A bladeless wind turbine capable of improving wind power generation efficiency

Abstract

The application relates to the field of wind power generation technology and discloses a bladeless wind driven generator capable of improving wind power generation efficiency, which comprises an energy storage base mechanism and a power capturing mechanism, the energy storage base mechanism comprises an electric energy storage system, a regulation and control transmission system, a protection optimization system and a light energy application system, and the power capturing mechanism comprises a power capturing and conducting system, a power capturing optimization system, a regulation and control optimization system and a support protection system; the bladeless wind driven generator capable of improving wind power generation efficiency has the power capturing optimization system and the regulation and control transmission system, the lifting regulation and control mechanism and the pneumatic conducting mechanism arranged in the regulation and control transmission system are started through the transmission control air pump, the lifting air cylinder piston rod is pushed out, the lifting butt joint seat and the lifting fixed seat are far away from each other, the upper end of the function mounting seat is lifted, the power capturing and conducting system is lifted, the power capturing column body is lifted, and the high-altitude airflow kinetic energy with a faster flow speed can be more favorably captured.

Description

Technical Field

[0001] This invention relates to the field of wind power generation technology, specifically to a bladeless wind turbine that can improve the efficiency of wind power generation. Background Technology

[0002] With the development of technology, wind power application technology is also advancing rapidly. Traditional blade-driven wind turbines are large in size and have high costs and maintenance, which limits the widespread application of wind power. In recent years, bladeless wind power technology has been proposed. Bladeless vortex-induced vibration power generation technology uses the vortex-induced force when wind acts on its energy-capturing column to generate strong periodic oscillations in the lateral and airflow directions. The mechanical energy of the oscillation is then converted into electrical energy through its energy conversion device. It has the characteristics of easy layout and installation and low cost and maintenance. However, existing bladeless vortex-induced vibration generators are affected by the oscillation operation and material characteristics. During the power generation process, the energy-capturing column and internal structure wear will affect the service life. At the same time, when the wind force and airflow are small, the wind flow cannot be fully utilized for power generation, resulting in general power generation efficiency. Summary of the Invention

[0003] The purpose of this invention is to provide a bladeless wind turbine that can improve the efficiency of wind power generation, thereby overcoming the above-mentioned defects in the prior art.

[0004] The present invention is achieved through the following technical solution.

[0005] The present invention provides a bladeless wind turbine that can improve the efficiency of wind power generation, comprising an energy storage base mechanism and an energy capture mechanism. The energy storage base mechanism includes an energy storage system, a control and transmission system, a protection and optimization system, and a solar energy application system. The energy capture mechanism includes an energy capture and transmission system, an energy capture and optimization system, a control and optimization system, and a support and protection system.

[0006] The energy storage system includes an energy storage base, a power generation conduction channel is provided inside the energy storage base, and a power generation energy storage module is fixedly installed in the bottom cavity inside the power generation conduction channel;

[0007] The protection optimization system includes a functional mounting base, the top inner wall of which is arrayed with four sets of adaptive sliding cavities. An elastic support rod is slidably mounted in each adaptive sliding cavity. The elastic support rod consists of a lower vertical mounting part and a top outward-biased protective support part.

[0008] The energy harvesting and conduction system includes an energy harvesting column, an energy harvesting docking groove inside the energy harvesting column, an energy harvesting and conduction rod inside the energy harvesting column, the energy harvesting and conduction rod passing through the energy harvesting docking groove and the power generation conduction groove in sequence, the end of which is placed in the power generation and energy storage module and connected to its internal swing transmission structure, a permanent magnet end block is installed on the top of the energy harvesting and conduction rod, and a functional magnetic block is set on the top of the energy harvesting docking groove.

[0009] The energy harvesting optimization system includes four sets of energy harvesting optimization slots arrayed within the energy harvesting column, and an energy harvesting plate is slidably installed within the energy harvesting optimization slot;

[0010] The support and protection system includes a protective functional seat, a column groove at the center of the protective functional seat, the bottom of the energy-capturing column is fixedly installed in the column groove, the protective functional seat is installed on the upper side of the functional mounting base, the protective functional seat array has four mating arc surfaces, the elastic support rods corresponding to the positions are installed on the outer side of the corresponding mating arc surfaces, a protective spring is fixedly installed on the outer wall of the end of the mating arc surface, and a protective baffle is fixedly installed on the end of the protective spring;

[0011] The control and transmission system includes a lifting control mechanism and a pneumatic transmission mechanism.

