JP5284329B2 - Vertical axis wind kinetic energy generator with combined rotary mechanism of drag blade and upright lift blade - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a vertical shaft type wind force kinetic energy generating device having simplified whole unit structure, lightness in weight, high reliability of operation and a reduced cost for manufacture and maintenance. <P>SOLUTION: In the vertical shaft type wind force kinetic energy generating device, a tower of multi-floor design is mainly provided and a plurality of pairs of wind force machine units are provided in a tower and side surface gate walls of upper and lower floor plates are controlled by a computer to derive the flowing direction of wind force energy. A wind force machine fixing pedestal for mounting other structures and a circular load flat base by bearing are further provided in the wind force machine unit and a freely rotatable energy output unit is included. A sleeve is provided on the flat base and the sleeve is provided in an external part of the circular load flat base and can be integrally rotated. <P>COPYRIGHT: (C)2012,JPO&amp;INPIT

Description

The present invention is a wind kinetic energy generation field, particularly in tower type wind power unit, to a wind kinetic energy mechanism arranged on the vertical axis type. This unit uses a tower-type wind tunnel effect to seize wind energy through a combination of drag blades and lift blades, cut the wind at the 90 ° vertical plane of the drag blades, and add the side force of the lift blades This causes centrifugal force flywheel rotation and further promotes the kinetic energy mechanism of the wind turbine. The inertial rotary motion of the unit, as it can produce a sustained energy output, a composite rotary mechanism with anti force wing and upright lift wing relates also known wind tunnel-type vertical axis wind kinetic energy generation device.

Mankind already has a history of using wind energy for thousands of years. The principle of wind power generation is that wind power is used to rotate the blades or flyballs of a windmill, and the rotational speed is increased by a gearbox to generate power.
As shown in FIGS. 11 and 12, a conventional wind energy source operating apparatus uses a three-blade or a multi-blade “horizontal or vertical axis” type windmill blade or a flyball. The axis of the generator is rotated. The rotational motion of the blade or flyball is derived from the action of aerodynamic power (including lift and drag), and torque is generated for the blade or flyball, and the inertial mass of the rotational motion from the torque. Is born and converted to useful mechanical energy or electrical energy by its kinetic energy.

  The axis of the wind turbine of the horizontal axis type wind turbine is installed in parallel with the ground, and in order to capture the maximum wind energy, it is necessary to adjust with the course adjustment device according to the wind direction. Although the current horizontal axis type wind turbine occupies an overwhelmingly large proportion, the horizontal axis type wind turbine is difficult to solve the problems of complicated terrain wind, turbulence and excessive noise.

Regardless of the “horizontal axis or vertical axis” type, the conventional wind turbine blade has the following disadvantages.
(1) Wing pieces or flyballs can use only a part of wind energy, and most of the wing pieces or fly balls have an effective conversion rate of wind energy due to factors such as wind hitting the cross section and turbulence. It is between 20% and 30%.
Since the wind direction actually changes, only about 70% of the original efficiency remains, and the output efficiency remains low due to the consumption of mechanical and electrical conversion.
(2) In order to generate enormous energy, it is necessary to install a larger wind power device, which is not only difficult to install and disassemble, but also increases construction costs.
(3) Under the action of strong winds, turbulence is clearly generated when the blades cut the wind, and when the wind direction reaches a super-strong grade due to the addition of elements that change the wind direction, there is a risk of causing damage to the wind blades. Therefore, to avoid breaking the machine, the windmill must be stopped.
(4) Generally speaking, the strength of wind power is directly proportional to the height of the ground surface. Therefore, in order to obtain an effective wind power, it is most preferable to install it at a high place, but the conventional wind turbine should be made larger. The more you increase, the higher the cost and the more difficult the maintenance.
(5) Turbulence is the most difficult and most serious problem in wind conditions, and most of the wind blades are broken or destroyed due to momentary strong turbulence. That is also difficult to control in the market.

