Power generation system

Abstract

A power generation system comprises a machine base, a motor, a power input coupler, a transmission system base, a machine shell assembly, a flywheel protective cover, a speed reducing mechanism, a transmission sleeve, a speed reducing mechanism shaft, a speed increasing mechanism, a speed increasing mechanism shaft, a flywheel protective cover, a thin disc flywheel, a suspending hammer type flywheel, a generator coupler and a generator. Prime power works through the speed reducing mechanism, the speed increasing mechanism, the flywheel and the suspending hammer type energizing flywheel to drive the generator to generate electricity, and then drives the load to work through the generator, so that the beneficial effect of normal operation of the power generation system is achieved; three suspension hammers of the suspension hammer type energizing flywheel are equally divided by 120 degrees and are evenly distributed on a suspension hammer connecting disc in an offset mode, by means of the characteristic that the suspension hammers deviate from the moment of the axis and have forward parallel moment all the time when the suspension hammer type flywheel rotates, the suspension hammer type energizing flywheel obtains additional kinetic energy through rotation acting of the three hammer heads, and therefore the suspension hammer type energizing flywheel can generate energy. And the beneficial effects of driving the larger generator to generate electricity and driving the load to work while consuming smaller motive power input are achieved.

Description

Technical Field

[0001] The present invention relates to the field of power generation equipment, and in particular to a power generation system which consumes a relatively small motive power input while driving a relatively large generator to generate electricity and drive a load to work. Background Art

[0002] Existing power generation technologies include wind power generation, solar power generation, hydropower generation, thermal power generation and nuclear power generation. Wind power generation and solar power generation are highly dependent on natural conditions and have poor stability. Hydropower generation has a long construction period and high costs. It needs to rely on special natural environmental conditions, has a great impact on the ecology, and is susceptible to wind and water disasters. Thermal power generation requires large investments and high costs. In addition, it emits a large amount of toxic and harmful gases, causing serious pollution and being environmentally unfriendly. Nuclear power generation has high requirements for corresponding supporting facilities, and nuclear waste is highly radioactive. Once leaked, it will cause serious pollution to the environment. Therefore, energy conservation, low-carbon and environmental protection, and at the same time, power stations with low costs, good effects, simple operation and wide application range have become the direction of our research and development. For example, announcement number CN204013070U discloses a multi-stage power station, including a starting power supply, a voltage stabilizer and a multi-stage generator set connected in series, each of which includes a multi-stage motor, a speed increaser and a multi-stage generator connected in sequence, and the multi-stage generator sets are electrically connected through switches and comprehensive protection; the power output shaft of the motor of the multi-stage power station drives the large gear in the speed increaser to rotate, the large gear meshes with the small gear to rotate and increase the speed, and the small gear drives the generator to generate electricity through the power output shaft of the speed increaser; In actual applications, the transmission system of the multi-stage power station is unreasonable, and the work is always done by the prime mover. The transmission resistance of the system is large, the energy consumption of the prime mover is large, and only mechanical energy can do work. There is no external force to increase the kinetic energy, resulting in a loss of work. The generator cannot emit the approved electrical energy to drive the load to do work. Summary of the invention

[0003] In order to overcome the deficiencies of the prior art, the present invention provides a power generation system, which is provided with power input by an electric motor, and works through a reduction mechanism, a speed increasing mechanism, a flywheel, and a suspended hammer type energy boosting flywheel to drive a generator to generate electricity, and then drives a load to work through the generator, thereby achieving the purpose of normal operation of the power generation system; the three suspended hammers of the suspended hammer type energy boosting flywheel are equally divided by 120° and are offset and evenly distributed on the suspended hammer connecting plate, and the suspended hammers are offset with the axial torque. When the suspended hammer type flywheel rotates, the suspended hammers always have the characteristic of a forward parallel torque, and the three hammer heads rotate to do work, so that the suspended hammer type energy boosting flywheel obtains additional kinetic energy, thereby achieving the purpose of driving a larger generator to generate electricity and drive the load to work while consuming a smaller motive force input.