[0012] In a further technical solution, the lifting control mechanism includes a lifting fixed seat, a lifting cylinder, and a lifting docking seat. The lifting fixed seat is fixedly installed on the top of the energy storage base, and the lifting docking seat is fixedly installed on the bottom of the functional mounting base and nested inside the lifting fixed seat. The bottom inner wall of the functional mounting base is provided with a cavity for fixing the lifting cylinder, and the end of the lifting cylinder is supported in the lifting fixed seat for adjusting the lifting.

[0013] A further technical solution includes a control air pump embedded and fixedly installed inside the functional mounting base. The functional mounting base has a pneumatic ring cavity. The control air pump has two output ports. One output port of the control air pump is connected to the lifting cylinder through an air passage in the inner wall of the functional mounting base. The other output port of the control air pump is connected to the pneumatic ring cavity. A guide piston cylinder is fixedly installed at the bottom of the adaptive sliding cavity. The outer end of the piston rod of the guide piston cylinder is placed at the top. The air inlet end of the side of the guide piston cylinder is connected to the outside. The bottom of the guide piston cylinder is connected to the pneumatic ring cavity, so that the support effect can be controlled by air pressure. The inner wall of the functional mounting base has four sets of guide channels. The top of the pneumatic ring cavity has four connected control valves connected to the bottom of the guide channels.

[0014] A further technical solution includes a limiting mounting rod fixedly installed inside the adaptive sliding cavity; the elastic support rod having a lifting groove; the limiting mounting rod passing through the lifting groove to limit the lifting range of the elastic support rod; a rotating connecting pair fixedly installed at the bottom of the elastic support rod; a transmission pressure plate rotatably installed on the rotating connecting pair; the transmission pressure plate abutting against the top of the piston rod of the air guide piston cylinder; a support spring fixedly installed on the side wall of the adaptive sliding cavity; and a vertical support plate installed at the end of the support spring to support the outer side of the elastic support rod.

[0015] In a further technical solution, the control and optimization system includes two sets of pneumatic cavities, with a connecting hole at the end of each pneumatic cavity. A sliding mounting plate is provided at the rear end of the energy-capturing plate. The sliding mounting plate is slidably placed in the energy-capturing optimization groove and can be moved by air pressure. A return spring is installed between the sliding mounting plate and the inner wall of the energy-capturing optimization groove. The two ends of the connecting hole are respectively connected to the energy-capturing optimization groove on the same horizontal plane.

[0016] A further technical solution is provided in which the protective functional seat is arrayed with four sets of docking channels, each docking channel is connected to a telescopic air pipe, the end of the telescopic air pipe is connected to the corresponding air guiding channel, the end of the docking channel is connected to a connecting conduit, the inner wall of the energy-capturing column is provided with a gas pressure introduction channel, the end of the connecting conduit is connected to the corresponding gas pressure introduction channel, and the ends of the two sets of gas pressure introduction channels on the same horizontal plane are connected to the pneumatic cavity that controls the movement of the energy-capturing plate on another horizontal plane.

[0017] In a further technical solution, the solar energy application system includes a mounting frame, which is fixedly installed on the outer wall of the energy storage base. A solar panel is rotatably mounted on the mounting frame, and the solar panel is equipped with a photovoltaic battery. The photovoltaic battery is electrically connected to the electronic control structure through an electronic control circuit.

[0018] In a further technical solution, the outer wall array of the protective functional seat is provided with bolt grooves, and correspondingly, the bottom outer wall of the energy-harvesting column is provided with screw holes. The protective functional seat fixes the energy-harvesting column by means of bolt grooves, screws, and screw hole structures.

[0019] In a further technical solution, the energy storage base is provided with a fixed base at its bottom, which is used to fix it to the ground where it is set.