As shown in FIG. 13, to enhance the application of wind energy, wind turbines apply aerodynamic principles. The two main receiving forces are lift U (acting perpendicular to the wind direction) and drag D (acting parallel to the wind direction). Due to the blade structure, the nature of the aerodynamic power can be improved. These modified wing pieces are similar in cross section to airplane wings.
In addition, in order to solve the problem of the conventional wind energy source device, the inventor of the present case presented US Pat. No. 7,413,404 “Sail Wing Type Windmill”. This adopts a vertical axis wind kinetic energy design, uses the “Drag Wrap” to acquire drag in the air power, and adjusts the blade angle in real time in the reverse direction to maximize the wind energy Avoid dragging and creating drag in low winds. This produces a more favorable effect than current wind kinetic energy devices.

As shown in FIG. 14, this technique forms a negative pressure F behind the drag blade piece when the wind surface is reached and maximum wind energy is acquired. This area creates drag with thrust in the opposite direction to the rotating blade, reducing the effectiveness of wind power use.
In addition, when controlling the rotation angle, when sliding in the guide groove on the convex wheel shaft, only the combination of the Y axis and the X axis is designed, so when rotating in the reverse direction, the X axis was directed upward. Sometimes it comes off the rail (see FIGS. 7A and 7B).
As can be seen, the above-described prior art still has drawbacks, and it is difficult to say that it is a good design, and its improvement has been awaited.

The inventor of the present case was made in view of the disadvantages derived from the above-described conventional hood type power generation device, tried to make new improvements as much as possible, and after many years of hard work, finally the mechanism of this case controlled the wind condition mechanism. you, that so as to confiscated stable wind energy by the composite rotary mechanism of drag wing and upright lift wing pieces, namely a "wind tunnel-type vertical axis wind power generation system."

A main object of the present invention is to provide an apparatus of a wind energy stabilization mechanism that can output stable wind kinetic energy by effectively controlling high and low airflows and side forces in a wind condition in a certain wind tunnel direction. .
A second object of the present invention, operated by mounting the units of multiple sets, and guiding the flow of wind energy to operate the floor design and computer-controlled gate wall, the effective vertical axis wind kinetic energy device It is to be able to control the wind pressure.
The third object of the present invention is to provide a design of a “flowing-type drag blade”, and when a load is applied to the cross section of the drag blade that cuts the wind, the load wind Providing a device with technology that improves the efficiency of wind energy and mechanical energy conversion by allowing energy to flow to the back of the blade to form a flowing-type drag blade and to improve the wind resistance effect of the general drag blade There is to do.
The fourth object of the present invention is a vertical axis wind kinetic energy that stabilizes the output of wind kinetic energy by referring to a cross section where the wind direction always cuts the wind by a flowing water type drag blade piece and a design in which the wind direction maintains a 90 degree angle. It is to provide a mechanical design of the generating device.
A fifth object of the present invention is to provide a vertical axis wind kinetic energy generating device for propelling and rotating an inertial flywheel by a flowing water type drag blade and an upright lift blade.
The sixth object of the present invention is to use the inertial and centrifugal force generated by the flywheel to store energy, increase the stability of output energy, and effectively level the efficacy. It is to provide a wind kinetic energy generator.
The seventh object of the present invention is to modularize all unit parts and use them independently, all using general construction materials and manufacturing technology, short production cycle, low construction maintenance cost, safe and convenient installation. It is another object of the present invention to provide a more preferable vertical axis wind kinetic energy generating apparatus.

