Gravity type coaxial three-push energy-saving generator

Abstract

This invention discloses a gravity-driven magnetic coaxial three-push energy-saving generator, comprising a base plate, an outer magnet mounting base fixedly installed on the upper end of the base plate, an outer magnet mounting shell hinged to the upper end of the outer magnet mounting base, and an outer fixing frame disposed inside the outer magnet mounting base. This invention achieves axial three-push of the gravity-driven magnetic flywheel by setting three inner magnet fixing frames on the same main shaft, with inner rotor fixing ring magnets of the same direction and angle mounted on each fixing frame. Traditional designs use only one fixing ring, while this solution uses all three rings simultaneously, and the magnets are all installed at an angle, making the direction of the repulsive force more closely aligned with the rotation direction, resulting in more precise force application. Thus, under the premise of similar flywheel diameter and weight, our thrust is significantly greater than that of the traditional structure, the magnetic energy utilization rate is significantly improved, the output torque is more stable, and the resistance to attenuation is stronger.

Description

Technical Field

[0001] This invention belongs to the field of energy-saving generator manufacturing technology, specifically a gravity-type magnetic energy coaxial three-push energy-saving generator. Background Technology

[0002] In the field of energy-saving generators, magnetic-assisted drive has always been a popular area of ​​research. Traditional generators that enhance magnetic efficiency mostly involve installing a ring of magnets on the rotor, along with stator magnets. By utilizing the repulsive force between like poles of the magnets, a thrust is added to the rotor, which theoretically can save some electricity. However, the common practice is to set only one set of magnetic rings on a single shaft, which is essentially a single-layer, single-ring structure. As a result, the torque force generated by the mutual repulsion between the magnets is relatively limited, especially when the equipment size is fixed, and further increasing the power output hits a ceiling.

[0003] Another practical problem is the attenuation and stability of the magnetic system. Although many designs use permanent magnets, if details such as the arrangement, angle, and spacing of the magnets are not handled well, the thrust will be uneven or the magnetic force will decay significantly over time, resulting in a rapid drop in efficiency. In addition, the flywheel itself is heavy and rotates at low speeds. If the magnets are not arranged properly, the effect of relying on repulsive forces to continuously drive the flywheel is often not ideal.

[0004] Existing technologies have explored double-layer magnets or multi-ring structures, but most of these are independent, with the upper and lower layers of magnets not meshing well and sometimes even interfering with each other. For example, some designs install the magnets radially, creating an angle between the direction of the repulsive force and the direction of rotation, resulting in wasted force. Other designs, while considering speed-up or speed-down transmission, don't significantly alter the core of the magnetic system itself, merely making minor modifications. Therefore, a gravity-driven, magnetically powered, coaxial, three-pronged, energy-saving generator is needed. Summary of the Invention

[0005] The purpose of this invention is to provide a gravity-driven magnetic coaxial three-push energy-saving generator to solve the problems mentioned in the background art.

[0006] To address the aforementioned problems, this invention provides a gravity-driven magnetic coaxial three-pronged energy-saving generator technical solution:

[0007] A gravity-driven magnetic coaxial three-push energy-saving generator includes a base plate. An outer magnet mounting base is fixedly installed on the upper end of the base plate. An outer magnet mounting shell is hinged to the upper end of the outer magnet mounting base. An outer fixing frame is provided inside the outer fixing frame. A gravity-driven magnetic flywheel is provided inside the outer fixing frame. A main shaft is provided inside the gravity-driven magnetic flywheel. Inner magnet mounting frames are provided on both the front and back sides of the gravity-driven magnetic flywheel. A fixing component is fixedly installed on the outer side of each inner magnet mounting frame. A ventilation opening is provided inside each inner magnet mounting frame. Multiple inner rotor fixing ring magnets arranged in a ring are fixedly installed inside each inner magnet mounting frame.

