Reinforcement generator and power generation equipment

Abstract

The invention provides a reinforcement generator and power generation equipment. The reinforcement generator comprises a first fixed supporting assembly, a movable frame and a second fixed supporting assembly. The moving frame is arranged between the first fixed supporting assembly and the second fixed supporting assembly, and the moving frame can move between the first fixed supporting assembly and the second fixed supporting assembly; the movable frame is connected with the first fixed supporting assembly through a first elastic assembly and connected with the second fixed supporting assembly through a second elastic assembly. A gear driving assembly is arranged on the moving frame and used for being connected with the rotor driving gear in an engaged mode. According to the power generation auxiliary device, the rotor drives the gear to rotate to drive the moving frame, the gear driving assembly reciprocates through the first elastic assembly and the second elastic assembly, the fluctuating motion of the gear driving assembly is used for increasing the driving force on the rotor driving gear, the torque is amplified, and the output torque is increased.

Description

Technical Field

[0001] The present invention relates to the technical field of power generation equipment, and in particular to a force booster generator and power generation equipment. Background Art

[0002] The existing power generation device is to set a rotor in the stator, connect the rotor to the shaft, and drive the rotor to rotate in the stator by driving the shaft, so as to generate electricity. However, the rotor itself has a large weight, which brings a large load to the shaft itself, resulting in the need to provide a large driving torque when driving the shaft to rotate, that is, to achieve a certain amount of power generation, a large driving torque needs to be provided, and the torque provided by the existing power generation equipment is limited, and the output torque is limited. The present invention sets a power generation auxiliary device, and during the rotation of the rotor drive gear, the gear drive assembly in the power generation auxiliary device will shake up and down through the spring group. During the up and down shaking process, the gear drive assembly provides additional driving force to the rotor drive gear, amplifies the torque, and increases the output torque. Summary of the invention

[0003] In view of the defects in the prior art, an object of the present invention is to provide a force booster generator and a power generation device.

[0004] A force booster generator provided according to the present invention comprises: a first fixed support assembly, a mobile frame and a second fixed support assembly;

[0005] The mobile frame is disposed between the first fixed support assembly and the second fixed support assembly, and the mobile frame can move between the first fixed support assembly and the second fixed support assembly;

[0006] The mobile frame is connected to the first fixed support assembly via a first elastic assembly, and the mobile frame is connected to the second fixed support assembly via a second elastic assembly;

[0007] The movable frame is provided with a gear driving assembly, and the gear driving assembly is used for meshing and connecting with the rotor driving gear.

[0008] Preferably, the rotor driving gear can drive the moving frame to move when it rotates;

[0009] When the moving frame moves, the first elastic component and the second elastic component can store and release energy.

[0010] Preferably, the power generation auxiliary device further comprises a fixed base frame, and the second fixed support assembly is arranged on the fixed base frame;

[0011] The first fixed support assembly and the second fixed support assembly are connected via a connecting column, and the movable frame is slidably arranged on the connecting column.

[0012] Preferably, the gear driving assembly includes a gear seat and a connecting gear;

[0013] The gear seat is arranged on the moving frame, the connecting gear is arranged on the gear seat through a reverse check device, and the connecting gear is used for meshing and connecting with the rotor driving gear.

[0014] Preferably, the mobile frame comprises a first mobile plate and a second mobile plate;

[0015] The first movable plate and the second movable plate are connected and fixed by a connecting rod, and the gear driving assembly is arranged between the first movable plate and the second movable plate;

[0016] The first movable plate and the second movable plate are slidably arranged on the connecting column via a first linear bearing;

[0017] The first movable plate is connected to the first fixed support component via a first elastic component, and the second movable plate is connected to the second fixed support component via a second elastic component.

[0018] Preferably, the movement is provided with a plurality of gear-driven components;

[0019] The gear seats of the plurality of gear driving assemblies are alternately arranged on the second moving plate and the first moving plate in sequence, and the connecting gears of the plurality of gear driving assemblies are meshed and connected in sequence.