[0004] The technical solution adopted by the present invention to solve its technical problems is: a power generation system, including a machine base, an electric motor, a power input coupling, a transmission system base, a casing assembly, a flywheel shield, a reduction mechanism, a transmission sleeve, a reduction mechanism shaft, a speed increasing mechanism, a speed increasing mechanism shaft, a flywheel shield, a thin disc flywheel, a suspended hammer flywheel, a generator coupling and a generator, and a generator power input shaft, wherein the reduction mechanism includes a reduction planetary gear assembly and a reduction bearing assembly, the reduction planetary gear assembly includes a reduction sun gear, a reduction planetary gear and a reduction planetary gear shaft, and the reduction bearing assembly includes a reduction bearing frame, a reduction planetary gear shaft The said speed increasing mechanism comprises a speed increasing planetary gear assembly and a speed increasing bearing assembly; the said speed reducing planetary gear assembly is connected to the said speed reducing bearing frame on both sides, the said speed reducing planetary gear bearing is connected to the speed reducing planetary gear shaft, and the said speed reducing sun gear is meshed with the speed reducing planetary gear; the said speed increasing planetary gear assembly comprises a speed increasing planetary gear, a speed increasing planetary gear shaft and a speed increasing sun gear, the said speed increasing bearing assembly comprises a speed increasing bearing frame and a speed increasing planetary gear shaft bearing, the said speed increasing planetary gear assembly is connected to the said speed increasing bearing frame on both sides, the said speed increasing planetary gear bearing is connected to the speed increasing planetary gear shaft, the said speed increasing planetary gear is meshed with the said speed increasing sun gear The gears are meshed; the casing assembly is composed of a light hole on the casing body section, a light hole on the reduction planetary gear ring, a light hole on the speed increase planetary gear ring, a light hole on the reduction mechanism shaft end seat, and a bolt rod in series; the reduction mechanism shaft end seat has a bearing; the motor, the transmission system seat, the flywheel protective cover and the generator are connected to the base; the power input coupling connects the power input shaft of the motor and the reduction mechanism shaft; the reduction mechanism shaft is key-connected with the reduction sun gear in the reduction mechanism; the reduction sun gear in the reduction planetary gear set is meshed with the reduction planetary gear ring in the casing assembly; the reduction mechanism shaft The transmission sleeve is key-connected, the transmission sleeve is connected to the speed-increasing bearing frame in the speed-increasing bearing assembly, the speed-increasing bearing frame has a transmission sleeve connection hole, the speed-increasing mechanism shaft is key-connected to the speed-increasing sun gear, the speed-increasing planetary gear is meshed with the speed-increasing planetary gear ring in the housing assembly, the speed-increasing planetary gear is meshed with the speed-increasing sun gear, the speed-increasing mechanism shaft is key-connected with the thin disc flywheel and the suspended hammer flywheel, the generator coupling is connected to the speed-increasing mechanism shaft and the generator power input shaft, one end of the power output shaft of the motor, both ends of the reduction mechanism shaft, and both ends of the speed-increasing mechanism shaft are all provided with bearings; The suspended hammer flywheel comprises three suspended hammers, a connecting plate, a wheel hub, and three limit pins. The wheel hub is connected to the connecting plate. The three suspended hammers cooperate with the connecting plate and are connected to the pin shaft. The three limit pins cooperate with one side surface of the three suspended hammers and are connected to the connecting plate. The center of the wheel hub has an axial hole connected to the speed increasing mechanism shaft, and the inner diameter of the axial hole has a keyway. The three hanging hammers have the same structure and mass, and are evenly distributed on the connecting plate at 120 degrees. The main arrows of the three hanging hammers move slightly in one direction, and the main arrows of the hanging hammers are not perpendicular to the axis of the speed increasing mechanism by 90 degrees. The speed ratio between the reduction sun gear 30 and the reduction planetary gear in the reduction planetary gear assembly is 3:1; The speed ratio of the speed-increasing planetary gear 36 to the speed-increasing sun gear 39 in the speed-increasing planetary gear assembly is 1:4.7; The outer diameter of the reduction sun gear has meshing teeth that match the reduction planetary gear, the inner diameter of the reduction sun gear has a light hole that matches the shaft of the reduction mechanism, and the light hole has a keyway; The outer diameter of the speed-increasing planetary gear has meshing teeth that match the speed-increasing sun gear and the speed-increasing planetary gear ring, and the inner diameter of the speed-increasing planetary gear has a light hole that matches the speed-increasing mechanism shaft, and the light hole has a keyway; The hub center of the suspended hammer flywheel has a light hole that matches the speed increasing mechanism shaft, and the light hole has a keyway; The working principle of this power generation system is: Start the 22KW motor, the motor's power output shaft rotates 960 rpm, and drives the reduction mechanism shaft to rotate through the power input coupling. The reduction mechanism shaft drives the reduction sun gear to rotate, and the reduction sun gear meshes with the reduction planetary gear to rotate, with a speed ratio of 3:1. The reduction planetary gear meshes with the reduction planetary gear ring and rolls. At this time, the speed of the reduction mechanism shaft drops to 320 rpm, the reduction mechanism shaft drives the transmission sleeve to rotate, the transmission sleeve drives the speed-increasing bearing frame to rotate, the speed-increasing bearing frame drives the speed-increasing planetary gear to mesh with the speed-increasing planetary gear ring and rolls, the speed-increasing planetary gear drives the speed-increasing sun gear to rotate, with a speed ratio of 1:4.7. At this time, the speed of the speed-increasing mechanism shaft It rises to 1500 rpm, and the rotation of the speed-increasing mechanism shaft drives the thin disc flywheel and the suspended hammer flywheel to rotate. While the thin disc flywheel stores and releases energy, it overcomes the rotation dead point of the suspended hammer flywheel and drives the suspended hammer flywheel to rotate smoothly. The speed-increasing mechanism shaft drives the generator power input shaft to rotate through the generator connecting sleeve, and the generator starts to work and generate electricity. Since the suspended hammer flywheel is a translation rather than a rotation, it only does work on the speed-increasing mechanism shaft without increasing the torque of the speed-increasing mechanism shaft. The three suspended hammers continue to generate kinetic energy. Therefore, the energy output to the generator 14 through the speed-increasing mechanism shaft 8 is much greater than the original power input by the motor 1, achieving the effect of energy enhancement. Preferably, the power generation system is set as a primary power generation system, and works through the primary power generation system, and its final output end, that is, the generator, is connected to the power input end of the secondary power generation system, that is, the motor of the secondary power generation system. Since the output power of the primary power generation system is much greater than the input power, at this time, a 45kw motor can be used as the input motor of the secondary power generation system; at the same time, the mass and diameter of the thin disc flywheel of the secondary power generation system are greater than those of the thin disc flywheel of the primary power generation system, and the total mass and diameter of the suspended hammer flywheel are greater than those of the suspended hammer flywheel of the primary power generation system. At the final output end of the secondary power generation system, the output power generated by its generator is much greater than the input power of the secondary power generation system; and so on, multiple such power generation systems can be used in series to form a multi-stage power generation system.

