Ferris wheel rotating circulation gravity type power generation system

Abstract

The invention relates to the technical field of power generation equipment, and particularly discloses a ferris wheel rotating circulation gravity type power generation system which comprises a water pipe, a shutoff ball return unit is arranged at the lower end of the water pipe, a ball outlet pipe is arranged on one side of the upper end of the water pipe, a water tank is arranged on one side of the shutoff ball return unit, and a ball return pipe used for recycling floating balls is obliquely arranged on the other side of the shutoff ball return unit; the ball pushing unit is mounted on one side of the upper end of the water pipe so as to push the floating ball to enter the ball outlet pipe; the gravity circulating unit comprises a plurality of ball support modules, so that the ball support modules receive the floating balls falling from the ball outlet pipe, the plurality of ball support modules are driven to circularly rotate under the gravity of the floating balls, and the floating balls fall into the ball return pipe; the generator is connected with the gravity circulation unit; according to the ferris wheel rotating circulation gravity type power generation system, the circulation stability of the floating ball can be improved, liquid leakage can be prevented in the whole floating ball recovery circulation process, the power generation system is more stable, and the situation that power generation fails due to liquid leakage is prevented.

Description

Technical Field

[0001] The invention relates to the technical field of power generation equipment, in particular to a Ferris wheel rotating cycle gravity power generation system. Background Art

[0002] With the advancement of science and technology, the power generation efficiency of generators has been significantly improved, and the actuation loss of mechanical structures can be minimized through precision manufacturing. Then, through different energy conversion and mechanism combinations, it will no longer be empty talk to generate autonomous circulation power from potential energy, kinetic energy, inertia and other energies.

[0003] For example, a buoyancy potential energy disclosed in Chinese patent document CN1635275A is that through the buoyancy of liquid, a heavy object with a specific gravity less than that of the liquid automatically rises in the liquid to obtain potential energy, and the released potential energy is converted into mechanical energy or electrical energy output by the falling of the heavy object. It is also disclosed that when the buoyancy potential energy conversion device is working: see the figure, the wheel of the heavy object feeder is driven to rotate by a small motor, and the feed head is pushed to reciprocate in the horizontal direction through a connecting rod. When the feed head retreats, the heavy object waiting on the descending path of the heavy object automatically falls in, and the feed head moves forward, pushing the heavy object forward, squeezing the heavy object that originally entered and is in the front row out of the sealed cavity, and the feed head keeps reciprocating, and the heavy object will enter the buoyancy lifter continuously.

[0004] According to the above disclosed prior art, since the buoyancy lift is directly connected to the sealed cavity, the liquid in the buoyancy lift is easy to leak through the sealed cavity, causing the weight feeder to be filled with liquid, thereby causing the weight to float in the weight feeder, so that the weight cannot fall into the sealed cavity, resulting in fewer and fewer weights in the buoyancy lift, and eventually the amount of weight entering the energy converter is reduced, or even no weight enters the energy converter, so that further power generation cannot be achieved. Summary of the invention

[0005] In order to overcome the defects of the prior art, the present invention provides a Ferris wheel rotating cycle gravity power generation system to solve the problems in the prior art.

[0006] The technical solution adopted by the present invention to solve the technical problem is: a Ferris wheel rotating cycle gravity power generation system, comprising: A water pipe, wherein a flow interception and return ball unit is arranged at the lower end of the water pipe, a ball outlet pipe is arranged at one side of the upper end of the water pipe, a water tank is arranged at one side of the flow interception and return ball unit, and a ball return pipe for recovering the floating ball is arranged obliquely at the other side, so that the flow interception and return ball unit intercepts the liquid in the water pipe and recovers the liquid into the water tank, and a third gate valve switch is arranged between the flow interception and return ball unit and the ball return pipe; The ball pusher unit is installed on one side of the upper end of the water pipe to push the floating ball into the ball outlet pipe; A gravity circulation unit is located on one side of the water pipe. The gravity circulation unit includes a plurality of ball holder modules. The plurality of ball holder modules are cyclically rotated and arranged between the ball outlet pipe and the ball return pipe, so that the ball holder modules receive the floating ball dropped from the ball outlet pipe, and drive the plurality of ball holder modules to cyclically rotate under the gravity of the floating ball, and drop the floating ball into the ball return pipe; A generator is connected to the gravity circulation unit.