[0020] Preferably, the first elastic component is a first spring group; the first spring group includes a plurality of first springs, and the plurality of first springs are distributed between the mobile frame and the first fixed support component;

[0021] And / or, the second elastic component is a second spring group; the second spring group includes a plurality of second springs, and the plurality of second springs are distributed between the mobile frame and the second fixed support component.

[0022] Preferably, the first fixed support assembly comprises a first support plate, a first jack group and a second support plate;

[0023] The supporting end of the first jack group is connected to the first supporting plate, and the fixed end of the first jack group is connected to the second supporting plate;

[0024] The first support plate is fixedly arranged on the connecting column, the second support plate is slidably arranged on the connecting column via a second linear bearing, and the moving frame is connected to the second support plate via the first elastic component;

[0025] And / or, the second fixed support assembly includes a third support plate, a second jack group and a fourth support plate;

[0026] The supporting end of the second jack group is connected to the third supporting plate, and the fixed end of the second jack group is connected to the fourth supporting plate;

[0027] The third support plate is slidably disposed on the connecting column via a third linear bearing, the fourth support plate is fixedly disposed on the connecting column, and the moving frame is connected to the third support plate via the second elastic component.

[0028] The present invention also provides a power generation device, comprising the above-mentioned force booster generator.

[0029] Preferably, it also includes: a driving assembly, a flywheel assembly, a camel wheel support assembly, a bearing sleeve assembly, a stator and a rotor;

[0030] The rotor is rotatably arranged in the stator through a bearing assembly, and the bearing sleeve assembly is arranged on the bearing assembly; a rotor driving gear is arranged at one end of the rotor, and a second open tooth is arranged at the output end of the driving assembly, and the rotor driving gear is meshed and connected with the second open tooth;

[0031] The flywheel assembly is arranged on the driving shaft of the driving assembly, and the camel wheel supporting assembly is used for supporting the rotor driving gear.

[0032] Compared with the prior art, the present invention has the following beneficial effects:

[0033] 1. The power generation auxiliary device of the present invention utilizes the rotation of the rotor driving gear to drive the moving frame, and makes the gear driving component generate reciprocating motion through the first elastic component and the second elastic component, and utilizes the fluctuating motion of the gear driving component to increase the driving force on the rotor driving gear, thereby amplifying the torque and increasing the output moment.

[0034] 2. The present invention limits the rotation direction of the connecting gear by a reverse check device. In the process of the connecting gear moving upward from the lowest position, the connecting gear does not rotate when it contacts the rotor driving gear, thereby providing a driving force to the rotor driving gear, which is similar to the effect of a gear bar moving upward quickly to drive the rotor driving gear, thereby increasing the driving torque of the rotor driving gear. The whole process occurs very quickly and is a reciprocating process, which is equivalent to continuously providing driving force to the rotor driving gear, thereby increasing the output torque of the rotor driving gear.

[0035] 3. The present invention uses a spring group as an energy storage and release structure to ensure the stability of the entire process and the stability of the total output torque. At the same time, the jack group is used as a fixed support component to ensure the stability of the entire power generation auxiliary device, thereby also ensuring the stability of the total output torque. BRIEF DESCRIPTION OF THE DRAWINGS

[0036] Other features, objects and advantages of the present invention will become more apparent from the detailed description of non-limiting embodiments made with reference to the following drawings:

[0037] Figure 1 The schematic diagram of the plane structure of the force booster generator is shown in Fig.

[0038] Figure 2 A schematic plan view of the assembly of the rotor drive gear and the connecting gear is shown;

[0039] Figure 3 A three-dimensional structural diagram to highlight the assembly of the rotor drive gear and the connecting gear;

[0040] Figure 4 The schematic diagram of the structure of the power generation body of the power generation equipment Figure 1 ;

[0041] Figure 5 The schematic diagram of the structure of the power generation body of the power generation equipment Figure 2 ;

[0042] Figure 6 To highlight the schematic diagram of the structure supporting the camel wheel;

[0043] Figure 7 To highlight the structural diagram of the main drive motor;

[0044] Figure 8 Schematic diagram to highlight the structure of the stator and rotor.