A composite rotating mechanism of the anti-forces wing and upright lift wing.
The “wind tunnel type vertical axis wind kinetic energy generating device” according to the invention includes a tower, a wind turbine fixed base, an energy output unit, and a direction determining unit.
The tower adopts a multi-floor design, and a plurality of sets of wind units are provided, and the side gate walls of the upper and lower floor plates are controlled by a computer to guide the flow direction of wind energy.
Before Symbol wind machines fixed base is used for mounting the other structures.
The energy output unit is provided with a circular load platform that can be freely rotated by a bearing on a fixed pedestal, and a sleeve is provided on the platform, and the sleeve is set outside the circular load platform and rotates together. I can do it. A wing piece unit is connected to the outside of the sleeve. The wing piece unit has upper and lower connecting portions, and the two connecting portions are fixed to the upper and lower ends of the sleeve. Each connecting portion includes a plurality of wing pieces. The piece modules are connected to each other, and each wing piece module includes a plurality of drag wing pieces. A rotary shaft is installed at one end of the drag wing piece, a convex ring shaft is provided at the end of the rotary shaft, Fit deeply into the locus control guide groove, X. Y. Z. By using triaxial motion, the convex wheel can be completely settled on the trajectory and at the same time the angle of the drag blade can be adjusted.
In the winglet module, a plurality of upright lift wing pieces are provided outside the drag wing pieces, and a bias is generated in the lift wing pieces when receiving wind to rotate the unit. When a flywheel is provided on the outermost side of the lift blade and the centrifugal flywheel rotates, there are two effects of energy accumulation and leveling, and the output of energy is maintained. The circular load platform at the bottom of the sleeve has an output shaft connected to the center thereof and is connected to a generator for power generation.
The direction determining unit has a rotating guide tube, is installed on a circular load platform and can be rotated independently by a bearing, has a trajectory control guide groove on the surface of the rotating guide tube, and determines the direction. At the top of the unit is a wind orientation device. There is a diversion tail plate at the rear end of this device, keeping the wind direction device toward the wind surface, rotating the rotating guide tube according to the direction of the wind, and the angle toward the wind of the blade unit automatically Can be adjusted.

1. The present invention is operated by mounting a large number of units, and guiding the flow direction of the wind energy by the computer control of the floor design and gate walls, by controlling the air pressure of the effective vertical axis wind kinetic energy device, the entire The unit structure is simplified, light weight, high operation reliability, and low manufacturing and maintenance costs.
2. The vertical axis wind kinetic energy generating apparatus rotated by the drag blade and the upright lift blade according to the present invention is designed so that the wind direction and the wind direction are at an angle of 90 degrees, and is always directed to the wind surface. It has become.
3. Even when the starting point of the wind speed limit is low and the speed is low, energy can be transferred to the storage box and stored, and power can be generated when a certain amount of storage is reached, resulting in high power generation efficiency and low cost per unit. cheap.
4). Since the design of weight reduction is adopted and the strength of the mechanism and structure is strengthened, not only does the machine not have to be stopped even if a strong wind strikes, but on the contrary, high energy is input and full power generation can be performed.

Ru engages the present invention, is a perspective view of a vertical-axis wind kinetic energy generation device using the composite type rotation mechanism of drag wing and upright lift wing. It is a top view of the said vertical axis type wind kinetic energy production | generation apparatus. It is a perspective structure sectional view of a wind power unit of the vertical axis type wind kinetic energy generating device. It is a structure enlarged view of the rotation guide tube area of the said vertical axis | shaft type wind kinetic energy production | generation apparatus. It is a perspective view of the tower type structure concerning the present invention. It is a tower frame which concerns on this invention, and is the structure schematic of the installation position of a wind power unit. FIG. 3 is a structural perspective view of a drag blade of the vertical axis wind kinetic energy generating device. FIG. 3 is a structural perspective view of an upright type lift blade of the vertical axis type wind kinetic energy generating device. It is a structure perspective view of a flywheel type inertial mass unit of the vertical axis type wind kinetic energy generating device. FIG. 3 is a structural perspective view of a convex wheel shaft of the vertical axis type wind kinetic energy generating device. It is the operation | movement schematic (1) of the said convex wheel shaft. It is the operation | movement schematic (2) of the said convex wheel shaft. It is the operation | movement schematic (3) of the said convex wheel shaft. It is a structural perspective view of the hinge unit of this invention. It is a structural design perspective view of the all- upright type lift wing piece. It is a structural design perspective view of all drag blades. 1 is a schematic external view of a conventional vertical axis type wind turbine. It is the operation | movement schematic which the external appearance of a conventional horizontal axis type windmill and the shape of a blade piece influence wind force distribution. It is a wind power distribution principle figure of a conventional horizontal axis type windmill. 1 is a schematic diagram of a defect of a structure according to the inventor's previous technique.

FIGS. 5A, Ru engages the present invention, a vertical axis wind kinetic energy generation device according to the composite rotary mechanism of drag wing and upright lift wing.

  The vertical axis wind kinetic energy generating apparatus according to the present invention mainly includes a tower 5, a wind turbine fixed base 1, an energy output unit 3, and a direction determining unit 2.