[0020] The beneficial effects of this invention are:

[0021] This invention provides a bladeless wind turbine that improves wind power generation efficiency, incorporating an energy capture optimization system and a control transmission system. Through structural and functional optimization of the energy capture column, the weight of the energy capture column is reduced by using an internal cavity structure and the energy capture optimization system. Simultaneously, the energy capture column's ability to adjust its wind capture effect can be adjusted according to conditions. This addresses the issue that in practical applications, the fixed configuration of conventional bladeless vortex-induced vibration generators prevents effective displacement of the energy capture column for power generation when ambient airflow is low or gentle. Instead, the control transmission system utilizes a lifting control mechanism and a pneumatic transmission mechanism. By activating a control air pump, the piston rod of the lifting cylinder is pushed out, allowing the energy capture column to move and generate electricity. The lifting docking seat and the lifting fixed seat are far apart, which raises the height of the upper part of the functional mounting seat, thereby raising the energy capture and conduction system and raising the height of the energy capture column. This is more conducive to capturing the kinetic energy of the faster airflow at high altitudes. At the same time, the other output port of the transmission and control air pump is connected and started, which can realize the air pressure conduction through the air pressure ring cavity and output through the air guide channel in the state of the one-way valve connection. After the air transmission structure is conducted, the two sets of pneumatic cavities simultaneously push each set of energy capture plates to extend outward, thereby increasing the area of ​​the energy capture column that intercepts the airflow. After swinging due to the breeze, it resets. With the height increase, the power generation efficiency and effect under weak airflow conditions are further improved by increasing the area of ​​airflow action.

[0022] This invention provides a bladeless wind turbine that improves wind power generation efficiency, incorporating a protection optimization system and a support protection system. During eddy current generation, conventional eddy current generators generate eddy currents by reversing the energy-capturing column through internal magnetic force. The lack of other support and protection structures for the energy-capturing column and internal energy-conducting rods results in low cost and simple maintenance, but also wear and cracking, leading to a short service life. In this invention, a protection optimization system is installed on the upper part of the functional mounting base. Multiple sets of elastic support rods are installed on the bottom side of the energy-capturing column, and a protective functional seat is fixedly installed on the outer wall of the bottom of the energy-capturing column. The protective functional seat, also made of lightweight carbon fiber and glass fiber, does not affect the normal deflection of the energy-capturing column. The outer curved surface of the protective functional seat is fitted with the elastic support rods. This design provides protection for the energy-harvesting column. During the deflection and regeneration process, the protective seat deflects accordingly, causing the elastic support rod to slide relative to the mating arc surface. After sliding to a certain range, it counteracts the protective baffle. The protective spring and the internal magnetic force of the energy-harvesting column work in opposite directions. Therefore, through the cooperation of the elastic support rod and the mating arc surface of the protective seat, a support effect is formed from the outside during the deflection of the energy-harvesting column, thereby reducing the pressure on the internal magnetic structure and the energy-harvesting transmission rod and providing protection for the energy-harvesting column. When the wind force is too strong and exceeds the safe deflection threshold, the protective spring presses down to the bottom, causing the elastic support rod to slide relative to the end of the stroke of the mating arc surface, forming efficient support to prevent further deflection and breakage of the energy-harvesting column and its internal structure. Attached Figure Description

[0023] To more clearly illustrate the technical solutions in the embodiments of the invention or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0024] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0025] Figure 1 This is a schematic diagram of the overall structure of the present invention;

[0026] Figure 2 This is a schematic cross-sectional view of the overall structure of the present invention;

[0027] Figure 3 yes Figure 1 A cross-sectional view of the energy storage base mechanism 15;

[0028] Figure 4 yes Figure 1 A cross-sectional structural schematic diagram of the energy-capturing mechanism 20; Detailed Implementation

[0029] The following is combined with Figure 1-4 The present invention will be described in detail below. For ease of description, the directions referred to below are defined as follows: the directions of up, down, left, right, front, and back mentioned below are the same as... Figure 1 The directions of the projection relationship are consistent in all directions: up, down, left, right, front, and back.

[0030] Combined with appendix Figure 1-4 The bladeless wind turbine that can improve the efficiency of wind power generation includes an energy storage base mechanism 15 and an energy capture mechanism 20. The energy storage base mechanism 15 includes an energy storage system, a control and transmission system, a protection and optimization system, and a solar energy application system. The energy capture mechanism 20 includes an energy capture and transmission system, an energy capture and optimization system, a control and optimization system, and a support and protection system.

[0031] The energy storage system includes an energy storage base 21, a power generation conduction channel 23 is provided inside the energy storage base 21, and a power generation energy storage module 22 is fixedly installed in the bottom cavity of the power generation conduction channel 23.