[0007] The beneficial effect of the present invention is that after the float enters the ball return pipe, the water pipe can be intercepted by the interception return ball single, and the water in the interception return ball unit is recovered into the water tank, so that the liquid level in the interception return ball unit is reduced, and then the third gate valve switch is opened to prevent the liquid from leaking out from the ball return pipe, and at the same time the float enters the interception return ball unit, and then the third gate valve switch is closed, and the channel between the interception return ball unit and the water pipe is opened, and finally the water in the water tank is discharged into the water pipe to restore the liquid level of the water pipe, so that the float can further rise by buoyancy, and the float can enter the ball outlet pipe under the push of the ball pushing unit, thereby improving the circulation stability of the float, so that the float in the ball outlet pipe falls into the gravity circulation unit, thereby realizing the cyclic rotation of the ball support module to drive the generator to generate electricity, and the entire float recovery circulation process can prevent liquid leakage, make the power generation system more stable, and prevent power generation failure due to liquid leakage.

[0008] Furthermore, the interception and ball return unit includes an interception pipe coaxially arranged with the water pipe, a first gate valve switch is arranged between the water pipe and the interception pipe, a connecting pipe is arranged on the side of the interception pipe close to the water tank, the connecting pipe is connected to the water tank through a second gate valve switch and a two-way water pump, and the other side of the interception pipe is connected to the ball return pipe through a third gate valve switch.

[0009] After adopting the above-mentioned further structure, before the float falls into the ball return pipe, the second gate valve switch and the third gate valve switch are in the closed state. After the float enters the ball return pipe, the first gate valve switch is closed to intercept the flow, and the second gate valve switch is opened. The two-way water pump pumps the liquid in the interception pipe into the water tank so that the liquid level is lower than the ball return pipe, and then the third gate valve switch is opened to allow the float to enter the interception pipe. At this time, the third gate valve switch is closed, and the two-way water pump discharges the liquid in the water tank into the interception pipe. At this time, the first gate valve switch can be opened until the liquid in the water tank is discharged, and then the second gate valve switch is closed. This cycle is repeated to ensure that the liquid cannot leak out from the ball return pipe.

[0010] Furthermore, a water supply pipe is connected to the water tank, a water supply pump is installed on the water supply pipe, and a circulating water return pipe is also connected to one side of the water tank, and the other end of the circulating water return pipe is connected to one end of the ball return pipe.

[0011] After adopting the above-mentioned further structure, since the float will also take away liquid during the circulation process, the external water source or the upper end of the water pipe can be connected through the water supply pipe, and the water tank can be replenished with water through the circulating return pipe to prevent the float from being unable to circulate due to the low water level of the interception. Moreover, after closing the first gate valve switch to intercept, the two-way water pump sucks liquid into the water tank, and the liquid can directly rush to the ball return pipe through the circulating return pipe, and the height of the ball return pipe is higher than the height of the water tank, so that the liquid can bring the float entering the ball return pipe to the third gate valve switch to prevent the ball from getting stuck, so that the float can be brought into the interception pipe after the third gate valve switch is opened. At the same time, after the second gate valve switch is opened, the two-way water pump can also rush the float into the interception pipe when discharging the liquid in the water tank to the interception pipe, so that the float floats in the interception pipe.

[0012] Furthermore, the ball pushing unit includes a box body, the part of the water pipe located in the box body is provided with an opening, the inlet end of the ball outlet pipe is located in the opening, a jacking hydraulic cylinder is arranged in the box body, the cylinder body of the jacking hydraulic cylinder is hinged at the lower end of the box body, an arc-shaped ball support is hinged on the hydraulic shaft of the jacking hydraulic cylinder, a thrust hydraulic cylinder hinged in the box body is arranged on one side of the jacking hydraulic cylinder, and the hydraulic shaft of the thrust hydraulic cylinder and the cylinder body of the jacking hydraulic cylinder are hinged to each other.

[0013] After adopting the above-mentioned further structure, when the float floats to the opening, the thrust hydraulic cylinder pushes the jacking hydraulic cylinder to swing toward the ball outlet pipe, and the jacking hydraulic cylinder drives the arc-shaped ball support to push upward and lift the float, so that the float falls into the ball outlet pipe. The structure is simple to ensure that each floating float can enter the ball outlet pipe to prevent accumulation, so as to ensure the circulation of the float.

[0014] Furthermore, the gravity circulation unit includes a wheel body circulation device, which includes a wheel body, the wheel body is installed on a wheel frame through a rotating shaft, a generator is installed at the center of the wheel body, a plurality of ball holders are evenly arranged along the circumferential direction of the wheel body, and a plurality of ball holders are installed with swingable ball holder cups, and a ball holder cup top pressure piece is provided on one side below the wheel frame, so that the ball holder cup can swing through the pressure of the ball holder cup top pressure piece during the rotation of the wheel body.

[0015] After adopting the above-mentioned further structure, the float is discharged from the ball outlet pipe and falls onto the ball holder. Under the gravity of the float, the wheel body is driven to rotate, so that the generator generates electricity, and multiple floats continuously enter the multiple ball holders, so that the generator generates electricity uninterruptedly. The energy consumption is lower than that of the traditional one, the efficiency is high, and the cost is saved. During the falling process, the float presses against the ball holder cup top pressure piece below, so that the ball holder cup can be tilted, so that the float can be poured into the ball return pipe.