  The tower 5 adopts a multi-floor design, a plurality of sets of wind machines are provided, and the side gate walls 51 of the upper and lower floor plates are controlled by a computer to guide the flow direction of wind energy.

The gate wall 51 can be opened and closed depending on the wind direction and wind speed, thereby forming a wind tunnel through which the air volume can enter and exit, thereby suppressing the generation of turbulence.
Further, on the gate wall 51, an air hole 52 for preventing a strong wind is separately provided. When the wind pressure is excessive, the gate wall 51 is lowered to prevent an instantaneous wind. A suitable wind pressure can be flowed in and work can proceed.

The wind machine further includes a wind machine fixed base 1, an energy output unit 3, a direction determining unit 2, an antenna, and an instrument device 4.

  The wind turbine fixing base 1 is fixed on the tower 5 and mainly for assembling and mounting other components. However, this construction is not a claim of the present invention and will not be described in detail here.

  A circular load base 39 is installed on the bottom base of the energy output unit 3 and is supported on the wind turbine fixed base 1 by a bearing 322 and can freely rotate.

A sleeve 32 is provided on the circular load platform 39. The sleeve 32 is set outside the circular load platform 39 and can rotate integrally.
A blade unit 30 is connected outside the sleeve 32. The blade unit 30 has an upper / lower connecting portion 33.

  The two connecting portions 33 are fixed to the upper and lower ends of the sleeve 32. A plurality of blade module 34 are connected to each connecting portion 33, and each blade module 34 has a plurality of drag blades 35. included. A rotating shaft 351 is provided at one end of the drag blade piece 35, and a convex ring shaft 38 is provided at the end of the rotating shaft 351.

The convex wheel shaft 38 is provided with a convex wheel 381 that is deeply fitted in the trajectory control guide groove 23. Y. Z. The convex wheel 381 can be deeply settled on the locus by the triaxial movement, and the angle of the drag blade 35 can be adjusted at the same time.

In the blade module 34, a plurality of upright lift blades 36 are provided outside the drag blades 35, and a bias is generated in the wind-lifting blade blades 36 to rotate the unit. A flywheel 6 (as shown in FIG. 2) is provided on the outermost side of the lift blade piece 36. When the flywheel 6 is rotated by a centrifugal flywheel type by a counterweight formed by a composite configuration of several outer blade pieces, the flywheel 6 has two effects of energy accumulation and leveling, and maintains the output of energy. .

The circular load platform 39 at the bottom of the sleeve is connected to an output shaft 31 at the center thereof and connected to a generator (not shown) to generate power.

The direction determining unit 2 includes a rotating guide tube 21 installed on a circular load platform 39. In addition, a bearing 22 is provided between the circular load platform 39 and can rotate independently.
The trajectory control guide groove 23 is installed on the surface of the rotary guide tube 21.

  A wind direction determining device 24 is provided at the top of the direction determining unit 2. At the rear end of the wind direction determining device 24, there is a flow guide tail plate 25. The wind direction determining device 24 is always directed to the wind surface, the rotating guide tube 21 is rotated according to the wind direction, and the blade unit 30 is automatically turned on. You can adjust the angle of the wind.

  A conduit 40 extends downward from the antenna and instrument device 4. The conduit 40 is formed at the center of the wind turbine fixing base 1, the energy output unit 3, and the direction determining unit 2. The conduit 40 is divided by the bearing between the wind turbine fixing base 1, the direction determining unit 2 and the output shaft 31, and does not prevent individual rotation. The conduit 40 extends the top antenna and the instrument device 4 or the lightning rod lead down to the ground for other uses.

  A description will be given with reference to FIG. 3 again. An extending sleeve 321 is connected to the bottom of the sleeve 32 of the blade unit 3. The edge of the extending sleeve 321 is bent inward and fitted into the bottom of the wind turbine fixing pedestal 1, and the bearing 323 is installed between the extending sleeve 321 and the wind turbine fixing pedestal 1, whereby the output unit 3 can be stabilized, and can be maintained for a long time by avoiding contamination by rainwater and dust. A brake board 7 is installed outside the sleeve 32 so that the machine is stopped for easy maintenance.