[0032] The protection optimization system includes a functional mounting base 26. The top inner wall of the functional mounting base 26 is provided with four sets of adaptive sliding cavities 32. An elastic support rod 36 is slidably installed in the adaptive sliding cavity 32. The elastic support rod 36 is composed of a lower vertical mounting part and a top outward deflection protective support part.

[0033] The energy capture and conduction system includes an energy capture column 43, an energy capture docking groove 44 inside the energy capture column 43, an energy capture conduction rod 24 inside the energy capture column 43, the energy capture conduction rod 24 passes through the energy capture docking groove 44 and the power generation conduction groove 23 in sequence, and is placed at the end of the power generation and energy storage module 22 and connected to its internal swing transmission structure. A permanent magnet end block 46 is installed on the top of the energy capture conduction rod 24, and a functional magnetic block 45 is set on the top of the energy capture docking groove 44.

[0034] The energy harvesting optimization system includes four sets of energy harvesting optimization slots 57 arrayed within the energy harvesting column 43, and an energy harvesting plate 59 is slidably installed within the energy harvesting optimization slots 57.

[0035] The support and protection system includes a protective functional seat 47, with a column groove 52 at the center of the protective functional seat 47. The bottom of the energy-capturing column 43 is fixedly installed in the column groove 52. The protective functional seat 47 is installed on the upper side of the functional mounting base 26. The protective functional seat 47 has four mating arc surfaces 48 arranged in an array. The corresponding elastic support rods 36 are installed on the outer side of the corresponding mating arc surfaces 48. A protective spring 49 is fixedly installed on the outer wall of the end of the mating arc surface 48. A protective baffle 50 is fixedly installed on the end of the protective spring 49.

[0036] The control transmission system includes a lifting control mechanism and a pneumatic transmission mechanism.

[0037] Preferably, the lifting control mechanism includes a lifting fixed seat 25, a lifting cylinder 28, and a lifting docking seat 27. The lifting fixed seat 25 is fixedly installed on the top of the energy storage base 21, and the lifting docking seat 27 is fixedly installed on the bottom of the functional mounting base 26 and nested inside the lifting fixed seat 25. The bottom inner wall of the functional mounting base 26 is provided with a cavity for fixing the lifting cylinder 28. The end of the lifting cylinder 28 is supported in the lifting fixed seat 25 for adjusting the lifting.

[0038] Preferably, the pneumatic transmission mechanism includes a control air pump 30, which is embedded and fixedly installed inside the functional mounting base 26. The functional mounting base 26 has a pneumatic ring cavity 31. The control air pump 30 has two output ports. One output port of the control air pump 30 is connected to the lifting cylinder 28 through the air passage in the inner wall of the functional mounting base 26, and the other output port of the control air pump 30 is connected to the pneumatic ring cavity 31. A guide piston cylinder 33 is fixedly installed at the bottom of the sliding cavity 32. The outer end of the piston rod of the guide piston cylinder 33 is placed at the top, and the air inlet end of the side of the guide piston cylinder 33 is connected to the outside. The bottom of the guide piston cylinder 33 is connected to the pneumatic ring cavity 31, so that the support effect can be controlled by air pressure. The inner wall of the functional mounting base 26 is provided with four sets of guide channels 41. The top of the pneumatic ring cavity 31 is provided with four connected control valves connected to the bottom of the guide channels 41.

[0039] Preferably, a limiting mounting rod 40 is fixedly installed inside the sliding cavity 32, and the elastic support rod 36 is provided with a lifting groove 39. The limiting mounting rod 40 passes through the lifting groove 39 to limit the lifting range of the elastic support rod 36. A rotating connecting pair 35 is fixedly installed at the bottom of the elastic support rod 36, and a transmission pressure plate 34 is rotatably installed on the rotating connecting pair 35. The transmission pressure plate 34 abuts against the top of the piston rod of the air guide piston cylinder 33. A support spring 38 is fixedly installed on the side wall of the sliding cavity 32, and a vertical support plate 37 is installed at the end of the support spring 38 to support the outside of the elastic support rod 36.

