Multi-lever power generation technology
By utilizing the multi-lever power generation technology and the repulsion of permanent magnets under breeze conditions, the problem of low power generation efficiency in low wind environments in the existing technology is solved, and efficient and flexible power generation effects are achieved, which are suitable for a variety of application scenarios.
Patent Information
- Application Number
- CN202510052259.9
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-01-14
- Publication Date
- 2025-03-14
AI Technical Summary
The prior art is difficult to achieve efficient power generation under breeze conditions, and has high wind requirements, resulting in low power generation efficiency in low wind environments.
Using multi-lever power generation technology, the combination of the central shaft, pulley, circular track, vertical fan slot, air retractor, permanent magnet, edge gear, transmission and gear generator is used to generate rotation and generate electricity under breeze conditions using the lever principle and the phase repulsive force of the permanent magnet.
Achieving multi-leverage power generation under breeze conditions reduces wind requirements and improves power generation efficiency. Due to the flexibility of the design and low noise characteristics, it is suitable for mobile and all-round applications, reducing construction and transportation costs.
Smart Images

Figure CN119616757A_ABST
Abstract
Description
Technical Field
[0001] The present invention belongs to green energy utilization technology and discloses a green energy power generation technology, in particular a multi-lever power generation technology. Background Art
[0002] With the development of the new era, people's daily life and industrial production have a great demand for electricity. Oil-fired power generation and coal-fired power generation cause great pollution, which is not conducive to people's demand for environmentally friendly energy. Large wind turbine power generation requires too high wind power. In order to achieve the power generation effect under breeze conditions, it is necessary to provide a more efficient multi-lever power generation technology. Summary of the invention
[0003] The invention discloses a multi-lever power generation technology, and its rights and features include a central axis, a pulley, a circular track, a vertical fan slot, a wind collector, a permanent magnet, a peripheral gear, a gearbox, a gear generator, a battery, and a guard frame, wherein the central axis is placed at the center of the guard frame and vertically fixed in the pulley, the pulley is externally connected to the vertical fan slot, an inner south and outer north permanent magnet is installed on the outer edge of the vertical fan slot, an inner north and outer south permanent magnet is installed on the guard frame, a peripheral gear is connected around the vertical fan slot, the peripheral gear drives the gearbox to link the gear generator, the wind collector is installed above the guard frame by docking the central axis, the wind collector and the vertical fan slot are connected to the pulley below, the pulley is inserted into the circular track, the central axis, the circular track, the gearbox, the gear generator, the magnetic induction coil, and the battery are placed in the guard frame and connected to the guard frame, the magnetic induction coil and the gear generator are connected to the battery, and multi-lever power generation is implemented. The purpose is to increase the green energy technology channels for the country. BRIEF DESCRIPTION OF THE DRAWINGS
[0004] Figure 1 It is a stereogram of a multi-lever power generation technology (with abstract attached).
[0005] Figure 2 It is a fusible view of multi-lever power generation technology.
[0006] Figure 3 It is a cross-sectional diagram of a multi-lever power generation technology.
[0007] Figure 4 It is a partial stereoscopic diagram of a multi-lever power generation technology.
[0008] Figure 5 It is a three-dimensional diagram of the vertical ventilation fan slot.
[0009] Figure 6 It is a three-dimensional diagram of the wind collector.
[0010] Markings: 1 is the central axis, 2 is the pulley, 3 is the circular track, 4 is the vertical fan slot, 5 is the permanent magnet, 6 is the peripheral gear, 7 is the gearbox, 8 is the gear generator, 9 is the guard frame, 10 is the wind collector, and 11 is the battery. DETAILED DESCRIPTION
[0011] To achieve the purpose of the present invention, the technical solution of the present invention is further described in detail below in conjunction with preferred examples and the accompanying drawings.
[0012] The present invention discloses a multi-lever power generation technology, and its claimed features include a central axis, a pulley, a circular track, a vertical fan trough, a wind collector, a permanent magnet, a peripheral gear, a gearbox, a gear generator, a battery, and a guard frame, wherein the central axis is placed at the center of the guard frame and is vertically fixed in the pulley, the pulley is externally connected to the vertical fan trough, an inner south and outer north permanent magnet is installed on the outer edge of the vertical fan trough, an inner north and outer south permanent magnet is installed on the guard frame, a peripheral gear is connected around the vertical fan trough, the peripheral gear drives the gearbox to link the gear generator, the wind collector is installed above the guard frame connected to the central axis, the wind collector and the vertical fan trough are connected to the pulley below, the pulley is inserted into the circular track, the central axis, the circular track, the gearbox, the gear generator, and the battery are placed in the guard frame and connected to the guard frame, the gear generator is connected to the battery, and multi-lever force power generation is implemented.