  Further, in FIG. 1, stability is enhanced by separately connecting each blade module 34 or connecting portion 33 of the blade unit 30 in series with a support frame 341 or a pull string 342. The path of the support rack 341 or the drawstring 342 passes through the maximum deployment location of the drag blade piece 35. The purpose of the support rack 341 is to support the support rack 341 when the drag blade piece 35 receives a momentary excessive wind force. Alternatively, it is possible to prevent contact with the drawstring 342 and breakage.

  This will be described with reference to FIG. In order to reduce the wind resistance of the blade, in the present invention, the angle adjustable drag blade 35 is used to receive the maximum wind pressure when the wind is normal and the drag blade 35 is lifted upward when the wind is reversed. From the both sides of the drag blade 35. At the same time, an oblique hole 352 is provided on the surface of the drag wing piece 35. The slanted hole 352 can avoid forming a drag force on the back wind surface of the drag wing piece 35 by causing a part of the wind force to flow away in the forward direction when the wind is normal. It can reduce what happens.

  This will be described with reference to FIGS. 6A and 6B. In order to increase the rotational inertial mass, in the present invention, the flywheel type inertial mass unit 37 is formed by increasing the mass of the outermost lifting blade 36. The flywheel inertial mass unit 37 and several outer lift wing pieces 36 are combined to form the flywheel 6 so that the inertial mass naturally occurs when rotating with a larger mass and longer torque. By generating and maintaining the rotational motion, the energy output unit 3 performs the inertial mass balanced rotational motion for a long time after the rotation is started, and the dependence on the stable wind force can be reduced.

  The cross sections of the upright lift wing piece 36 and the flywheel inertial mass unit 37 have the shape of a machine wing. By utilizing Bernoulli's principle, when the wind power flows away from the upright lift blade, the energy output unit 3 can be rotated by naturally generating lift.

  This will be described with reference to FIGS. 4 and 7 to 7C. In order to maintain a good angle at which the wind of the drag blade 35 receives the wind, the convex wheel 381 must always be fitted in the trajectory control guide groove 23. Since the rotary guide tube 21 has a circular cross section, the relative distance from the trajectory control guide groove 23 may always change when the convex ring 381 rotates. Therefore, the convex wheel shaft 38 according to the present invention connects the packing block 383 to the rotating shaft 382. The packing block 383 is supported by a spring 384. A spherical rotating shaft 385 is installed at one end of the packing block 383. The convex wheel 381 is installed on the spherical rotating shaft 385.

  In this way, the convex wheel 381 first contacts the bottom of the trajectory control guide groove 23 (FIG. 7A), and when the blade unit 30 rotates, the convex wheel shaft 38 moves into the trajectory control guide groove 23. Then, the convex wheel 381 is pulled and displaced on the plane of the X and Y axes, and the convex wheel 381 is displaced from the bottom of the trajectory control guide groove 23 (FIG. 7B). At this time, the spring 384 generates thrust, and the convex ring 381 is moved in the Z-axis direction by the packing block 383. The spherical rotary shaft 385 holds the convex wheel 381 deeply in the trajectory control guide groove 23 even when the trajectory control guide groove 23 changes in height. Y. Z. The convex wheel 381 can be completely settled on the trajectory control guide groove 23 by the triaxial movement.

  As shown in FIG. 8, in the actual weather, there is a possibility that the drag wing piece 35 may be damaged due to a momentary strong wind force. Therefore, in the present invention, a hinge unit 353 is installed between the drag wing piece 35 and the rotating shaft 351. The hinge unit 353 has a force required for opening in advance, and the drag force is set in advance. When the wing piece 35 receives momentary strong wind force and exceeds the set value, the impact received by the drag wing piece 35 is buffered by opening the wing piece 354 of the hinge unit 353, and the structural strength of the drag wing piece 35 is increased. Can be maintained.

As shown in FIG. 9, when actually manufacturing the present invention, the blade module 34 can be adjusted to the wind distribution at the installation site. For example, at sites where wind power is relatively weak, by increasing the distribution of upright lift wings 36 that can generate thrust at any time, the weak wind volume can be applied most effectively to achieve the purpose of energy output. I can do it. At this time, have lines designed to reduce drag wing 35, not only can exhibit functions, it is possible to simplify the design of the drag wing control.