[0040] Preferably, the control and optimization system includes two sets of pneumatic cavities 61 set at the center of the energy harvesting column. The pneumatic cavities 61 are connected to the end of a through hole 62. The rear end of the energy harvesting plate 59 is provided with a sliding mounting plate 58. The sliding mounting plate 58 is slidably placed in the energy harvesting optimization groove 57 and can be moved by air pressure. A return spring 60 is installed between the sliding mounting plate 58 and the inner wall of the energy harvesting optimization groove 57. The two ends of the through hole 62 are respectively connected to the energy harvesting optimization groove 57 on the same horizontal plane.

[0041] Preferably, the protective functional seat 47 is provided with four sets of docking channels 56. The docking channels 56 are connected to telescopic air pipes 42. The end of the telescopic air pipes 42 is connected to the corresponding air guide channel 41. The end of the docking channel 56 is connected to a connecting conduit 55. The inner wall of the energy-capturing column 43 is provided with a pressure inlet channel 54. The end of the connecting conduit 55 is connected to the corresponding pressure inlet channel 54. The ends of the two sets of pressure inlet channels 54 on the same horizontal plane are connected to the pneumatic cavity 61 that controls the movement of the energy-capturing plate 59 on another horizontal plane.

[0042] Preferably, the solar energy application system includes a mounting plate 12, which is fixedly installed on the outer wall of the energy storage base 21. A solar panel 13 is rotatably mounted on the mounting plate 12. The solar panel 13 is equipped with a photovoltaic battery 14, which is electrically connected to the electronic control structure through an electronic control circuit 16.

[0043] Preferably, the outer wall of the protective functional seat 47 is provided with bolt grooves 51, and correspondingly, the bottom outer wall of the energy-capturing column 43 is provided with screw holes. The protective functional seat 47 fixes the energy-capturing column 43 by means of bolt grooves 51, screws, and screw holes.

[0044] Preferably, the energy storage base 21 has a fixed base 11 at its bottom, which is used to fix it to the ground.

[0045] The specific usage method and principle of this invention:

[0046] Under the action of wind, the airflow causes the energy-capturing column 43 to swing. The swing of the energy-capturing column 43 causes the internal permanent magnet end block 46 and functional magnetic block 45 to repel each other, causing the energy-capturing column 43 to deflect and then deflect in the opposite direction, thus forming a reciprocating swing effect and generating eddies. During this process, the energy-capturing transmission rod 24 vibrates, thereby driving the internal transmission component of the power generation and energy storage module 22 to rotate. The rotor rotates and converts kinetic energy into electrical energy for storage.

[0047] The bladeless wind turbine of this invention, which improves wind power generation efficiency, includes an energy capture optimization system and a control transmission system. Through structural and functional optimization of the energy capture column, the weight of the energy capture column is reduced by using an internal cavity structure and the energy capture optimization system. Simultaneously, the energy capture column's ability to adjust its wind capture effect can be adjusted according to conditions. This addresses the issue that in practical applications, the fixed configuration of conventional bladeless vortex-induced vibration generators prevents the energy capture column 43 from shifting for power generation when the ambient airflow velocity is low or gentle. Instead, the control transmission system incorporates a lifting control mechanism and a pneumatic transmission mechanism. The control air pump 30 is activated, pushing the piston rod of the lifting cylinder 28 outwards, causing the lifting docking seat 27 to engage with the lifting fixed seat. The distance between 25 and 26 causes the upper part of the functional mounting base 26 to be raised, thereby raising the energy capture and conduction system and raising the height of the energy capture column 43. This is more conducive to capturing the kinetic energy of the faster airflow at high altitudes. At the same time, the other output port of the transmission and control air pump 30 is connected and started, which can realize the air pressure conduction through the air pressure ring cavity 31 and output through the air guide channel 41 in the valve connected state. After the air transmission structure conducts the air pressure, the two sets of pneumatic cavities 61 are fed into the energy capture optimization groove 57 through air pressure, and at the same time push each set of energy capture plates 59 to extend outward. This increases the area of ​​the energy capture column 43 that intercepts the airflow. After swinging with the wind, it resets. With the increase in height, the power generation efficiency and effect under weak airflow conditions are further improved by increasing the area of ​​airflow action.