[0008] Preferably, the external fixing frame has multiple evenly distributed reinforcing keels inside, and multiple evenly distributed external fixing frame magnets with an inclination angle of 25° are installed inside the external fixing frame via fixing seats. The fixing assembly is fixedly connected to the gravity magnetic flywheel, and the gravity magnetic flywheel has a rotor ventilation port inside. The reinforcing keels can improve the overall strength of the external fixing frame.

[0009] Preferably, the gravity magnetic flywheel has multiple annularly distributed rotor fixing slots fixedly installed inside its outer side, and an outer rotor magnet is installed inside each rotor fixing slot. The gravity magnetic flywheel also has multiple annularly distributed inner rotor fixing components fixedly installed inside its interior, and an inner rotor magnet is fixedly installed inside each inner rotor fixing component. The rotor fixing slots can be used to install the outer rotor magnets.

[0010] Preferably, an input electrical control cabinet is provided at the upper end of the base plate, an output motor is provided at the upper end of the base plate, the output shaft of the output motor is connected to the main shaft through a belt drive mechanism, a generator is provided at the upper end of the base plate, the input shaft of the generator is fixedly connected to the main shaft through a speed increaser, and an output electrical control cabinet is provided at the upper end of the base plate, so that the main shaft can drive the generator to rotate.

[0011] Preferably, the outer magnet mounting base is provided with a maintenance mechanism, which includes a hook frame. The hook frame is fixedly installed on the right end of the outer magnet mounting shell. A pressure column is hung inside the groove of the hook frame. A U-shaped frame is installed on the outside of the pressure column. An internal threaded sleeve is hinged to the upper right end of the outer magnet mounting base. A screw is threadedly connected inside the internal threaded sleeve. A rotating sleeve is fixedly installed at the lower end of the screw. A handle is slidably connected inside the rotating sleeve. The handle can drive the screw to rotate.

[0012] Preferably, the U-shaped frame contacts the hook frame, the upper end of the screw passes through the bottom of the U-shaped frame, and a retaining ring is welded to the outside of the screw. The retaining ring is rotatably connected to the U-shaped frame and can limit the movement of the screw.

[0013] Preferably, a lower pressure frame is hinged to the right end of the outer magnet fixing shell, and a lower pressure block is fixedly installed inside the lower pressure frame. The lower pressure block presses against the upper end of the lower pressure column. A fixing nail is fixedly installed at the right end of the hook frame, and a moving plate is slidably connected to the outside of the fixing nail. A plug-in column is fixedly installed on the side of the moving plate near the hook frame. A spring is provided on the outside of the fixing nail, and the plug-in column can lock and limit the lower pressure frame.

[0014] Preferably, the insertion post passes through the lower pressure frame and is inserted into the inside of the hook frame. The lower pressure frame contacts the hook frame, the moving plate contacts the lower pressure frame, and the two ends of the spring are fixedly connected to the moving plate and the fixing nail, respectively. The spring can support the moving plate with its elastic force.

[0015] The beneficial effects of this invention are:

[0016] First, by setting three inner magnet mounting brackets on the same main shaft, and installing inner rotor fixing ring magnets in the same direction and at the same angle on each bracket, the gravity magnetic flywheel is axially pushed by three rings. In the traditional design, only one fixing ring is working. In this solution, all three rings exert force at the same time, and the magnets are all installed at an angle, so the direction of the repulsive force is closer to the direction of rotation. The force is applied more skillfully. In this way, under the premise that the flywheel diameter and weight are similar, our thrust is much greater than that of the traditional structure, the magnetic energy utilization rate is significantly improved, the output torque is more stable, and the resistance to attenuation is stronger.