[0005] The beneficial effects of the present invention are as follows: the power generation system is provided with power input by a prime mover, and works through a reduction mechanism, a speed increasing mechanism, a flywheel, and a suspended hammer type energy-enhancing flywheel to drive a generator to generate electricity, and then drives a load to work through the generator, thereby achieving the beneficial effect of normal operation of the power generation system; the three suspended hammers of the suspended hammer type energy-enhancing flywheel are equally divided by 120° and are offset and evenly distributed on the suspended hammer connecting plate, and the suspended hammers are offset with the axial torque. When the suspended hammer type flywheel rotates, the suspended hammers always have the characteristic of a forward parallel torque, and the three hammer heads rotate to do work, so that the suspended hammer type energy-enhancing flywheel obtains additional kinetic energy, thereby achieving the beneficial effect of driving a larger generator to generate electricity and drive the load to work while consuming a smaller prime power input. BRIEF DESCRIPTION OF THE DRAWINGS

[0006] Figure 1 It is a structural view of the present invention; Figure 2 It is a front view of the speed reduction mechanism structure of the present invention; Figure 3 For the present invention Figure 2 Left view of Figure 4 It is a front view of the speed increasing mechanism of the present invention; Figure 5 For the present invention Figure 4 Left view of Figure 6 This is a front view of the structure of the suspended hammer type energy-enhancing flywheel of the present invention; Figure 7 For the present invention Figure 6 AA view; The present invention is further described below in conjunction with the accompanying drawings and embodiments. DETAILED DESCRIPTION

