A power output device and method based on permanent magnet magnetic force to generate gravity torque
This power output device generates gravitational torque through the magnetic force of permanent magnets. By utilizing the repulsive force of permanent magnets and gravity, it solves the problems of energy consumption and environmental pollution of existing power devices, and achieves low-cost and continuous power output.
Patent Information
- Application Number
- CN202610401251.3
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2026-03-30
- Publication Date
- 2026-06-26
AI Technical Summary
Existing power plants consume a lot of energy, generate pollution, and are affected by weather and climate, failing to meet the electricity needs of industrial and agricultural production and daily life. Solar panels also have short lifespans and high costs.
A power output device that uses permanent magnets to generate gravitational torque utilizes the repulsive force of permanent magnets and its own gravity as power output. Through a rotating wheel, a magnetic gravitational torque differential, and first and second magnetic repulsion devices, the continuous torque output of the rotating wheel is achieved.
It achieves pollution-free, low-cost, and flexible power output, with the wheel rotating continuously to meet electricity demand, thus avoiding energy consumption and environmental damage.
Smart Images
Figure CN122292820A_ABST
Abstract
Description
Technical Field
[0001] This invention relates to the field of power output device technology, and in particular to a power output device and method based on the magnetic force of a permanent magnet to generate gravitational torque. Background Technology
[0002] Power units refer to complete sets of technological equipment that utilize the chemical energy of fuels, nuclear energy, and natural energy sources such as hydropower, wind power, and geothermal energy to generate prime movers. The development of power units has evolved from steam engines to internal combustion engines, and then to various technological routes such as electric drive and hydrogen energy. Currently, all generators on the market are gasoline or diesel generators or thermal power generators, all of which require energy consumption to generate electricity. This consumes huge amounts of energy and produces huge amounts of pollution and harmful gases, damaging the natural environment. Wind power, hydropower, and solar power are all affected by weather and climate. They cannot generate electricity without wind, rain (water), or sunshine, and are therefore limited. They cannot meet the electricity needs of industrial and agricultural production and people's daily lives. Moreover, solar panels have short lifespans, high costs, and still require a large investment of manpower and resources for mining and transporting materials. Summary of the Invention
[0003] This invention provides a power output device and method based on the magnetic force of permanent magnets to generate gravitational torque, which is simple in structure, easy to process, low in manufacturing and use cost, flexible and convenient to use and pollution-free, and uses the repulsive force of permanent magnets and its own gravity as the external output power.
[0004] To solve the above problems, one of the technical solutions of the present invention provides a power output device based on the magnetic force of a permanent magnet to generate gravitational torque, comprising: a rotating shaft, a rotating wheel, a magnetic gravitational torque differential, a first magnetic repulsion device, and a second magnetic repulsion device. A rotating wheel is fixed to the outside of the rotating shaft, and multiple magnetic gravitational torque differentials are evenly distributed circumferentially on the outside of the rotating wheel. A first magnetic repulsion device is provided below the magnetic gravitational torque differential at the bottom position of the rotating wheel, and a second magnetic repulsion device is provided below the magnetic gravitational torque differential at the top position of the inner side of the rotating wheel. Each magnetic gravitational torque differential includes a sliding track, a limiting device, and a permanent magnet weight. The sliding track is a closed track, and a permanent magnet weight slides inside it. The end of the permanent magnet weight facing the center of the rotating wheel has the same polarity. A limiting device is provided on the outer side of the middle of the sliding track to prevent the permanent magnet weight from sliding inside the sliding track. The magnetic pole of the first magnetic repulsion device is the same polarity as the magnetic pole of the permanent magnet weight at the bottom position of the rotating wheel facing the outside of the rotating wheel and is arranged opposite to it. The magnetic pole of the second magnetic repulsion device is the same polarity as the magnetic pole of the permanent magnet weight at the top position of the rotating wheel facing the center of the rotating wheel and is arranged opposite to it. The first magnetic repulsion device pushes the weight of the permanent magnet passing through its position upwards sequentially to one end of the sliding track near the center of the wheel due to the repulsive force generated by the opposing magnetic poles. The limiting device then limits its movement. The second magnetic repulsion device pushes the weight of the permanent magnet passing through its position upwards sequentially to one end of the sliding track away from the center of the wheel due to the repulsive force generated by the opposing magnetic poles. The limiting device then limits its movement. This maintains an overall torque difference between the weights of the permanent magnets on both sides of the wheel, thus achieving continuous torque at the center of the wheel.
[0005] The aforementioned limiting device includes a first limiting device and a second limiting device, which are symmetrically arranged along the center of the sliding track.