[0017] Secondly, by making the flywheel into a double-layer clamping structure, the outer rotor magnet and inner rotor magnet of the upper layer and the magnet on the lower fixed body form a counter-pushing force, and the rotating flywheel in the middle is as if it is being pushed from both sides at the same time. With the speed-increasing mechanism at the variable frequency speed control motor and the generator end, the whole system can flexibly match different speed requirements. Under the same volume, the power output of the whole device is much stronger than that of the traditional design, and the energy-saving effect is also more prominent. Attached Figure Description

[0018] For ease of explanation, the present invention will be described in detail below with reference to specific embodiments and accompanying drawings.

[0019] Figure 1 This is a perspective view of the overall structure of the present invention;

[0020] Figure 2 For the present invention Figure 1 Exploded view of the structure of a gravity-driven magnetic flywheel;

[0021] Figure 3 For the present invention Figure 1 A front view of the outer magnet fixing shell;

[0022] Figure 4 For the present invention Figure 3 Enlarged view of the A-section structure;

[0023] Figure 5 For the present invention Figure 4 A schematic diagram of a U-shaped frame.

[0024] In the picture: 1. Base plate; 2. Outer magnet mounting base; 3. Outer magnet mounting shell; 4. Outer mounting bracket; 5. Gravity-type magnetic flywheel; 6. Maintenance mechanism; 7. Main shaft; 8. Inner magnet mounting bracket; 9. Reinforcing keel; 10. Outer mounting bracket magnet block; 11. Rotor mounting slot; 12. Outer rotor magnet; 13. Inner rotor fixing component; 14. Inner rotor magnet; 15. Fixing assembly; 16. Ventilation port one; 17. Rotor ventilation port; 18. Inner rotor fixing ring magnet; 19. Input electrical control cabinet; 20. Output motor; 21. Generator; 22. Output electrical control cabinet; 61. Hook bracket; 62. Lower pressure column; 63. U-shaped bracket; 64. Internal threaded sleeve; 65. Screw; 66. Retaining ring; 67. Rotating sleeve; 68. Hand lever; 69. Lower pressure bracket; 60. Lower pressure block; 601. Fixing nail; 602. Moving plate; 603. Insertion post; 604. Spring. Detailed Implementation

[0025] like Figure 1-5 As shown, the specific implementation adopts the following technical solution:

[0026] Example:

[0027] A gravity-driven magnetic coaxial three-push energy-saving generator includes a base plate 1. An outer magnet mounting base 2 is fixedly installed on the upper end of the base plate 1. An outer magnet mounting shell 3 is hinged to the upper end of the outer magnet mounting base 2. An outer fixing frame 4 is provided inside the outer fixing frame 2. A gravity-driven magnetic flywheel 5 is provided inside the outer fixing frame 4. A main shaft 7 is provided inside the gravity-driven magnetic flywheel 5. Inner magnet mounting frames 8 are provided on both the front and back sides of the gravity-driven magnetic flywheel 5. A fixing component 15 is fixedly installed on the outer side of each inner magnet mounting frame 8. A ventilation opening 16 is provided inside each inner magnet mounting frame 8. Multiple inner rotor fixing ring magnets 18 arranged in a ring are fixedly installed inside each inner magnet mounting frame 8.

[0028] The external fixing frame 4 has multiple evenly distributed reinforcing keels 9 inside. Multiple evenly distributed external fixing frame magnet blocks 10 with an inclination angle of 25° are installed inside the external fixing frame 4 via fixing seats. The fixing component 15 is fixedly connected to the gravity magnetic flywheel 5. The gravity magnetic flywheel 5 has a rotor ventilation port 17 inside. The reinforcing keels 9 can improve the overall strength of the external fixing frame 4.