[0007] The specific implementation mode of the present invention is, referring to Figure 1 , oneA power generation system, including a base 15, an electric motor 1, a power input coupling 3, a transmission system base 2, a casing assembly 4, a flywheel shield 11, a reduction mechanism 5, a transmission sleeve 17, a reduction mechanism shaft 22, a speed increasing mechanism 7, a speed increasing mechanism shaft 8, a flywheel shield 11, a thin disc flywheel 9, a suspended hammer flywheel 10, a generator coupling 12 and a generator 14, and a generator power input shaft 13, wherein the reduction mechanism 5 includes a reduction planetary gear assembly and a reduction bearing assembly, the reduction planetary gear assembly includes a reduction sun gear 30, a reduction planetary gear 26 and a reduction planetary gear shaft 29, the reduction bearing assembly includes reduction bearing frames 24 and 28, reduction planetary gear shaft bearings 23 and 27, and the speed increasing mechanism 7 includes a speed increasing planetary gear assembly and a speed increasing bearing assembly; refer to Figure 2 and Figure 3 The two sides of the deceleration planetary gear assembly are connected to the deceleration bearing frames 24 and 28, referring to Figure 1 The bearings 23 and 27 of the deceleration planetary gear 26 are connected to the deceleration planetary gear shaft 29, and the deceleration sun gear 30 is meshed with the deceleration planetary gear 26; Figure 4 and Figure 5 The speed-increasing planetary gear assembly includes a speed-increasing planetary gear 36, a speed-increasing planetary gear shaft 38 and a speed-increasing sun gear 39, the speed-increasing bearing assembly includes a speed-increasing bearing frame 34 and speed-increasing planetary gear shaft bearings 33 and 37, the speed-increasing planetary gear assembly is connected to the speed-increasing bearing frame 34 on both sides, the speed-increasing planetary gear bearings 33 and 37 are connected to the speed-increasing planetary gear shaft 38, and the speed-increasing planetary gear 36 is meshed with the speed-increasing sun gear 39; refer to Figure 1 The housing assembly 4 is composed of a light hole on the housing body section 18, a light hole 25 on the reduction planetary gear ring 20, a light hole 35 on the speed increase planetary gear ring 16, a light hole on the reduction mechanism shaft end seat 19, and a bolt rod 21 in series. The reduction mechanism shaft end seat has a bearing 6. The motor 1, the transmission system seat 2, the flywheel protective cover 11 and the generator 14 are connected to the base 15. The power input coupling 3 connects the power input shaft of the motor 1 and the reduction mechanism shaft 22. The reduction mechanism shaft 22 is key-connected with the reduction sun gear 30 in the reduction mechanism 5. The reduction sun gear 30 in the reduction planetary gear set is meshed with the reduction planetary gear ring 20 in the housing assembly. The reduction mechanism shaft 22 is key-connected with the transmission sleeve 17. Figure 1 , Figure 4 and Figure 5, the transmission sleeve 17 is connected to the speed-increasing bearing frame 34 in the speed-increasing bearing assembly, and the speed-increasing bearing frame 34 has a transmission sleeve 17 connecting hole 42, the speed-increasing mechanism shaft 8 is key-connected to the speed-increasing sun gear 39, the speed-increasing planetary gear 38 is meshed with the speed-increasing planetary gear ring 16 in the housing assembly, the speed-increasing planetary gear 36 is meshed with the speed-increasing sun gear 39, the speed-increasing mechanism shaft 8 is key-connected with the thin disc flywheel 9 and the suspended hammer flywheel 10, the generator coupling 12 is connected to the speed-increasing mechanism shaft 8 and the generator power input shaft 13, and one end of the power output shaft of the motor 1, both ends of the reduction