[0013] The lever power generation technology of the vertical fan trough includes a vertical fan trough, a central axis, a pulley, and a circular track, wherein the vertical fan trough uses the center as the lever fulcrum. The farther the vertical fan trough is from the fulcrum, the greater the air volume and the greater the force of the air volume. When the vertical fan trough is on the left side of the fulcrum, it is a front-positioned air volume. When the vertical fan trough is turned to the right side of the fulcrum, it is a rear-positioned air volume that cannot be collected. The vertical fan trough on the right side of the fulcrum does not collect the wind force and does not increase the force. The vertical fan trough on the left side of the fulcrum increases the air volume force. As long as there is wind, the lever action of the vertical fan trough must be able to rotate clockwise. This is a lever power generation technology with the central axis as the lever fulcrum. The farther away from the fulcrum, the greater the air volume collected, the greater the lever force, the faster the rotation, and the better the power generation effect.
[0014] The repulsion power generation technology of same-pole permanent magnets includes permanent magnets with south inside and north outside installed on the edge of the vertical ventilating fan slot and permanent magnets with north inside and south outside installed on the protective frame. When the vertical ventilating fan slot rotates under the lever action of the breeze force, the permanent magnets with south inside and north outside installed on the edge of the vertical ventilating fan slot face the permanent magnets with north inside and south outside installed on the protective frame. The same-pole permanent magnets will inevitably repel each other and drive the vertical ventilating fan slot to rotate. This is a lever power generation technology in which the repulsion of the same-pole permanent magnets installed farthest from the fulcrum will inevitably drive the vertical ventilating fan slot to rotate.
[0015] The technical method of the air collector, its rights features include an air intake, an air duct, a rotating air duct, an air outlet, an air outlet, a central axis, a pulley, a circular track and a tail wing for automatic wind direction adjustment, wherein the central axis connects the pulley and passes through the air duct and the air outlet, the air duct and the air outlet can rotate freely by relying on the pulley, the rotating air duct is connected to the receiving air duct at the top and the air outlet at the bottom, the air duct is connected to the receiving air outlet, the air outlet is connected to the air outlet, a pulley is installed under the air outlet to connect to the circular track, so that the air collector can maintain stable horizontal rotation, a tail wing for automatic wind direction adjustment is installed behind the rotating air duct, so that the air intake of the air collector can maintain the connection with the wind direction, and the air outlet supplies air to the vertical fan trough below.
[0016] The lever power generation technology of the peripheral gear includes a vertical fan, a peripheral gear and a concentric speed gear of a gearbox, wherein the peripheral gear is installed around the outer edge of the vertical fan slot, and the peripheral gear is connected to the speed gear of the gearbox. The larger the radius of the vertical fan slot, the larger the radius of the peripheral gear, the more gears there are, and the faster the speed of the speed gear of the gearbox is driven.
[0017] The lever power generation technology of the gearbox, its rights features include a peripheral gear, a housing, a pulley, a concentric speed change wheel, and a generator gear, wherein the concentric speed change wheel is provided with a small radius gear and a large radius gear, the pulley center axis connected to the housing and the pulley are placed in the concentric speed change wheel, the small gear of the first concentric speed change wheel passes through the housing to connect the peripheral gear, after multiple speed changes, the large radius gear of the last concentric speed change wheel passes through the housing to connect the generator gear, the larger the ratio of the small radius gear to the large radius gear of the concentric speed change wheel, the greater the speed change rate, the more concentric speed change wheels there are, the more speed change stages there are, the faster the rotation speed of the generator gear, and the greater the power generation effect.
[0018] The technical method of the circular track guard frame, its claimed features include a circular track, a pulley, and a guard frame, wherein the circular track is welded on the guard frame, a group of circular track welds are welded inside the guard frame, and the upper pulley is connected to the vertical fan slot. The main function is to keep the vertical fan slot horizontally balanced and stable, and reduce the rotational resistance of the vertical fan slot. Another group of circular track welds are welded on the top of the guard frame, and the upper pulley is connected to the wind receiver. The main function is to keep the horizontal balance and stability of the wind receiver, and reduce the rotational resistance of the wind receiver. In addition, the guard frame welding bracket fixes the central axis, gearbox, permanent magnet and generator.
[0019] In summary, the present invention can achieve the following social benefits and advantages: 1. The present invention can implement multi-lever force power generation under breeze conditions, and can also be used for mobile vehicle-mounted relative wind power generation; 2. The present invention does not have high requirements on wind force, can generate rotation through multi-lever force, and the construction cost can be large or small, which is more suitable for all-round needs; 3. The present invention has a balanced and stable guard frame, does not need to be installed at high altitude, does not generate much noise, and avoids the risk of falling from high altitude; 4. The present invention does not need to build and expand the transportation channel during construction, and does not incur additional costs.
[0020] The above preferred embodiments are only for illustrating the technical concept and features of the present invention, and their purpose is to enable people familiar with the technology to understand the content of the present invention and implement it accordingly, and they cannot be used to limit the protection scope of the present invention. Any equivalent changes or modifications made according to the spirit of the present invention should be included in the protection scope of the present invention.