[0029] The gravity magnetic flywheel 5 has multiple annularly distributed rotor fixing slots 11 fixedly installed inside its outer side. Each rotor fixing slot 11 has an outer rotor magnet 12 installed inside. The gravity magnetic flywheel 5 also has multiple annularly distributed inner rotor fixing parts 13 fixedly installed inside its interior. Each inner rotor fixing part 13 has an inner rotor magnet 14 fixedly installed inside. The rotor fixing slots 11 can accommodate the outer rotor magnets 12. An input electrical control cabinet 19 is provided at the upper end of the base plate 1. An output motor 20 is provided at the upper end of the base plate 1. The output shaft of the output motor 20 is connected to the main shaft 7 via a belt drive mechanism. A generator 21 is provided at the upper end of the base plate 1. The input shaft of the generator 21 is fixedly connected to the main shaft 7 via a speed increaser. An output electrical control cabinet 22 is provided at the upper end of the base plate 1. The main shaft 7 can drive the generator 21 to rotate.

[0030] The outer magnet fixing base 2 is provided with a maintenance mechanism 6, which includes a hook frame 61. The hook frame 61 is fixedly installed on the right end of the outer magnet fixing shell 3. A downward pressure column 62 is hung inside the groove of the hook frame 61. A U-shaped frame 63 is installed on the outside of the downward pressure column 62. An internal threaded sleeve 64 is hinged to the upper right end of the outer magnet fixing base 2. A screw 65 is threadedly connected inside the internal threaded sleeve 64. A rotating sleeve 67 is fixedly installed at the lower end of the screw 65. A handle 68 is slidably connected inside the rotating sleeve 67. The handle 68 can drive the screw 65 to rotate.

[0031] The U-shaped frame 63 contacts the hook frame 61. The upper end of the screw 65 passes through the bottom of the U-shaped frame 63. A retaining ring 66 is welded to the outside of the screw 65. The retaining ring 66 is rotatably connected to the U-shaped frame 63 and can limit the screw 65. A lower pressure frame 69 is hinged to the right end of the outer magnet fixing shell 3. A lower pressure block 60 is fixedly installed inside the lower pressure frame 69. The lower pressure block 60 presses against the upper end of the lower pressure column 62. A fixing nail 601 is fixedly installed on the right end of the hook frame 61. A moving plate 602 is slidably connected to the outside of the fixing nail 601. A plug-in column 603 is fixedly installed on the side of the moving plate 602 near the hook frame 61. A spring 604 is provided on the outside of the fixing nail 601. The plug-in column 603 can lock and limit the lower pressure frame 69.

[0032] The insertion post 603 passes through the lower pressure frame 69 and is inserted into the inside of the hook frame 61. The lower pressure frame 69 is in contact with the hook frame 61. The moving plate 602 is in contact with the lower pressure frame 69. The two ends of the spring 604 are fixedly connected to the moving plate 602 and the fixing nail 601 respectively. The spring 604 can support the moving plate 602 with its elastic force.

[0033] The usage state of this invention is as follows: When in use, the input electrical control cabinet 19 controls the output motor 20 to start running. The output motor 20 transmits power to the main shaft 7 through the belt transmission mechanism. The main shaft 7 drives the gravity magnetic flywheel 5 to rotate together. The motor end can be equipped with frequency conversion speed regulation or reducer as needed to adjust the speed to a suitable range, such as 500 revolutions per minute. The main shaft 7 is the core transmission component of the entire system. It passes through the center of the gravity magnetic flywheel 5.

[0034] Once the gravity-driven magnetic flywheel 5 starts to rotate, the inner rotor fixing ring magnets 18 installed on the two inner magnet fixing frames 8 begin to function. These magnets are all installed at an angle of 25 degrees in the same direction. They move relative to the outer fixing frame magnet block 10 on the outer fixing frame 4 and the magnets on the outer magnet fixing seat 2 and the outer magnet fixing shell 3. Since the like magnetic poles repel each other, these repulsive forces will add a force to the flywheel along the tangent of rotation, which is equivalent to adding extra torque. With the three fixing rings working at the same time, the thrust is naturally much greater than that of a single ring structure.