[0016] Furthermore, a cup cavity for accommodating a float is provided in the ball support cup, pins are provided on both sides of the ball support cup, and the pins on both sides are connected to the ball support seat, and a first pressure rod and a second pressure rod are respectively installed at the lower end of the ball support cup, a first pressure wheel is installed on the first pressure rod, and a second pressure wheel is installed on the second pressure rod, the first pressure rod and the second pressure rod are not on the axis, and the first pressure rod and the second pressure rod are staggered front and back. The ball support cup top pressure piece includes a first pressure frame and a second pressure frame, the first pressure frame corresponds to the first pressure wheel, and the second pressure frame corresponds to the second pressure wheel, the first pressure frame and the second pressure frame both include a frame body installed at the lower end of the wheel frame, and an inclined surface is installed on the upper end of the frame body, and the inclined surface faces the rotation direction of the wheel body.

[0017] After adopting the above-mentioned further structure, the ball support cup can swing in the ball support seat through the pin shaft. When the wheel body rotates, the first pressure wheel first presses against the inclined surface on the first pressing frame, causing the ball support cup to tilt. At this time, the ball support cup continues to rotate driven by the wheel body until the second pressure wheel presses against the inclined surface on the second pressing frame, causing the ball support cup to completely swing to the tilted state, pouring the float into the ball return tube, thereby performing a cycle.

[0018] Furthermore, the gravity circulation unit includes two groups of left-right symmetrical chain transmission devices, and a float falling area is formed between the two groups of chain transmission devices. The upper end of the float falling area corresponds to the outlet of the ball outlet pipe, and the lower end corresponds to the inlet of the ball return pipe. The two groups of chain transmission devices include an upper transmission shaft and a lower transmission shaft. The first transmission gear plate is installed at both ends of the upper transmission shaft, and the second transmission gear plate is installed at both ends of the lower transmission shaft. The first transmission gear plate and the second transmission gear plate on the same side are connected by a transmission chain, and a plurality of arc ball seats are installed between the transmission chains on both sides so that the plurality of arc ball seats can circulate in the float falling area. The second transmission gear plate is meshed with the third transmission gear plate, and the generator is meshed with the third transmission gear plate. The volume of the plurality of arc ball seats is one-fourth of the sphere.

[0019] After adopting the above-mentioned further structure, after multiple arc-shaped ball seats enter the floating ball falling area, the left-right symmetrical arc-shaped ball seats can be combined into a hemispherical seat to support the floating ball. Under the dead weight of the floating ball, the hemispherical seat falls in the floating ball falling area and drives the transmission chain to run. At the same time, the third transmission gear plate is driven to rotate through the second transmission gear plate, so that the generator is driven to generate electricity through the third transmission gear plate, and the power generation efficiency is high.

[0020] Furthermore, a ball seat guide rail is arranged between the upper transmission shaft and the lower transmission shaft, a guide groove is arranged inside the ball seat guide rail, and a plurality of arc-shaped ball seat guides are arranged in the guide groove.

[0021] After adopting the above-mentioned further structure, the multiple arc-shaped ball seats are guided by the guide grooves, so that the multiple arc-shaped ball seats are more stable when moving and smoother at the corners.

[0022] Furthermore, fixing ears connected to the transmission chain are provided on both sides of the outer walls of the plurality of arc-shaped ball seats, a guide seat installed on the outer wall of the arc-shaped ball seat is provided between the fixing ears on both sides, one side of the guide seat is hinged with an angle adjustment seat through a hinge shaft, guide wheels are provided at both ends of the guide seat and the angle adjustment seat, and the guide wheels are located in the guide groove.

[0023] After adopting the above-mentioned further structure, the arc-shaped ball seat can be fixed between the transmission chains on both sides through the fixing ears, so that the transmission chain can be driven to run under the deadweight of the float, and the guide wheel moves in the guide groove, so that the movement of the arc-shaped ball seat is smoother. At the same time, with the cooperation of the angle adjustment seat, the angle can be automatically fine-tuned at the corner to prevent the phenomenon of track jamming caused by abrupt movements when turning.

[0024] Furthermore, adjustment plates are installed at both ends of the angle adjustment seat, and strip holes are opened on the adjustment plates. The adjustment plates at both ends are clamped at the two ends of the guide seat, and limit pins are passed through the strip holes. The limit pins are fixedly connected to the guide seat so that the limit pins can move in the strip holes.

[0025] After adopting the above-mentioned further structure, the adjustment plate can make fine adjustments between the angle adjustment seat and the guide seat under the action of the strip hole. When turning, the angle adjustment seat and the guide seat can swing relative to each other, so as to pass through the turn smoothly.