[0045] The figure shows:

[0046] Stator 1 First moving plate 1601 Rotor 2 Second moving plate 1602 Rotor drive gear 3 connecting rod 1603

[0047] Second open gear 4 First linear bearing 1604 Main drive motor 5 Second fixed support assembly 17 Auxiliary drive motor 6 Third support plate 1701 Support frame 7 Second jack group 1702 Support camel wheel set 8 Fourth support plate 1703 Toothed connecting ring 9 Third linear bearing 1704 Reducer 10 First elastic component 18 Base frame 11 first spring 1801 Inverter 12 Second elastic component 19 Flywheel 13 Second spring group 1901 Power gear set 14 Gear drive assembly 20 First fixed support assembly 15 gear seat 2001

[0048] First support plate 1501 connected to gear 2002

[0049] First jack group 1502 reverse check valve 2003

[0050] The second support plate 1503 fixes the bottom frame 21

[0051] Second linear bearing 1504 connecting column 22

[0052] Mobile frame 16 Adjustable support feet 23 DETAILED DESCRIPTION

[0053] The present invention is described in detail below in conjunction with specific embodiments. The following embodiments will help those skilled in the art to further understand the present invention, but are not intended to limit the present invention in any form. It should be noted that, for those of ordinary skill in the art, several changes and improvements can also be made without departing from the concept of the present invention. These all belong to the protection scope of the present invention.

[0054] Embodiment 1:

[0055] like Figures 1 to 3 As shown, this embodiment provides a force booster generator, including: a first fixed support assembly 15, a mobile frame 16 and a second fixed support assembly 17; the mobile frame 16 is arranged between the first fixed support assembly 15 and the second fixed support assembly 17, and the mobile frame 16 can move between the first fixed support assembly 15 and the second fixed support assembly 17; the mobile frame 16 is connected to the first fixed support assembly 15 through a first elastic assembly 18, and the mobile frame 16 is connected to the second fixed support assembly 17 through a second elastic assembly 19; a gear driving assembly 20 is arranged on the mobile frame 16, and the gear driving assembly 20 is used to mesh with the rotor driving gear 3. When the rotor driving gear 3 rotates, it can drive the mobile frame 16 to move; when the mobile frame 16 moves, the first elastic assembly 18 and the second elastic assembly 19 can store and release energy.

[0056] The power generation auxiliary device also includes a fixed base frame 21, and the second fixed support assembly 17 is arranged on the fixed base frame 21; the first fixed support assembly 15 and the second fixed support assembly 17 are connected by a connecting column 22, and the movable frame 16 is slidably arranged on the connecting column 22. A plurality of adjustment support feet 23 are arranged at the bottom of the fixed base frame 21, and the adjustment support feet 23 are used for leveling the fixed base frame 21.

[0057] The first fixed support assembly 15 includes a first support plate 1501, a first jack group 1502 and a second support plate 1503; the support end of the first jack group 1502 is connected to the first support plate 1501, and the fixed end of the first jack group 1502 is connected to the second support plate 1503; the first support plate 1501 is fixedly set on the connecting column 22, the second support plate 1503 is slidably set on the connecting column 22 through the second linear bearing 1504, and the movable frame 16 is connected to the second support plate 1503 through the first elastic assembly 18.

[0058] The movable frame 16 includes a first movable plate 1601 and a second movable plate 1602; the first movable plate 1601 and the second movable plate 1602 are connected and fixed by a connecting rod 1603, and the gear driving assembly 20 is arranged between the first movable plate 1601 and the second movable plate 1602; the first movable plate 1601 and the second movable plate 1602 are slidably arranged on the connecting column 22 through a first linear bearing 1604; the first movable plate 1601 is connected to the first fixed support assembly 15 through a first elastic assembly 18, and the second movable plate 1602 is connected to the second fixed support assembly 17 through a second elastic assembly 19.

