust actuator (143) connected to the support plate (144), which moves the holder hub (124) in a forward and backward direction to rotate theblade attachment arms (121 ) to which the solar-panelled arms (110) are attached to take the appropriate angle based on the wind and sun.

14. The solar-panelled wind turbine (100) according to claim 1 , characterized in that it comprises a toothed large pulley (151 ), into which the rotation shaft (122) is inserted for collective rotation.

15. The solar-panelled wind turbine (100) according to claim 14, characterized in that it comprises a belt (153) for transferring the rotational force generated in the large pulley (151 ) to the small pulley (152).

16. The solar-panelled wind turbine (100) according to claim 1 , characterized in that it comprises a small pulley (152) having a diameter less than the large pulley (151 ) for increasing the rotational speed transmitted from the large pulley (151 ) to a higher revolution before transmission to alternator motor (160).

17. The solar-panelled wind turbine (100) according to claim 1 , characterized in that it comprises a stepper motor and a reducer with a powerful reduction ratio for 360° rotation of all parts on the ground fixation boot (180).

18. The solar-panelled wind turbine (100) according to claim 1 , characterized in that it comprises a motor inlet (172) positioned at its side for connecting a stepper motor.

19. The solar-panelled wind turbine (100) according to claim 1 , characterized in that it comprises a rotating part (173) positioned at its upper part for generating a rotational force, into which a rotational drive shaft (141 ) is inserted for rotating all parts thereon by the desired amount.

20. The solar-panelled wind turbine (100) according to claim 1 , characterized in that it comprises a support (171 ) connected to the load ground fixation foot (180) for transferring the total load to the ground fixation foot (180).

21. The solar-panelled wind turbine (100) according to claim 1 , characterized in that it comprises a ground fixation support post (181 ) to transfer the total load to the ground and keep the system standing.

22. The solar-panelled wind turbine (100) according to claim 1 , characterized in that it comprises a sun sensor (191 ) used to determine the direction of the sun.

23. The solar-panelled wind turbine (100) according to claim 1 , characterized in that it comprises a wind direction sensor (192) to determine from which direction the wind force arrives.

24. The solar-panelled wind turbine (100) according to claim 1 , characterized in that it comprises a wind speed sensor (193) used to determine the variability of the wind speed over time.

25. The solar-panelled wind turbine (100) according to claim 1 , characterized in that the number of the solar-panelled blades (110) is at least 5.

26. The solar-panelled wind turbine (100) according to claim 1 , characterized in that it comprises cables passing through the rotational shaft (122) to transmit electrical energy from the solar panels on the solar-panelled blades (110).

Images