Claims
1. The present invention discloses a multi-lever power generation technology, the claimed features of which include a central axis, a pulley, a circular track, a vertical fan slot, a wind collector, a permanent magnet, a peripheral gear, a gearbox, a gear generator, a battery, and a guard frame, wherein: The central axis is placed at the center of the guard frame and is vertically fixed in the pulley. The pulley is connected to the vertical fan slot. Permanent magnets with inner south and outer north are installed on the outer edge of the vertical fan slot. Permanent magnets with inner north and outer south are installed on the guard frame. Surrounding gears are connected around the vertical fan slot. The surrounding gears drive the gearbox to link the gear generator. An air collector is installed above the guard frame connected to the central axis. The air collector and the vertical fan slot are connected to the pulley. The pulley is inserted into the circular track. The central axis, the circular track, the gearbox, the gear generator, and the battery are placed in the guard frame and connected to the guard frame. The gear generator is connected to the battery to implement multi-lever force power generation.
2. A lever power generation technology of a vertical fan trough according to claim 1 of the present invention, wherein the claim features include a vertical fan trough, a central axis, a pulley, and a circular track, wherein: The vertical fan slot takes the center as the fulcrum. The farther the vertical fan slot is from the fulcrum, the greater the air volume and the greater the force of the air volume. When the vertical fan slot is on the left side of the fulcrum, it is the front position to take in the air volume. When the vertical fan slot is turned to the right side of the fulcrum, it is the rear position and cannot take in the air volume. The vertical fan slot on the right side of the fulcrum does not hold the wind force and does not increase the force. The vertical fan slot on the left side of the fulcrum increases the force of the air volume. As long as there is wind, the lever effect of the vertical fan slot will inevitably rotate clockwise. This is a lever power generation technology with the center axis as the fulcrum. The farther away from the fulcrum, the greater the air volume, the greater the lever force, the faster the rotation, and the better the power generation effect.
3. The technical method of the wind collector according to claim 1 of the present invention, wherein the claimed features include a wind receiving port, a wind receiving duct, a rotating wind duct, a wind outlet duct, a wind outlet, a central axis, a pulley, a circular track and a tail wing for automatically adjusting the wind direction, wherein: The central axis connecting pulley runs through the air receiving duct and the air outlet duct, and the air receiving duct and the air outlet duct can rotate freely by relying on the pulley. The rotating air duct is connected to the receiving air duct on the top and the air outlet duct on the bottom. The air receiving duct is connected to the receiving air outlet, and the air outlet duct is connected to the air outlet. A pulley is installed under the air outlet duct to connect with the circular track to keep the air collector stable and horizontally rotating. An automatic wind direction adjusting tail wing is installed behind the air collector to keep the air receiving outlet of the air collector connected to the wind direction, and the air outlet supplies air to the vertical fan duct downward.
4. The lever power generation technology of the peripheral gear according to claim 1 of the present invention, wherein the claim features include a vertical fan, a peripheral gear and a concentric speed change gear of a gearbox, wherein: The peripheral gears installed around the outer edge of the vertical fan slot are connected to the concentric speed gears of the gearbox. The larger the radius of the vertical fan slot, the larger the radius of the peripheral gears, the more gears there are, and the faster the speed of the speed gears of the gearbox is driven.
5. The lever power generation technology of the gearbox according to claim 1 of the present invention, wherein the claimed features include a peripheral gear, a housing, a pulley, a concentric speed change wheel, and a generator gear, wherein: The concentric speed change wheel is provided with a small radius gear and a large radius gear. The pulley center shaft connected to the outer shell and the pulley are placed in the concentric speed change wheel. The small gear of the first concentric speed change wheel passes through the outer shell to connect the peripheral gear. After multi-stage speed change, the large radius gear of the concentric speed change wheel passes through the outer shell to connect the generator gear. The larger the ratio of the small radius gear to the large radius gear of the concentric speed change wheel, the greater the speed change rate. The more concentric speed change wheels there are and the more speed change stages there are, the faster the rotation speed of the generator gear is and the greater the power generation effect is.
6. The technical method of the circular track guard frame according to claim 1 of the present invention, wherein the claim features include a circular track, a pulley, and a guard frame, wherein: The circular track is welded on the guard frame, and one group of circular track welds is welded inside the guard frame, connected to the pulley to dock the vertical fan slot. The main function is to keep the vertical fan slot horizontally balanced and stable and reduce the rotational resistance of the vertical fan slot. Another group of circular track welds is welded on the top of the guard frame, connected to the pulley to dock the wind receiver. The main function is to keep the horizontal balance and stability of the wind receiver and reduce the rotational resistance of the wind receiver. In addition, the guard frame welding bracket fixes the central axis, gearbox, permanent magnet and generator.