[0048] In a bladeless wind turbine of the present invention that can improve wind power generation efficiency, there are a protection optimization system and a support protection system. During the eddy current generation process, the energy-capturing column 43 of a conventional eddy current generator only generates eddy current power through reverse reset by internal magnetic force. The energy-capturing column 43 and the internal energy-capturing transmission rod 24 have no other support and protection structure. Although the eddy current generator is low in cost and simple to maintain, it suffers from wear and cracking problems, resulting in a short service life. In the present invention, a protection optimization system is set on the upper part of the functional mounting base 26, and multiple sets of elastic support rods 36 are set on the bottom side of the energy-capturing column 43. A protective functional seat 47 is fixedly installed on the bottom outer wall of the energy-capturing column 43. The protective functional seat 47 is also made of lightweight carbon fiber and glass fiber material, which does not affect the normal deflection of the energy-capturing column 43. At the same time, the mating arc surface 48 of the outer wall of the protective functional seat 47, together with the elastic support rods 36, can realize the protection of the energy-capturing column 43. The energy-capturing column 43 provides protection. During the deflection and regeneration process of the energy-capturing column 43, the protective functional seat 47 deflects accordingly, causing the elastic support rod 36 to slide relative to the mating arc surface 48. After sliding to a certain range, it creates a counteracting effect with the protective baffle 50. Under the action of the protective spring 49 and the internal magnetic force of the energy-capturing column 43, the opposite force is achieved. Therefore, through the cooperation of the elastic support rod 36 and the mating arc surface 48 of the protective functional seat 47, a support effect is formed from the outside during the deflection of the energy-capturing column 43, thereby reducing the pressure on the internal magnetic structure and the energy-capturing transmission rod 24 and providing protection for the energy-capturing column 43. When the wind force is too strong and exceeds the safe deflection threshold, the protective spring 49 is pressed to the bottom, causing the elastic support rod 36 to slide relative to the end of the stroke of the mating arc surface 48 to form an efficient support and prevent further deflection that could lead to the breakage of the energy-capturing column 43 and its internal structure.

[0049] The above embodiments are only for illustrating the technical concept and features of the present invention, and are intended to enable those skilled in the art to understand and implement the present invention. They should not be construed as limiting the scope of protection of the present invention. All equivalent changes or modifications made in accordance with the spirit and essence of the present invention should be covered within the scope of protection of the present invention.

Claims

1. A bladeless wind turbine that can improve the efficiency of wind power generation, comprising an energy storage base mechanism and an energy capture mechanism, wherein the energy storage base mechanism includes an energy storage system, a control and transmission system, a protection and optimization system, and a solar energy application system, and the energy capture mechanism includes an energy capture and transmission system, an energy capture and optimization system, a control and optimization system, and a support and protection system; The energy storage system includes an energy storage base, a power generation conduction channel is provided inside the energy storage base, and a power generation energy storage module is fixedly installed in the bottom cavity inside the power generation conduction channel; The protection optimization system includes a functional mounting base, the top inner wall of which is arrayed with four sets of adaptive sliding cavities. An elastic support rod is slidably mounted in each adaptive sliding cavity. The elastic support rod consists of a lower vertical mounting part and a top outward-biased protective support part. The energy harvesting and conduction system includes an energy harvesting column, an energy harvesting docking groove inside the energy harvesting column, an energy harvesting and conduction rod inside the energy harvesting column, the energy harvesting and conduction rod passing through the energy harvesting docking groove and the power generation conduction groove in sequence, the end of which is placed in the power generation and energy storage module and connected to its internal swing transmission structure, a permanent magnet end block is installed on the top of the energy harvesting and conduction rod, and a functional magnetic block is set on the top of the energy harvesting docking groove. The energy harvesting optimization system includes four sets of energy harvesting optimization slots arrayed within the energy harvesting column, and an energy harvesting plate is slidably installed within the energy harvesting optimization slot; The support and protection system includes a protective functional seat, a column groove at the center of the protective functional seat, the bottom of the energy-capturing column is fixedly installed in the column groove, the protective functional seat is installed on the upper side of the functional mounting base, the protective functional seat array has four mating arc surfaces, the elastic support rods corresponding to the positions are installed on the outer side of the corresponding mating arc surfaces, a protective spring is fixedly installed on the outer wall of the end of the mating arc surface, and a protective baffle is fixedly installed on the end of the protective spring; The control and transmission system includes a lifting control mechanism and a pneumatic transmission mechanism.