[0059] The second fixed support assembly 17 includes a third support plate 1701, a second jack group 1702 and a fourth support plate 1703; the support end of the second jack group 1702 is connected to the third support plate 1701, and the fixed end of the second jack group 1702 is connected to the fourth support plate 1703; the third support plate 1701 is slidably set on the connecting column 22 through a third linear bearing 1704, the fourth support plate 1703 is fixedly set on the connecting column 22, and the movable frame 16 is connected to the third support plate 1701 through a second elastic assembly 19.

[0060] The first support plate 1501, the second support plate 1503, the first movable plate 1601, the second movable plate 1602, the third support plate 1701 and the fourth support plate 1703 are sequentially arranged from top to bottom on the connecting column 22. The first support plate 1501 and the second support plate 1503 are fixedly arranged on the connecting column 22, the first movable plate 1601 and the second movable plate 1602 are slidably arranged on the connecting column 22, and the third support plate 1701 and the fourth support plate 1703 are fixedly arranged on the connecting column 22.

[0061] The first elastic component 18 is a first spring group, which includes a plurality of first springs 1801, which are distributed between the mobile frame 16 and the first fixed support component 15. The two ends of the first spring 1801 are connected to the second support plate 1503 and the first mobile plate 1601 respectively.

[0062] The second elastic component 19 is a second spring group, which includes a plurality of second springs 1901, which are distributed between the mobile frame 16 and the second fixed support component 17. The two ends of the second spring 1901 are connected to the second mobile plate 1602 and the third support plate 1701 respectively.

[0063] In this embodiment, the first springs 1801 are set to 66, which are evenly spaced and distributed between the mobile frame 16 and the first fixed support assembly 15, and the second springs 1901 are set to 66, which are evenly spaced and distributed between the mobile frame 16 and the second fixed support assembly 17. There are 132 springs on both sides of the mobile frame 16, and the 66 springs on each side can provide 75 tons of force.

[0064] The gear driving assembly 20 includes a gear seat 2001 and a connecting gear 2002; the gear seat 2001 is arranged on the moving frame 16, and the connecting gear 2002 is arranged on the gear seat 2001 through a reverse check 2003, and the connecting gear 2002 is used to mesh with the rotor driving gear 3. A plurality of gear driving assemblies 20 are arranged on the moving frame 16; the gear seats 2001 of the plurality of gear driving assemblies 20 are alternately arranged on the second moving plate 1602 and the first moving plate 1601 in sequence, and the connecting gears 2002 of the plurality of gear driving assemblies 20 are meshed and connected in sequence. The number of the gear driving assemblies 20 is an even number, such as Figure 1 As shown, in this embodiment, four gear-driven assemblies 20 are arranged in sequence in an upper and lower staggered manner. From left to right, the connecting gear 2002 on the first gear-driven assembly 20 can rotate clockwise, the connecting gear 2002 on the second gear-driven assembly 20 can rotate counterclockwise, the connecting gear 2002 on the third gear-driven assembly 20 can rotate clockwise, and the connecting gear 2002 on the fourth gear-driven assembly 20 can rotate counterclockwise.

[0065] In this embodiment, the rotor driving gear 3 has a large open tooth, and the connecting gear 2002 has a small open tooth. The large open tooth rotates at 60 revolutions per minute, and the small open tooth rotates at 400 revolutions per minute.

[0066] A horizontal line passing through the center of the rotor driving gear is a first horizontal line, and a horizontal line passing through the center of the connecting gear is a second horizontal line.

[0067] In the initial state, when the rotor driving gear does not start to rotate, the first horizontal line coincides with the second horizontal line, that is, the center of the rotor driving gear and the center of the connecting gear are located on the same horizontal line, and the first elastic component and the second elastic component are in a non-compressed and non-stretched state.