mechanism shaft 22, and both ends of the speed-increasing mechanism shaft 8 are all provided with bearings; Reference Figure 6 and Figure 7 The suspended hammer flywheel 10 includes three suspended hammers 43, a connecting plate 44, a hub 46, and three limit pins 49. The hub 46 is connected to the connecting plate 44. The three suspended hammers 43 are matched with the connecting plate 44 and connected with the pin 45. The three limit pins 49 are respectively matched with one side of the three suspended hammers 43 and connected with the connecting plate 44. The center of the hub 46 has an axial hole 47 connected with the speed increasing mechanism shaft 8, and the inner diameter of the axial hole 47 has a keyway 48. Reference Figure 6 and Figure 7 The three hanging weights 43 have the same structure and mass, and are evenly distributed on the connecting plate 44 at 120 degrees. The main arrows of the three hanging weights 43 move slightly in one direction, and the main arrows of the hanging weights are not perpendicular to the speed increasing mechanism axis 8 by 90 degrees. Reference Figure 2 and Figure 3 , the speed ratio between the reduction sun gear 30 and the reduction planetary gear in the reduction planetary gear assembly is 3:1; Reference Figure 4 and Figure 5 The speed ratio of the speed-increasing planetary gear 36 to the speed-increasing sun gear 39 in the speed-increasing planetary gear assembly is 1:4.7; Reference Figure 2 and Figure 3 The outer diameter of the reduction sun gear 30 has meshing teeth that match the reduction planetary gear 26, and the inner diameter of the reduction sun gear 30 has a light hole 31 that matches the reduction mechanism shaft 22, and the light hole 31 has a keyway 32; Reference Figure 4 and Figure 5 The outer diameter of the speed-increasing planetary gear 36 has meshing teeth that match the speed-increasing sun gear 39 and the speed-increasing planetary gear ring 16, and the inner diameter of the speed-increasing planetary gear 36 has a light hole 40 that matches the speed-increasing mechanism shaft 8, and the light hole 40 has a keyway 41; The center of the hub 46 of the hanging hammer flywheel 10 has a light hole 47 that matches the speed increasing mechanism shaft 8, and the light hole 47 has a keyway; Embodiment 1: The working principle of the power generation system is: Reference Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figure 5 , Figure 6 and Figure 7 , start the 22KW motor 1 to work, the power output shaft of the motor 1 rotates 960 revolutions, and drives the reduction mechanism shaft 22 to rotate through the power input coupling 3, the reduction mechanism shaft 22 drives the reduction sun gear 30 to rotate, the reduction sun gear 30 meshes and rotates with the reduction planetary gear 26, the speed ratio is 3:1, the reduction planetary gear 26 meshes and rolls with the reduction planetary gear ring 20, at this time, the speed of the reduction mechanism shaft 22 drops to 320 revolutions, the reduction mechanism shaft 22 drives the transmission sleeve 17 to rotate, the transmission sleeve 17 drives the speed-increasing bearing frame 34 to rotate, the speed-increasing bearing frame 34 drives the speed-increasing planetary gear 36 to mesh and roll with the speed-increasing planetary gear ring 16, the speed-increasing planetary gear 36 drives the speed-increasing sun gear 39 to rotate, the speed ratio is 1:4.7, at this time , the speed of the speed increasing mechanism shaft 8 rises to 1500 rpm, the speed increasing mechanism shaft 8 rotates to drive the thin disc flywheel 9 and the suspended hammer flywheel 10 to rotate, the thin disc flywheel 9 stores and releases energy while overcoming the rotation dead point of the suspended hammer flywheel 10, driving the suspended hammer flywheel 10 to rotate smoothly, the speed increasing mechanism shaft 8 drives the generator power input shaft 13 to rotate through