2. A bladeless wind turbine generator with improved wind power generation efficiency according to claim 1, characterized in that: The lifting control mechanism includes a lifting fixed seat, a lifting cylinder, and a lifting docking seat. The lifting fixed seat is fixedly installed on the top of the energy storage base, and the lifting docking seat is fixedly installed on the bottom of the functional mounting base and nested inside the lifting fixed seat. The bottom inner wall of the functional mounting base is provided with a cavity for fixing the lifting cylinder. The end of the lifting cylinder is supported in the lifting fixed seat for adjusting the lifting.

3. A bladeless wind turbine generator with improved wind power generation efficiency according to claim 2, characterized in that: The pneumatic transmission mechanism includes a control air pump, which is embedded and fixedly installed inside the functional mounting base. The functional mounting base has a pneumatic ring cavity. The control air pump has two output ports. One output port of the control air pump is connected to the lifting cylinder through an air passage in the inner wall of the functional mounting base. The other output port of the control air pump is connected to the pneumatic ring cavity. A guide piston cylinder is fixedly installed at the bottom of the adaptive sliding cavity. The outer end of the piston rod of the guide piston cylinder is placed at the top. The air inlet end of the side of the guide piston cylinder is connected to the outside. The bottom of the guide piston cylinder is connected to the pneumatic ring cavity, so that the support effect can be controlled by air pressure. The inner wall of the functional mounting base has four sets of guide air channels. The top of the pneumatic ring cavity has four connected control valves connected to the bottom of the guide air channels.

4. A bladeless wind turbine generator with improved wind power generation efficiency according to claim 3, characterized in that: A limiting mounting rod is fixedly installed inside the adaptive sliding cavity. The elastic support rod is provided with a lifting groove. The limiting mounting rod passes through the lifting groove to limit the lifting range of the elastic support rod. A rotating connecting pair is fixedly installed at the bottom of the elastic support rod. A transmission pressure plate is rotatably installed on the rotating connecting pair. The transmission pressure plate abuts against the top of the piston rod of the air guide piston cylinder. A support spring is fixedly installed on the side wall of the adaptive sliding cavity. A vertical support plate is installed at the end of the support spring to support the outside of the elastic support rod.

5. A bladeless wind turbine generator with improved wind power generation efficiency according to claim 3, characterized in that: The control and optimization system includes two sets of pneumatic cavities. The pneumatic cavities are connected to each other with through holes at their ends. The rear end of the energy-capturing plate is provided with a sliding mounting plate. The sliding mounting plate is slidably placed in the energy-capturing optimization groove and can be moved by air pressure. A return spring is installed between the sliding mounting plate and the inner wall of the energy-capturing optimization groove. The two ends of the through holes are respectively connected to the energy-capturing optimization grooves on the same horizontal plane.

6. A bladeless wind turbine generator with improved wind power generation efficiency according to claim 5, characterized in that: The protective functional seat has four sets of docking channels in its internal array. Each docking channel is connected to a telescopic air pipe. The end of the telescopic air pipe is connected to the corresponding air guide channel. The end of the docking channel is connected to a connecting conduit. The inner wall of the energy-capturing column is provided with a pressure inlet channel. The end of the connecting conduit is connected to the corresponding pressure inlet channel. The ends of the two sets of pressure inlet channels on the same horizontal plane are connected to the pneumatic cavity that controls the movement of the energy-capturing plate on another horizontal plane.

7. A bladeless wind turbine generator with improved wind power generation efficiency according to claim 1, characterized in that: The solar energy application system includes a mounting plate, which is fixedly installed on the outer wall of the energy storage base. A solar panel is rotatably mounted on the mounting plate, and the solar panel is equipped with a photovoltaic battery. The photovoltaic battery is electrically connected to the electronic control structure through an electronic control circuit.

8. A bladeless wind turbine generator with improved wind power generation efficiency according to claim 1, characterized in that: The outer wall of the protective functional seat is provided with bolt grooves, and correspondingly, the bottom outer wall of the energy-harvesting column is provided with screw holes. The protective functional seat fixes the energy-harvesting column by means of bolt grooves, screws, and screw holes.

9. A bladeless wind turbine generator with improved wind power generation efficiency according to claim 1, characterized in that: The energy storage base is provided with a fixed base at its bottom, which is used to fix it to the ground.

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