[0068] When the rotor driving gear starts to rotate, the entire moving frame moves upward first, the second horizontal line is located above the first horizontal line, the first elastic component is compressed, and the second elastic component is stretched. When a certain critical point is reached, the elastic force of the first elastic component and the pulling force of the second elastic component will cause the moving frame to move downward. During the downward movement, the connecting gear can rotate normally when it contacts the rotor driving gear. When the second horizontal line is located below the first horizontal line, the first elastic component is stretched and the second elastic component is compressed. When a certain critical point is reached, the elastic force of the second elastic component and the pulling force of the first elastic component will cause the moving frame to move upward. During the upward movement, the connecting gear cannot rotate normally when it contacts the rotor driving gear due to the presence of the reverse check, so that the moving frame moving upward will give a force to the rotor driving gear through the connecting gear. At this time, the connecting gear moving upward is similar to a gear bar moving upward, providing a driving force for the rotor driving gear, thereby increasing the driving torque on the rotor driving gear.

[0069] This embodiment also provides a power generation device, including the above-mentioned force booster generator.

[0070] like Figures 4 to 8 As shown, the power generation equipment of this embodiment also includes: a driving assembly, a flywheel assembly, a camel wheel support assembly, a bearing sleeve assembly, a stator 1 and a rotor 2; the rotor 2 is rotatably arranged in the stator 1 through the bearing assembly, and the bearing sleeve assembly is arranged on the bearing; a rotor driving gear 3 is arranged at one end of the rotor 2, and a second open tooth 4 is arranged at the output end of the driving assembly, and the rotor driving gear 3 is meshed and connected with the second open tooth 4; the flywheel assembly is arranged on the driving shaft of the driving assembly, and the camel wheel support assembly is used to support the rotor driving gear 3. The rotor driving gear 3 is a first open tooth, which is a large open tooth, and the second open tooth 4 is a small open tooth. In this embodiment, the gear ratio of the large open tooth to the small open tooth is 6:1, the diameter of the large open tooth is 3537mm, and the diameter of the small open tooth is 486mm.

[0071] The camel wheel support assembly includes a support frame 7 and a supporting camel wheel group 8; the supporting camel wheel group 8 is arranged on the support frame 7, a toothed connecting ring 9 is arranged on the rotor driving gear 3, the supporting camel wheel group 8 abuts against and supports the toothed connecting ring 9, and the toothed connecting ring 9 can rotate on the supporting camel wheel group 8. Two toothed connecting rings 9 are provided, and the two toothed connecting rings 9 are symmetrically arranged on both sides of the rotor driving gear 3 along the axial direction of the rotor driving gear 3; the supporting camel wheel group 8 is provided with two, and the two supporting camel wheel groups 8 are symmetrically arranged on both sides of the rotor driving gear 3 along the horizontal radial direction of the rotor driving gear 3; the supporting camel wheel group 8 is composed of two supporting camel wheels, and the two supporting camel wheels abut against and support the two toothed connecting rings 9 respectively.

[0072] In this embodiment, the two supporting camel wheels are symmetrically arranged on both sides of the rotor driving gear 3 along the axial direction of the rotor driving gear 3 .

[0073] The drive assembly includes at least one main drive motor 5; the output end of the main drive motor 5 is provided with a second open tooth 4, and a flywheel assembly is provided on the drive shaft of the main drive motor 5. Three main drive motors 5 are provided, of which two main drive motors 5 are symmetrically arranged on both sides of the rotor drive gear 3 along the horizontal radial direction of the rotor drive gear 3, and the other main drive motor 5 is arranged directly below the rotor drive gear 3. The drive assembly also includes an auxiliary drive motor 6, which is drivingly connected to the drive shaft of the main drive motor 5. A flywheel assembly is provided on the drive shaft of the auxiliary drive motor 6. A reducer 10 is provided on the drive shaft of the main drive motor 5.

[0074] In this embodiment, a total of three main drive motors 5 are provided, and the flywheel assembly includes a plurality of flywheels 13. A flywheel 13 is provided on the tail drive shaft of the main drive motor 5 located on the left side, a reducer 10 and two flywheels 13 are provided on the head drive shaft, the auxiliary drive motor 6 is connected to its drive shaft through a power gear set 14, and a flywheel 13 is provided on the tail drive shaft of the auxiliary drive motor 6. Two flywheels 13 are provided on the head drive shaft of the main drive motor 5 located on the right side. Two flywheels 13 are provided on the head drive shaft of the main drive motor 5 located at the bottom.