the generator 4212, and the generator 14 starts to work and generate electricity; because the suspended hammer flywheel 10 is a translation rather than a rotation, it only does work on the speed increasing mechanism shaft 8, and does not increase the torque of the speed increasing mechanism shaft 8, the three suspended hammers continue to generate kinetic energy, therefore, the energy output to the generator 14 through the speed increasing mechanism shaft 8 is much greater than the original power input by the motor 1, achieving the effect of energy enhancement; Energy change analysis of a power generation system: 1. External force analysis (i.e. impulse analysis) of thin disc flywheel 9: diameter D = 0.5 m, mass m = 62 kg, speed 1500 rpm, 1. Moment of inertia: l = ½ mr 2 = ½(62×0.25 2 )=1.9375kg / m 2 ; 2. Linear speed: v = ΠD / t = 3.14 × 0.5 × 1500 / 60 = 39.25 m / s; 3. Angular velocity: ω=v / r=39.25÷0.25=157 rad / s; 4. Angular momentum: L = lω = 1.9375 × 157 = 304.18 kgm 2 / s; 5. Angular kinetic energy: EK = ½ lω 2 = ½ (1.9375 × 157 2 ) = 23.879kw; the thin disc flywheel does not do work on the rotating shaft, and the energy cannot be converted; 2. Momentum and kinetic energy analysis of the suspended hammer flywheel 10: rotation speed 1500 rpm, number of suspended hammers 3, mass of a single suspended hammer m = 18.3 kg, diameter of suspended hammer D = 0.55 m, total mass of suspended hammer flywheel = 18.3 × 3 = 55 kg; 1. Linear velocity of suspended hammer energy-boosting flywheel: v=ΠD / t=3.14×0.55×1500 / 60=43.175 m / s; 2. Momentum of suspended flywheel: p=mv=55×43.175=2374.625kgm / s; 3. Kinetic energy of suspended hammer flywheel: E=½mv 2 = ½ (55 × 43.175 2 ) = 51.262kw; 3. Energy loss 1. No-load friction resistance consumption of generator: 8kw; 2. No-load energy consumption of the motor: 5kw; IV. Overview Final output power = motor initial input power 22kw + suspended hammer flywheel kinetic energy 51.262kw - generator no-load 8kw - motor no-load 5kw = 60.262kw; It can be seen that the output power of this power generation system is greater than the input power, that is, the initial input power is 22kw, and the output is 60.262kw, which fully meets the full load work of the 50kw generator and drives the load; Embodiment 2, the power generation system is set as a primary power generation system, and the primary power generation system works, and the final output end, i.e., the generator, is connected to the power input end of the secondary power generation system, i.e., the motor of the secondary power generation system. Since the output power of the primary power generation system is 60.262kw, which is much larger than the input power of 22kw, at this time, the input motor of the secondary power generation system can use a 45kw motor; at the same time, the thin disc flywheel of the secondary power generation system has a mass of 90kg and a diameter of 0.6m, and the total mass of the suspended hammer flywheel is 84.48kg and a diameter of 0.65m. At the final output end of the secondary power generation system, the output power generated by the generator is 133.974kw, which is much larger than the input power of 45kw of the secondary power generation system; and so on, multiple power generation systems of the same kind are used in series to form a multi-stage power generation system; Comparison of energy consumption of multi-stage power generation system: Thin disc flywheel diameter Thin disc flywheel mass Diameter of suspended hammer flywheel The quality of the suspended flywheel Motor input Angular kinetic energy of thin disc flywheel Hammer-type flywheel output Measured motor no-load consumption Measured generator no-load consumption System output power Primary power generation system 0.5m 62kg 0.55m 55kg 22kw 23.879kw 51.262kw 5kw 8kw 60.262kw Secondary power generation system 0.6m 80kg 0.65m 88.48kg 45kw 49.914kw 109.974kw 10kw 11kw 133.974kw