[0006] At least one of the aforementioned wheels is provided along the axial direction of the rotating shaft.
[0007] The first magnetic repulsion device is a single permanent magnet or a combination of multiple permanent magnets; the second magnetic repulsion device is a single permanent magnet or a combination of multiple permanent magnets.
[0008] The second technical solution of this invention is achieved through the following method: a power output method based on the magnetic force of a permanent magnet to generate gravitational torque, comprising the following steps: The position of the permanent magnet weight in the magnetic force-gravity torque difference device is set so that the permanent magnet weights on both sides of the radial symmetry along the wheel are in different states. The states of the permanent magnet weights include the permanent magnet weights being located at the end closer to the center of the wheel or the permanent magnet weights being located at the end farther away from the center of the wheel. During rotation, the first magnetic repulsion device pushes the permanent magnet weights that pass through its position upwards in sequence by the repulsive force generated by the relative magnetic poles to one end of the sliding track near the center of the rotating wheel. The limiting device then limits them. All permanent magnet weights in the magnetic gravitational torque differentials after being pushed by the first magnetic repulsion device are located at one end near the center of the rotating wheel, until the first magnetic gravitational torque differential rotates to the top of the rotating wheel. At this point, the limiting device automatically returns to its original position, and the permanent magnet weights move downwards under their own gravity. Then, the second magnetic repulsion device pushes the permanent magnet weights that pass through its position upward by the repulsive force generated by the relative magnetic poles, so that the permanent magnet weights are located at the end away from the center of the wheel. Thus, all the permanent magnet weights that pass through the first magnetic repulsion device are located at the end close to the center of the wheel, and all the permanent magnet weights that pass through the second magnetic repulsion device are located at the end away from the center of the wheel, maintaining an overall torque difference between the permanent magnet weights on both sides of the wheel, and achieving continuous torque at the center of the wheel.
[0009] Compared with the prior art, the present invention has the following advantages: This invention has a simple structure, is easy to process, has low manufacturing and usage costs, is flexible and convenient to use, and is pollution-free. By utilizing the principle of like poles repulsion of permanent magnets, the relative position of the weights on the permanent magnets on the rotating wheel changes with the center of the wheel. This causes a difference in the overall torque between the weights on both sides of the wheel. Under the action of gravity and torque difference, the weights on the permanent magnets generate a torque on the wheel or shaft, causing the wheel or shaft to rotate continuously. Attached Figure Description
[0010] The specific embodiments of the present invention will be described in further detail below with reference to the accompanying drawings.
[0011] Figure 1 This is a schematic diagram of the device structure in Embodiment 1 of the present invention.
[0012] Figure 2 This is a schematic diagram of the magnetic gravity torque difference device structure in Embodiment 1 of the present invention.
[0013] Figure 3 This is a schematic diagram of the magnetic gravity torque difference device in state 1 in Embodiment 3 of the present invention.
[0014] Figure 4 This is a schematic diagram of the magnetic gravity torque difference device in state 2 in Embodiment 3 of the present invention.
[0015] Figure 5 This is a schematic diagram of the magnetic gravitational torque difference device in state 3 in Embodiment 3 of the present invention.
[0016] Figure 6 This is a schematic diagram of the magnetic gravitational torque difference device in state 4 in Embodiment 3 of the present invention.
[0017] In the diagram: 1-rotating shaft, 2-rotating wheel, 3-magnetic gravity torque differential, 4-first magnetic repulsion device, 5-second magnetic repulsion device, 6-sliding track, 7-permanent magnet weight, 8-first limiting device, 9-second limiting device. Detailed Implementation
[0018] The present invention is not limited to the following embodiments, and specific implementation methods can be determined according to the technical solutions and actual conditions of the present invention.