[Reference example]
As shown in FIG. 10, in the same manner, the relatively strong site of the wind, increasing the distribution of anti Chikaratsubasahen 35, and by reducing the number of upright lift wing 36, the most effective rich air volume It can be applied to achieve the purpose of energy output. In some cases, the drag wings 35 can completely replace the upright lift wings 36, simplifying the overall design.

DESCRIPTION OF SYMBOLS 1 Wind machine fixed base 2 Direction determination unit 21 Rotation guide tube 22 Bearing 23 Trajectory control guide groove 24 Wind direction determination apparatus 25 Current guide tail plate 3 Energy output unit 30 Wing piece unit 31 Output shaft 32 Sleeve 321 Extending sleeve 322 Bearing 323 Bearing 33 Connecting portion 34 Wing piece module 341 Supporting frame 342 Drawstring 35 Drag wing piece 351 Rotating shaft 352 Oblique hole 353 Hinged unit 354 Wing piece 36 Upright type lifting wing piece 37 Flywheel type inertial mass unit 38 Convex wheel shaft 381 Convex wheel 382 Rotation Shaft 383 Packing block 384 Spring 385 Spherical rotating shaft 39 Circular load platform 4 Antenna and instrument device 40 Conduit 41 Bearing 5 Tower 51 Gate wall 6 Flywheel 7 Brake board F Negative pressure U Lift D Drag

Claims (11)