[0075] The bearing assembly includes a first bearing and a second bearing, which are respectively arranged on the outer side walls of both ends of the rotor 2; the bearing sleeve assembly includes a first bearing sleeve and a second bearing sleeve, the first bearing sleeve is arranged on the first bearing, and the second bearing is arranged on the second bearing. Both the first bearing sleeve and the second bearing sleeve are stainless steel bearing sleeves.

[0076] In this embodiment, the power generation device further includes an inverter 12, which is connected to the electrical output port of the power generation device. The power generation device further includes a base frame 11, on which the drive assembly, the stator 2 and the inverter are all arranged.

[0077] The rotor of this embodiment is arranged in the stator through bearings, and the rotor is supported by the stator and camel wheel support assembly, which reduces the influence of the rotor weight on the driving torque. At the same time, a double-tooth drive method is adopted to achieve a smaller driving torque when generating the same amount of power.

[0078] The rotor of this embodiment is arranged in the stator through bearings, and the rotor is supported by the stator and camel wheel support assembly, which reduces the influence of the rotor weight on the driving torque. At the same time, a double-tooth drive method is adopted to achieve a smaller driving torque when generating the same amount of power.

[0079] In this embodiment, a flywheel assembly is arranged on the driving shaft of the driving motor. The flywheel assembly uses multiple flywheels. The flywheel itself is very heavy. After the flywheel is fully rotated, it reaches a dynamic balance state and has good stability. It can ensure the stability of the output torque of the main driving motor, thereby achieving stable power generation.

[0080] In this embodiment, an auxiliary drive motor is provided. Before the rotor is driven by the main drive motor, the flywheel is pre-driven by the auxiliary drive motor. After the flywheel reaches a stable state, the rotor is driven by the main drive motor, thereby further ensuring the stability of the entire output torque process of the main drive motor and also reserving sufficient power for the reducer.

[0081] This embodiment supports the first tooth through the toothed connecting ring and the supporting camel pulley, offsets part of the load brought to the first tooth by the rotor, and can ensure the normal rotation of the first tooth, thereby realizing shaftless driving of the rotor and reducing the driving torque required to drive the rotor to rotate. At the same time, the shaftless drive also provides a structural basis for the hollow setting of the rotor, so that the rotor can be set to be hollow, which is more convenient for heat dissipation.

[0082] The power generation auxiliary device of the present invention utilizes the rotation of the rotor driving gear to drive the moving frame, and causes the gear driving component to generate reciprocating motion through the first elastic component and the second elastic component, and utilizes the fluctuating motion of the gear driving component to increase the driving torque on the rotor driving gear, thereby amplifying the torque and increasing the output torque.

[0083] In the description of the present application, it should be understood that the terms "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside", etc., indicating orientations or positional relationships, are based on the orientations or positional relationships shown in the accompanying drawings, and are only for the convenience of describing the present application and simplifying the description, and do not indicate or imply that the referred device or element must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be understood as a limitation on the present application.

[0084] The above describes the specific embodiments of the present invention. It should be understood that the present invention is not limited to the above specific embodiments, and those skilled in the art can make various changes or modifications within the scope of the claims, which does not affect the essence of the present invention. In the absence of conflict, the embodiments of the present application and the features in the embodiments can be combined with each other arbitrarily.

Claims

1. A force booster generator, characterized in that: include: A first fixed support assembly (15), a movable frame (16) and a second fixed support assembly (17); The movable frame (16) is arranged between the first fixed support assembly (15) and the second fixed support assembly (17), and the movable frame (16) is capable of moving between the first fixed support assembly (15) and the second fixed support assembly (17); The movable frame (16) is connected to the first fixed support assembly (15) via a first elastic assembly (18), and the movable frame (16) is connected to the second fixed support assembly (17) via a second elastic assembly (19); The movable frame (16) is provided with a gear driving assembly (20), and the gear driving assembly (20) is used for meshing connection with the rotor driving gear (3).

2. The force booster generator according to claim 1, characterized in that: When the rotor driving gear (3) rotates, it can drive the moving frame (16) to move; When the moving frame (16) moves, the first elastic component (18) and the second elastic component (19) are capable of storing and releasing energy.