[0019] The present invention will be further described below with reference to embodiments and accompanying drawings: Example 1: As Figure 1 , 2 As shown, this embodiment of the invention discloses a power output device based on the gravitational torque generated by the magnetic force of a permanent magnet, including: a rotating shaft 1, a rotating wheel 2, a magnetic gravitational torque differential 3, a first magnetic repulsion device 4, and a second magnetic repulsion device 5; A rotating wheel 2 is fixed to the outside of the rotating shaft 1. Multiple magnetic gravitational torque differentials 3 are evenly distributed circumferentially on the outside of the rotating wheel 2. A first magnetic repulsion device 4 is provided below the magnetic gravitational torque differential 3 at the bottom position of the rotating wheel 2, and a second magnetic repulsion device 5 is provided below the magnetic gravitational torque differential 3 at the top position of the inner side of the rotating wheel 2. Each magnetic gravitational torque differential 3 includes a sliding track 6, a limiting device, and a permanent magnet weight 7. The sliding track 6 is a closed track and a permanent magnet is slidably installed inside it. The weight 7 and the permanent magnet weight 7 have the same polarity at the end facing the center of the rotating wheel 2. The outer side of the middle part of the sliding track 6 is provided with a limiting device to prevent the permanent magnet weight 7 from sliding in the sliding track 6. The magnetic pole of the first magnetic repulsion device 4 is the same as the magnetic pole of the end of the permanent magnet weight 7 located at the bottom of the rotating wheel 2 facing the outside of the rotating wheel 2 and is arranged opposite to it. The magnetic pole of the second magnetic repulsion device 5 is the same as the magnetic pole of the end of the permanent magnet weight 7 located at the top of the rotating wheel 2 facing the center of the rotating wheel 2 and is arranged opposite to it. The first magnetic repulsion device 4 pushes the permanent magnet weight 7 passing through its position upwards sequentially to one end of the sliding track 6 near the center of the rotating wheel 2 due to the repulsive force generated by the relative magnetic poles. The limiting device then limits its movement. The second magnetic repulsion device 5 pushes the permanent magnet weight 7 passing through its position upwards sequentially to one end of the sliding track 6 away from the center of the rotating wheel 2 due to the repulsive force generated by the relative magnetic poles. The limiting device then limits its movement. This maintains an overall torque difference between the permanent magnet weights 7 on both sides of the rotating wheel 2, thus achieving a continuous torque at the center of the rotating wheel 2.
[0020] Among them, the magnetic gravity torque differential 3 can be installed in a number and at an angle as needed, that is, the installation tilt angle can be increased according to the diameter of the rotating wheel 2, and multiple layers can be installed.
[0021] The rotating shaft 1 and rotating wheel 2 are made of materials without magnetic conductivity to avoid the magnetic influence of the rotating wheel 2 and rotating shaft 1 on the permanent magnet weight 7. The magnetic pole direction of the permanent magnet weight 7 is uniformly aligned with the direction outward from the center of the rotating wheel 2. The permanent magnet weight 7 can be a pure magnet or a magnet with added weight. The sliding track 6 can be set as a cylindrical track, a track with a rectangular or square cross-section, or other shapes, as needed. If necessary, to reduce the friction between the permanent magnet weight 7 and the sliding track 6, pulleys or other sliding devices can be provided on the outside of the permanent magnet weight 7 to facilitate sliding.
[0022] The limiting device includes a first limiting device 8 and a second limiting device 9, which are symmetrically arranged along the center of the sliding track 6. The limiting device can be gravity-based, meaning it uses a change in the center of gravity to limit the weight of the permanent magnet 7; alternatively, it can be configured with other structures as needed for limiting the weight.
[0023] At least one of the rotating wheels 2 is provided along the axial direction of the rotating shaft 1. The number of rotating wheels 2 can be set as needed. By arranging multiple rotating wheels 2 at vertical intervals on the outer side of the rotating shaft 1, the power output capability can be improved.
[0024] The first magnetic repulsion device 4 is a single permanent magnet or a combination of multiple permanent magnets; the second magnetic repulsion device 5 is a single permanent magnet or a combination of multiple permanent magnets. Therefore, the purpose of setting up the first magnetic repulsion device 4 and the second magnetic repulsion device 5 is to utilize the principle of like poles repulsion to generate a pushing force on the permanent magnet weight 7 in the magnetic gravitational torque differential 3, causing it to move upwards towards or away from the center of the rotating wheel 2.
[0025] This invention has a simple structure, is easy to process, has low manufacturing and usage costs, is flexible and convenient to use, and is pollution-free. By utilizing the principle of like poles repulsion of permanent magnets, the relative position of the permanent magnet weight 7 on the rotating wheel 2 and the center of the rotating wheel 2 changes, thereby generating an overall torque difference between the permanent magnet weights 7 on both sides of the rotating wheel 2. Under the action of gravity and torque difference, the permanent magnet weights 7 generate torque on the rotating wheel 2 or the rotating shaft 1, causing the rotating wheel 2 or the rotating shaft 1 to rotate continuously.