A vertical axis wind kinetic energy generation device of the composite rotary mechanism of the anti-forces wing and upright lift wing (wind tunnel-type vertical axis wind kinetic energy generation device),
In a multi-floor design, a tower that guides the flow direction of wind energy by controlling the gate walls on the side of the upper and lower floor plates with a computer for multiple sets of wind units,
A wind turbine fixing base for mounting other structures further included in the wind turbine;
An energy output unit;
A direction unit,
The energy output unit is provided with a circular load platform that can be freely rotated by a bearing on a fixed base,
A sleeve is provided on the flat base, and the sleeve is set outside the circular load flat base and can rotate together,
Wing piece units are connected to the outside of the sleeve,
This winglet unit has upper and lower joints,
The two connecting portions are fixed to the upper and lower ends of the sleeve,
A plurality of winglet modules are connected to each joint,
Each blade module contains multiple drag blades,
A rotating shaft is installed at one end of the drag blade,
A convex wheel shaft is provided at the end of the rotation shaft,
A convex wheel is installed deep in the trajectory control guide groove, and the X. Y. Z. Using the triaxial movement, the convex ring can be completely settled on the locus, and the angle of the drag blade can be adjusted at the same time.
In the winglet module, a plurality of upright lift wing pieces are provided on the outside of the drag wing piece, and a bias is generated in the lift wing piece during wind receiving to rotate the unit,
A flywheel is provided on the outermost side of the lift blade, and when the centrifugal flywheel rotates, it has two effects of energy accumulation and leveling, maintaining energy output,
The circular load platform at the bottom of the sleeve has an output shaft connected to its center, and the output shaft can be connected to a generator to generate power.
The orientation unit has a rotating guide tube, is installed on a circular load platform and can be rotated independently by a bearing;
A trajectory control guide groove is provided on the surface of the rotating guide tube,
There is a wind direction determining device at the top of the direction determining unit,
A wind guide tail plate is provided at the rear end of the wind directing device to maintain the wind directing device toward the wind surface, and at the same time, rotate the rotating guide tube to automatically wind the blade unit wind. directed angle can be adjusted, the vertical axis wind kinetic energy generation device of the composite rotary mechanism of the anti-forces wing and upright lift wing you wherein a. An antenna and an instrument panel are provided, and a conduit is extended downward. The conduit is drilled in the center of the wind turbine fixing base, the energy output unit and the directing unit, and each detail device is separated by a bearing. the the top end of the conduit instrument, antenna, or there is a lightning rod, composite type of anti-forces wing and upright lift wing according to claim 1, characterized in that it is stretched wires to the ground by a conduit rotation The vertical axis wind kinetic energy generator of the mechanism. By providing a bearing between the rotating guiding tube of the direction determining unit and the circular load platform of the energy output unit, the rotating guiding tube and the energy output unit are respectively located inside, outside (or above, below) the bearing. ) is installed, independently rotated to a vertical axis wind kinetic energy generation device of the composite rotary mechanism of the anti-forces wing and upright lift wing according to claim 1, characterized in that the wind direction decided pipe. An extension sleeve is connected to a side surface of the circular load platform of the energy output unit, and the edge of the extension sleeve is bent inward and fitted to the bottom of the fixed base of the wind machine, so that the sleeve Fitted to the fixed base of the machine, there is a bottom seat in the sleeve, and a bearing is installed between the bottom seat and the wind machine fixed base, so that the bottom seat and the wind machine fixed base are respectively inside the bearing, Installed on the outside (or above, below) and can be rotated individually, the other end of the extension sleeve is fixed on the circular load platform of the output unit and united, stability when the energy output unit rotates the keep manner was that the anti-forces wing and a vertical axis wind kinetic energy generated in the composite rotary mechanism of upright lift wing according to claim 1, wherein Location. The flow guide tail plate is formed by connecting a plurality of plate blocks to form both right and left sides, and supporting the gap between the flow guide tail plates on both sides with a connecting rod to form a taper. automatically towards the direction of movement of the gas, combined anti force wing and upright lift wing according to claim 1, characterized in that orienting unit has to be able to control the angle required Totsuwa rotation Vertical-axis wind kinetic energy generator with a rotating mechanism. By installing a slant hole in the surface of the drag wing piece, when the drag wing piece cuts the wind (also called “flowing water main wing piece”) and a load is generated, this load is changed to the direction of the wind by the slant hole. guiding to anti force wing and a vertical axis wind kinetic energy generation device of the composite rotary mechanism of upright lift wing according to claim 1, characterized in that to reduce the negative pressure formation drag back wind surface. There is a hinge unit between the drag wing piece and the rotating shaft, and when the drag wing piece is subjected to a momentary strong wind, by opening the wing piece of the hinge unit, the impact received by the drag wing piece is reduced, vertical axis wind kinetic energy generation device of the composite rotary mechanism of the anti-forces wing and upright lift wing according to claim 1, characterized in that it is possible to maintain the stability of the structure. A packing block is connected to the convex wheel shaft, the packing block is supported by a spring, a spherical rotary shaft is installed at one end of the packing block, and the convex wheel is installed on the spherical rotary shaft. X. Y. Z. The three-axis motion of the three-dimensional movement is a three-dimensional design that always fits the convex wheel deeply into the trajectory control guide groove, so that it can be completely settled on the trajectory and maintain operational stability. vertical axis wind kinetic energy generation device of the composite rotary mechanism of the anti-forces wing and upright lift wing according to claim 1. In the above design, there is a multi-floor design tower, and each floor is provided with a vertical axis wind kinetic energy generating device that is propelled and rotated by a drag blade and a direct-power blade. The gate wall that blocks the gate and is controlled by the computer can adjust the elevation of the gate wall according to the measured wind direction, and the air pressure is provided on the gate wall to reduce the wind pressure. By operating floors and gate walls, it is possible to control high and low airflow and lateral flow, effectively maintain the energy output of the wind tunnel, and also control the vertical axis type wind kinetic energy device. vertical axis wind kinetic energy generation device of the composite rotary mechanism of the anti-forces wing and upright lift wing according to claim 1. The method according to claim 1, wherein the distribution of the drag wings can be reduced by dividing the wind power by using the blade module method and increasing the distribution of the upright lift wings. vertical axis wind kinetic energy generation device of the composite rotary mechanism of the anti-forces wing and upright lift wing according. The weight of the outermost lifting wing piece is raised to form a flywheel type inertial mass unit, and combined with several outer wing pieces to form a flywheel in a composite configuration, when performing a rotational movement, the vertical axis type anti force wing and composite type rotation mechanism of the upright lift wing according to claim 1, characterized in that it is possible to produce two efficacy of the energy saving and leveling Wind kinetic energy generator.

Images