3. The force booster generator according to claim 1, characterized in that: The power generation auxiliary device further comprises a fixed base frame (21), and the second fixed support assembly (17) is arranged on the fixed base frame (21); The first fixed support assembly (15) and the second fixed support assembly (17) are connected via a connecting column (22), and the movable frame (16) is slidably arranged on the connecting column (22).

4. The force booster generator according to claim 3, characterized in that: The gear driving assembly (20) comprises a gear seat (2001) and a connecting gear (2002); The gear seat (2001) is arranged on the moving frame (16), the connecting gear (2002) is arranged on the gear seat (2001) via a reverse check device (2003), and the connecting gear (2002) is used for meshing connection with the rotor driving gear (3).

5. The force booster generator according to claim 4, characterized in that: The movable frame (16) comprises a first movable plate (1601) and a second movable plate (1602); The first movable plate (1601) and the second movable plate (1602) are connected and fixed via a connecting rod (1603), and the gear driving assembly (20) is arranged between the first movable plate (1601) and the second movable plate (1602); The first movable plate (1601) and the second movable plate (1602) are slidably arranged on the connecting column (22) via a first linear bearing (1604); The first movable plate (1601) is connected to the first fixed support component (15) via a first elastic component (18), and the second movable plate (1602) is connected to the second fixed support component (17) via a second elastic component (19).

6. The force booster generator according to claim 5, characterized in that: The movement is provided with a plurality of gear driving components (20); The gear seats (2001) of the plurality of gear driving assemblies (20) are alternately arranged on the second movable plate (1602) and the first movable plate (1601) in sequence, and the connecting gears (2002) of the plurality of gear driving assemblies (20) are meshed and connected in sequence.

7. The force booster generator according to claim 1, characterized in that: The first elastic component (18) is a first spring group; the first spring group includes a plurality of first springs (1801), and the plurality of first springs (1801) are distributed between the mobile frame (16) and the first fixed support component (15); And / or, the second elastic component (19) is a second spring group; the second spring group includes a plurality of second springs (1901), and the plurality of second springs (1901) are distributed between the mobile frame (16) and the second fixed support component (17).

8. The force booster generator according to claim 3, characterized in that: The first fixed support assembly (15) comprises a first support plate (1501), a first jack group (1502) and a second support plate (1503); The supporting end of the first jack group (1502) is connected to the first supporting plate (1501), and the fixing end of the first jack group (1502) is connected to the second supporting plate (1503); The first support plate (1501) is fixedly arranged on the connecting column (22), the second support plate (1503) is slidably arranged on the connecting column (22) via a second linear bearing (1504), and the movable frame (16) is connected to the second support plate (1503) via the first elastic component (18); And / or, the second fixed support assembly (17) comprises a third support plate (1701), a second jack group (1702) and a fourth support plate (1703); The supporting end of the second jack group (1702) is connected to the third supporting plate (1701), and the fixed end of the second jack group (1702) is connected to the fourth supporting plate (1703); The third support plate (1701) is slidably arranged on the connecting column (22) via a third linear bearing (1704), the fourth support plate (1703) is fixedly arranged on the connecting column (22), and the movable frame (16) is connected to the third support plate (1701) via the second elastic component (19).

9. A power generation device, characterized in that: A force booster generator comprising any one of claims 1 to 8.

10. The power generation device according to claim 9, characterized in that: Also includes: A drive assembly, a flywheel assembly, a camel wheel support assembly, a bearing sleeve assembly, a stator (1) and a rotor (2); The rotor (2) is rotatably arranged in the stator (1) via a bearing assembly, and the bearing sleeve assembly is arranged on the bearing assembly; a rotor driving gear (3) is arranged at one end of the rotor (2), and a second open tooth (4) is arranged at the output end of the driving assembly, and the rotor driving gear (3) is meshedly connected with the second open tooth (4); The flywheel assembly is arranged on the driving shaft of the driving assembly, and the camel wheel supporting assembly is used to support the rotor driving gear (3).

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