Claims

1. A power generation system, comprising a machine base, an electric motor, a power input coupling, a transmission system base, a housing assembly, a flywheel shield, a speed reduction mechanism, a transmission sleeve, a speed reduction mechanism shaft, a speed increase mechanism, a speed increase mechanism shaft, a flywheel shield, a thin disc flywheel, a suspended hammer flywheel, a generator coupling and a generator, and a generator power input shaft, wherein: The deceleration mechanism includes a deceleration planetary gear assembly and a deceleration bearing assembly, the deceleration planetary gear assembly includes a deceleration sun gear, a deceleration planetary gear and a deceleration planetary gear shaft, the deceleration bearing assembly includes a deceleration bearing frame and a deceleration planetary gear shaft bearing, and the speed-increasing mechanism includes a speed-increasing planetary gear assembly and a speed-increasing bearing assembly; the deceleration planetary gear assembly is connected to the deceleration bearing frame on both sides, the bearing of the deceleration planetary gear is connected to the deceleration planetary gear shaft, and the deceleration sun gear is meshed with the deceleration planetary gear; the speed-increasing planetary gear assembly includes a speed-increasing planetary gear, a speed-increasing planetary gear shaft and a speed-increasing sun gear, the speed-increasing bearing assembly includes a speed-increasing bearing frame and a speed-increasing planetary gear shaft bearing, the speed-increasing planetary gear assembly is connected to the speed-increasing bearing frame on both sides, the speed-increasing planetary gear bearing is connected to the speed-increasing planetary gear shaft, and the speed-increasing planetary gear is meshed with the speed-increasing sun gear; the casing assembly is composed of a light hole on the casing body section, a light hole on the deceleration planetary gear ring, a light hole on the speed-increasing planetary gear ring and a light hole on the deceleration mechanism shaft end seat, and a bolt rod in series The reduction mechanism shaft end seat has a bearing, the motor, the transmission system seat, the flywheel protective cover and the generator are connected to the seat, the power input coupling connects the power input shaft of the motor and the reduction mechanism shaft, the reduction mechanism shaft is key-connected with the reduction sun gear in the reduction mechanism, the reduction sun gear in the reduction planetary gear set is meshed with the reduction planetary gear ring in the housing assembly, the reduction mechanism shaft key is connected to the transmission sleeve, the transmission sleeve is connected to the speed-increasing bearing frame in the speed-increasing bearing assembly, the speed-increasing bearing frame has a transmission sleeve connecting hole, the speed-increasing mechanism shaft key is connected to the speed-increasing sun gear, the speed-increasing planetary gear is meshed with the speed-increasing planetary gear ring in the housing assembly, the speed-increasing planetary gear is meshed with the speed-increasing sun gear, the speed-increasing mechanism shaft is key-connected with the thin disc flywheel and the suspended hammer flywheel, the generator coupling connects the speed-increasing mechanism shaft and the generator power input shaft, one end of the power output shaft of the motor, both ends of the reduction mechanism shaft, and both ends of the speed-increasing mechanism shaft are all provided with bearings.

2. A power generation system according to claim 1, characterized in that: The suspended weight flywheel includes three suspended weights, a connecting plate, a wheel hub, and three limit pins. The wheel hub is connected to the connecting plate. The three suspended weights cooperate with the connecting plate and are connected to the pin shaft. The three limit pins cooperate with one side of the three suspended weights and are connected to the connecting plate respectively. The center of the wheel hub has an axial hole connected to the speed increasing mechanism shaft, and the inner diameter of the axial hole has a keyway.