[0026] Example 2: This embodiment of the invention discloses a power output method based on the magnetic force of a permanent magnet to generate gravitational torque, including the following steps: The position of the permanent magnet weight 7 inside the magnetic force-gravity torque difference device 3 is set so that the permanent magnet weight 7 on both sides of the radial symmetry along the wheel 2 is in different states. The states of the permanent magnet weight 7 include the permanent magnet weight 7 being located at the end closer to the center of the wheel 2 or the permanent magnet weight 7 being located at the end farther away from the center of the wheel 2. During rotation, the first magnetic repulsion device 4 pushes the permanent magnet weight 7 that passes its position upwards in sequence by the repulsive force generated by the relative magnetic poles to one end of the sliding track 6 near the center of the rotating wheel 2. The limiting device limits it. After being pushed by the first magnetic repulsion device 4, all the permanent magnet weight 7 in the magnetic gravitational torque difference device 3 are located at one end near the center of the rotating wheel 2 until the first magnetic gravitational torque difference device 3 rotates to the top of the rotating wheel 2. At this point, the limiting device automatically returns to its original position, and the permanent magnet weight 7 moves downwards under its own gravity. Then, the second magnetic repulsion device 5 pushes the permanent magnet weight 7 that passes through its position upward by the repulsive force generated by the relative magnetic poles, so that the permanent magnet weight 7 is located at the end away from the center of the rotating wheel 2. Thus, all the permanent magnet weights 7 that pass through the first magnetic repulsion device 4 are located at the end close to the center of the rotating wheel 2, and all the permanent magnet weights 7 that pass through the second magnetic repulsion device 5 are located at the end away from the center of the rotating wheel 2, maintaining an overall torque difference between the permanent magnet weights 7 on both sides of the rotating wheel 2, and achieving a continuous torque on the center of the rotating wheel 2.
[0027] Example 3: This embodiment of the invention discloses the working state of the magnetic gravitational torque difference device 3, wherein the working state of the magnetic gravitational torque difference device 3 is as follows: State 1: such as Figure 3 As shown, the permanent magnet weight 7 is away from the center of the rotating wheel 2, and the second limiting device 9 is in a limiting state to restrict the movement of the permanent magnet weight 7 and prevent it from slipping. At this time, the first limiting device 8 is in an open state and does not hinder the movement of the permanent magnet weight 7. State 2: such as Figure 4 As shown, the permanent magnet weight 7 is far from the center of the rotating wheel 2, and both the first limiting device 8 and the second limiting device 9 are in the open state, so they do not hinder the movement of the permanent magnet weight 7. State 3: such as Figure 5 As shown, the permanent magnet weight 7 is close to the center of the rotating wheel 2. The first limiting device 8 is in the limiting state to restrict the movement of the permanent magnet weight 7 and prevent the permanent magnet weight 7 from slipping. The second limiting device 9 is in the open state and does not hinder the movement of the permanent magnet weight 7. State 4: such as Figure 6 As shown, the permanent magnet weight 7 is close to the center of the rotating wheel 2, and both the first limiting device 8 and the second limiting device 9 are in the open state, so they do not hinder the movement of the permanent magnet weight 7.
[0028] When in use, the initial state setting of this device is performed by external force, so that most of the magnetic gravity torque difference devices 3 on the left side of the rotating wheel 2 are in state 3 or state 4 mode, and most of the magnetic gravity torque difference devices 3 on the right side of the rotating wheel 2 are in state 1 or state 2 mode, thus completing the initial state setting. After the initial state is set, since the permanent magnet weights 7 in all the magnetic gravitational torque difference devices 3 on the right are far away from the center of the rotating wheel 2, while the permanent magnet weights 7 in all the magnetic gravitational torque difference devices 3 on the left are close to the center of the rotating wheel 2, a large torque difference is generated on the left and right sides, which in turn generates a large torque on the rotating wheel 2 to make it rotate clockwise. During the rotation, when the magnetic gravitational torque differential 3 passes clockwise from above the rotating wheel 2 (the 3 o'clock position of the clock) in state 1, the magnetic gravitational torque differential 3 enters state 2. When the magnetic gravitational torque differential 3 passes under the rotating wheel 2 (6-7 o'clock position) from the right of the rotating wheel 2 in a clockwise direction in state 2, the permanent magnet weight 7 in the magnetic gravitational torque differential 3 moves upward under the repulsive force provided by the first magnetic repulsion device 4 and enters state 3. When the magnetic gravitational torque differential 3 passes clockwise from below the rotating wheel 2 to the left of the rotating wheel 2 (the 9 o'clock position of the clock) in state 3, the magnetic gravitational torque differential 3 enters state 4. When the magnetic gravitational torque difference device 3 passes over the top of the rotating wheel 2 (11-12 o'clock position) from the left of the rotating wheel 2 in a clockwise direction in state 4, the permanent magnet weight 7 in the magnetic gravitational torque difference device 3 moves upward under the repulsive force provided by the second magnetic repulsion device 5 and re-enters state 1. In this cyclical manner, the distance between the permanent magnet weight 7 in the magnetic gravitational torque differential 3 and the center of the wheel 2 is permanently maintained on the left side being greater than on the right side, thereby ensuring that the entire wheel 2 continues to rotate and maintains output power.