[0035] In addition, the gravity-type magnetic flywheel 5 itself is also equipped with magnets. The outer rotor magnet 12 is installed in the rotor fixing groove 11 on the outside of the flywheel, and the inner rotor magnet 14 is installed in the inner rotor fixing part 13 on the inside. The flywheel also has a double-layer structure. The upper fixing magnet 12 of the gravity-type magnetic flywheel 5 and the magnet 10 on the upper fixing part ring repel each other, and the lower fixing magnet 14 and the fixing magnet 18 on the lower fixing part ring repel each other. The repulsion distance between the magnets on all the fixing rings and the fixing magnets on the flywheel is 0.3 cm, which sandwiches the flywheel in the middle like a sandwich. With the reasonable repulsion distance between the magnets and the 25-degree oblique installation, after the whole system starts to rotate, coupled with the gravity energy stored in the magnetic flywheel, the flywheel can obtain a continuous and stable thrust, and the anti-attenuation ability is also relatively good.

[0036] The main shaft 7 transmits the torque boosted by magnetic energy to the generator 21. A 1:3 pulley or speed-increasing gearbox is connected to the front of the generator 21 to increase the speed from about 500 rpm to the speed required by the generator 21. The generated electricity is processed by the output control cabinet 22 and then transmitted outward. By relying on the coaxial three-pronged push of the magnet and the upper and lower left and right two-layer magnet structure, a larger output torque is achieved in the same volume, thus achieving the purpose of energy saving.

[0037] If equipment maintenance is required, the operator can first pull open the movable plate 602 to allow the plug-in post 603 to retract from the hook bracket 61, thus unlocking the lower pressure bracket 69. Flipping the lower pressure bracket 69 upwards causes the lower pressure block 60 to move away from the upper end of the lower pressure post 62. Then, rotating the lever 68 causes the screw 65 to rotate within the internal threaded sleeve 64. Because the screw 65 has a retaining ring 66 welded onto it, and the retaining ring 66 is engaged at the bottom of the U-shaped bracket 63, the rotation of the screw 65 pulls the U-shaped bracket 63 upwards. As the U-shaped bracket 63 rises, the lower pressure post 62 disengages from the groove in the hook bracket 61.

[0038] Then the outer magnet fixing shell 3 can be lifted around the hinge, exposing the internal outer fixing frame 4 and gravity magnetic flywheel 5. This makes it convenient for workers to check whether the magnet has demagnetized, whether the fixing component 15 is loose, or to clean the debris in the ventilation port 16 and rotor ventilation port 17. Conversely, after the maintenance is completed, close the outer magnet fixing shell 3, re-hook the lower pressure column 62 into the groove of the hook frame 61, press down the lower pressure frame 69 to make the lower pressure block 60 press down the lower pressure column 62, and then release the moving plate 602. The spring 604 will automatically push the plug-in column 603 back into the lower pressure frame 69 and the hook frame 61, locking the entire shell and ensuring that it will not spring open on its own during operation.

[0039] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of the present invention. Various changes and modifications can be made to the present invention without departing from its spirit and scope. All such changes and modifications fall within the scope of the present invention as claimed, which is defined by the appended claims and their equivalents.

Claims

1. A gravity-driven magnetic energy coaxial three-pronged energy-saving generator, comprising a base plate (1), characterized in that: An outer magnet mounting base (2) is fixedly installed on the upper end of the base plate (1). An outer magnet mounting shell (3) is hinged to the upper end of the outer magnet mounting base (2). An outer mounting frame (4) is provided inside the outer magnet mounting base (2). A gravity magnetic flywheel (5) is provided inside the outer mounting frame (4). A main shaft (7) is provided inside the gravity magnetic flywheel (5). An inner magnet mounting frame (8) is provided inside both the front and back sides of the gravity magnetic flywheel (5). A fixing component (15) is fixedly installed on the outside of each inner magnet mounting frame (8). A ventilation opening (16) is provided inside each inner magnet mounting frame (8). Multiple inner rotor fixing ring magnets (18) arranged in a ring are fixedly installed inside each inner magnet mounting frame (8).