3. A power generation system according to claim 2, characterized in that: The three hanging hammers have the same structure and mass and are evenly distributed on the connecting plate at 120 degrees. The main arrows of the three hanging hammers move slightly in one direction, and the main arrows of the hanging hammers are not perpendicular to the speed increasing mechanism axis by 90 degrees.

4. A power generation system according to claim 1, characterized in that: The speed ratio between the sun gear and the planetary gear in the reduction planetary gear set is 3:

1.

5. A power generation system according to claim 1, characterized in that: The speed ratio between the planetary gear and the sun gear in the speed-increasing planetary gear set is 1:4.

7.

6. A power generation system according to claim 1, characterized in that: The outer diameter of the reduction sun gear has meshing teeth matched with the reduction planetary gear, and the inner diameter of the reduction sun gear has a light hole matched with the reduction mechanism shaft, and the light hole has a keyway.

7. A power generation system according to claim 1, characterized in that: The outer diameter of the speed-increasing planetary wheel has meshing teeth that match the speed-increasing sun wheel and the speed-increasing planetary wheel gear ring, and the inner diameter of the speed-increasing planetary wheel has a light hole that matches the speed-increasing mechanism shaft, and the light hole has a keyway.

8. The hub center of the suspended hammer flywheel is provided with a light hole which matches with the speed increasing mechanism shaft, and the light hole is provided with a keyway.

9. A power generation system according to claim 1, characterized in that: The working principle of this power generation system is: Start the 22KW motor, the power output shaft of the motor rotates 960 rpm, drives the reduction planetary gear shaft to rotate through the power input coupling, the reduction planetary gear shaft drives the reduction sun gear to rotate, the reduction sun gear meshes with the reduction planetary gear and rotates, the speed ratio is 3:1, the reduction planetary gear meshes with the reduction planetary gear ring and rolls, at this time, the speed of the reduction planetary gear shaft drops to 320 rpm, the reduction planetary gear shaft drives the transmission sleeve to rotate, the transmission sleeve drives the speed-increasing bearing frame to rotate, the speed-increasing bearing frame drives the speed-increasing planetary gear to mesh with the speed-increasing planetary gear ring and rolls, the speed-increasing planetary gear drives the speed-increasing sun gear to rotate, the speed ratio is 1:4.7 At this time, the speed of the speed-increasing mechanism shaft rises to 1500 rpm. The rotation of the speed-increasing mechanism shaft drives the thin disc flywheel to rotate. While the thin disc flywheel stores and releases energy, it overcomes the rotation dead point of the suspended hammer flywheel and drives the suspended hammer flywheel to rotate smoothly. The speed-increasing mechanism shaft drives the power input shaft of the generator to rotate through the generator connecting sleeve, and the generator starts to work and generate electricity. Since the suspended hammer flywheel is linear rather than rotational, it only does work on the speed-increasing mechanism shaft without increasing the torque of the speed-increasing mechanism shaft. The three hammer heads continue to generate kinetic energy. Therefore, the energy output to the generator through the speed-increasing mechanism shaft is much greater than the original power input by the motor.

10. A power generation system according to claim 1, characterized in that: This power generation system is set as a primary power generation system, and works through the primary power generation system. Its final output end, i.e., the generator, is connected to the power input end of the secondary power generation system, i.e., the motor of the secondary power generation system. Since the output power of the primary power generation system is much greater than the input power, at this time, a 45kw motor can be used as the input motor of the secondary power generation system. At the same time, the mass and diameter of the thin disc flywheel of the secondary power generation system are greater than those of the thin disc flywheel of the primary power generation system, and the total mass and diameter of the suspended hammer flywheel are greater than those of the suspended hammer flywheel of the primary power generation system. At the final output end of the secondary power generation system, the output power generated by its generator is much greater than the input power of the secondary power generation system. By analogy, multiple such power generation systems can be used in series to form a multi-stage power generation system.

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