Claims
1. A power output device based on the gravitational torque generated by the magnetic force of a permanent magnet, characterized in that, include: Rotating shaft, rotating wheel, magnetic gravitational torque differential, first magnetic repulsion device and second magnetic repulsion device; A rotating wheel is fixed to the outside of the rotating shaft, and multiple magnetic gravitational torque differentials are evenly distributed circumferentially on the outside of the rotating wheel. A first magnetic repulsion device is provided below the magnetic gravitational torque differential at the bottom position of the rotating wheel, and a second magnetic repulsion device is provided below the magnetic gravitational torque differential at the top position of the inner side of the rotating wheel. Each magnetic gravitational torque differential includes a sliding track, a limiting device, and a permanent magnet weight. The sliding track is a closed track, and a permanent magnet weight slides inside it. The end of the permanent magnet weight facing the center of the rotating wheel has the same polarity. A limiting device is provided on the outer side of the middle of the sliding track to prevent the permanent magnet weight from sliding inside the sliding track. The magnetic pole of the first magnetic repulsion device is the same polarity as the magnetic pole of the permanent magnet weight at the bottom position of the rotating wheel facing the outside of the rotating wheel and is arranged opposite to it. The magnetic pole of the second magnetic repulsion device is the same polarity as the magnetic pole of the permanent magnet weight at the top position of the rotating wheel facing the center of the rotating wheel and is arranged opposite to it. The first magnetic repulsion device pushes the weight of the permanent magnet passing through its position upwards sequentially to one end of the sliding track near the center of the wheel due to the repulsive force generated by the opposing magnetic poles. The limiting device then limits its movement. The second magnetic repulsion device pushes the weight of the permanent magnet passing through its position upwards sequentially to one end of the sliding track away from the center of the wheel due to the repulsive force generated by the opposing magnetic poles. The limiting device then limits its movement. This maintains an overall torque difference between the weights of the permanent magnets on both sides of the wheel, thus achieving continuous torque at the center of the wheel.
2. The power output device based on the magnetic force of a permanent magnet to generate gravitational torque according to claim 1, characterized in that, The limiting device includes a first limiting device and a second limiting device, which are symmetrically arranged along the center of the sliding track.
3. The power output device based on the magnetic force of a permanent magnet to generate gravitational torque according to claim 1, characterized in that, At least one wheel is provided along the axial direction of the rotating shaft.
4. The power output device based on the magnetic force of a permanent magnet to generate gravitational torque according to claim 1, characterized in that, The first magnetic repulsion device is a single permanent magnet or a combination of multiple permanent magnets; the second magnetic repulsion device is a single permanent magnet or a combination of multiple permanent magnets.
5. A power output method based on the generation of gravitational torque by the magnetic force of a permanent magnet, characterized in that, Includes the following steps: The position of the permanent magnet weight in the magnetic force-gravity torque difference device is set so that the permanent magnet weights on both sides of the radial symmetry along the wheel are in different states. The states of the permanent magnet weights include the permanent magnet weights being located at the end closer to the center of the wheel or the permanent magnet weights being located at the end farther away from the center of the wheel. During rotation, the first magnetic repulsion device pushes the permanent magnet weights that pass through its position upwards in sequence by the repulsive force generated by the relative magnetic poles to one end of the sliding track near the center of the rotating wheel. The limiting device then limits them. All permanent magnet weights in the magnetic gravitational torque differentials after being pushed by the first magnetic repulsion device are located at one end near the center of the rotating wheel, until the first magnetic gravitational torque differential rotates to the top of the rotating wheel. At this point, the limiting device automatically returns to its original position, and the permanent magnet weights move downwards under their own gravity. Then, the second magnetic repulsion device pushes the permanent magnet weights that pass through its position upward by the repulsive force generated by the relative magnetic poles, so that the permanent magnet weights are located at the end away from the center of the wheel. Thus, all the permanent magnet weights that pass through the first magnetic repulsion device are located at the end close to the center of the wheel, and all the permanent magnet weights that pass through the second magnetic repulsion device are located at the end away from the center of the wheel, maintaining an overall torque difference between the permanent magnet weights on both sides of the wheel, and achieving continuous torque at the center of the wheel.