2. The gravity-driven magnetic coaxial three-pronged energy-saving generator according to claim 1, characterized in that: The interior of the external fixing frame (4) is provided with multiple evenly distributed reinforcing keels (9). The interior of the external fixing frame (4) is provided with multiple evenly distributed external fixing frame magnet blocks (10) with an inclination angle of 25°. The fixing component (15) is fixedly connected to the gravity magnetic flywheel (5). The interior of the gravity magnetic flywheel (5) is provided with a rotor ventilation port (17).

3. The gravity-driven magnetic coaxial three-pronged energy-saving generator according to claim 1, characterized in that: The gravity magnetic flywheel (5) has multiple rotor fixing slots (11) arranged in a ring fixedly installed on its outer side. Each rotor fixing slot (11) has an outer rotor magnet (12) installed inside. The gravity magnetic flywheel (5) has multiple inner rotor fixing parts (13) arranged in a ring fixedly installed inside. Each inner rotor fixing part (13) has an inner rotor magnet (14) fixedly installed inside.

4. The gravity-driven magnetic coaxial three-pronged energy-saving generator according to claim 1, characterized in that: An input electrical control cabinet (19) is provided at the upper end of the base plate (1), an output motor (20) is provided at the upper end of the base plate (1), the output shaft of the output motor (20) is connected to the main shaft (7) through a belt drive mechanism, a generator (21) is provided at the upper end of the base plate (1), the input shaft of the generator (21) is fixedly connected to the main shaft (7) through a speed increaser, and an output electrical control cabinet (22) is provided at the upper end of the base plate (1).

5. A gravity-driven magnetic coaxial three-pronged energy-saving generator according to claim 1, characterized in that: The outer magnet fixing base (2) is provided with a maintenance mechanism (6), the maintenance mechanism (6) includes a hook frame (61), the right end of the outer magnet fixing shell (3) is fixedly installed with the hook frame (61), the inside of the groove of the hook frame (61) is hung with a pressure column (62), the outside of the pressure column (62) is installed with a U-shaped frame (63), the upper part of the right end of the outer magnet fixing base (2) is hinged with an internal thread sleeve (64), the inside of the internal thread sleeve (64) is connected with a screw (65) by a thread, the lower end of the screw (65) is fixedly installed with a rotating sleeve (67), the inside of the rotating sleeve (67) is slidably connected with a handle (68).

6. A gravity-driven magnetic coaxial three-pronged energy-saving generator according to claim 5, characterized in that: The U-shaped frame (63) contacts the hook frame (61), the upper end of the screw (65) passes through the bottom of the U-shaped frame (63), and a retaining ring (66) is welded to the outside of the screw (65). The retaining ring (66) is rotatably connected to the U-shaped frame (63).

7. A gravity-driven magnetic coaxial three-pronged energy-saving generator according to claim 5, characterized in that: The right end of the outer magnet fixing shell (3) is hinged with a lower pressure frame (69). A lower pressure block (60) is fixedly installed inside the lower pressure frame (69). The lower pressure block (60) presses against the upper end of the lower pressure column (62). A fixing nail (601) is fixedly installed on the right end of the hook frame (61). A moving plate (602) is slidably connected to the outside of the fixing nail (601). A plug-in column (603) is fixedly installed on the side of the moving plate (602) near the hook frame (61). A spring (604) is provided on the outside of the fixing nail (601).

8. A gravity-driven magnetic coaxial three-pronged energy-saving generator according to claim 5, characterized in that: The insertion post (603) passes through the lower pressure frame (69) and is inserted into the inside of the hook frame (61). The lower pressure frame (69) is in contact with the hook frame (61). The moving plate (602) is in contact with the lower pressure frame (69). The two ends of the spring (604) are fixedly connected to the moving plate (602) and the fixing nail (601) respectively.

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