[0026] Furthermore, the gravity circulation unit includes a telescopic wheel frame device, the telescopic wheel frame device includes a wheel disc, a plurality of ball brackets are evenly opened on the outer circumference of the wheel disc, a retractable shield is arranged in the plurality of ball brackets, slide rails are arranged on both sides of the inner wall of the ball bracket, slide grooves are opened on the sides of the slide rails, wheel axles are arranged on both sides of the shield, a pulley located in the slide groove is arranged on the wheel axle, a hydraulic cylinder is arranged at one end of the shield, a generator is installed on one side of the center of the wheel disc, and an oil distribution plate module is installed on the other side, and the oil distribution plate module is respectively connected to the oil supply hydraulic station and a plurality of hydraulic cylinders.

[0027] After adopting the above-mentioned further structure, the float is discharged from the ball outlet pipe and falls into the ball bracket. The gravity of the float drives the wheel to rotate, so that the generator generates electricity. Multiple floats continuously enter multiple ball brackets, so that the generator generates electricity uninterruptedly. The energy consumption is lower than that of the traditional one, the efficiency is high, and the cost is saved. After the float enters the ball bracket located above, the baffle can be driven by the hydraulic cylinder so that the baffle can close the ball bracket to prevent the float from falling off when the wheel rotates. After the float rotates to the bottom through the wheel, the baffle opens the ball bracket by telescopic means, so that the float can be detached and poured into the ball return pipe. The whole process can further stabilize the position of the float and improve the efficiency of power generation, and the pulley can further improve the smoothness of the baffle when it is telescoped.

[0028] Furthermore, the oil separation plate module includes an oil separation plate and a connecting plate, the oil separation plate rotates synchronously with the wheel plate, and a plurality of first connecting holes and a second connecting hole are opened on the side of the oil separation plate facing the connecting plate, and a plurality of oil inlet holes and oil outlet holes are opened on the outer circumference of the oil separation plate, the oil inlet holes are respectively connected with the first connecting holes and the oil pressure cylinder, and the oil outlet holes are respectively connected with the second connecting holes and the oil pressure cylinder, and the connecting plate is a non-rotating plate, and two groups of oil port parts are arranged on the connecting plate, and the two groups of oil port parts include a first arc groove and a second arc groove, a third connecting hole connected to the oil supply hydraulic station is opened in the first arc groove, and a fourth connecting hole connected to the oil supply hydraulic station is opened in the second arc groove, the first arc groove corresponds to the second connecting hole, and the second arc groove corresponds to the first connecting hole.

[0029] After adopting the above-mentioned further structure, when the oil distribution plate rotates synchronously with the wheel plate, each group of first connecting holes and second connecting holes also follows the position change, so that the first connecting holes and the second connecting holes correspond to the two groups of oil port parts respectively, thereby realizing the oil supply or oil return of the hydraulic cylinder at the corresponding position, so that the baffle cover can be extended and retracted at the corresponding position. BRIEF DESCRIPTION OF THE DRAWINGS

[0030] Figure 1 It is a schematic diagram of the three-dimensional structure of the buoyancy power generation system according to the first embodiment of the present invention.

[0031] Figure 2 It is a schematic diagram of the three-dimensional structure of the water pipe and the intercepting unit according to the first embodiment of the present invention.

[0032] Figure 3 It is a schematic diagram of the three-dimensional structure of the ball pushing unit of the present invention.

[0033] Figure 4 It is a schematic diagram of the three-dimensional structure of the chain transmission device of the first embodiment of the present invention.

[0034] Figure 5 for Figure 4Schematic diagram of the enlarged structure at point A in the middle.

[0035] Figure 6 It is a schematic diagram of the connection structure between the arc-shaped ball seat and the transmission chain according to the first embodiment of the present invention.

[0036] Figure 7 This is one of the three-dimensional structural schematic diagrams of the buoyancy power generation system according to the second embodiment of the present invention.

[0037] Figure 8 This is a second schematic diagram of the three-dimensional structure of the buoyancy power generation system according to the second embodiment of the present invention.

[0038] Fig. 9 It is a schematic diagram of the three-dimensional structure of the water pipe and the intercepting unit of the second embodiment of the present invention.

[0039] Fig.10 It is a schematic diagram of the three-dimensional structure of the wheel circulation device of the second embodiment of the present invention.

[0040] Fig.11 for Fig.10 Schematic diagram of the enlarged structure at B in the middle.

[0041] Fig.12 It is a schematic diagram of the three-dimensional structure of the ball support cup according to the second embodiment of the present invention.

[0042] Fig.13 It is a schematic diagram of the three-dimensional structure of embodiment 3 of the present invention.

[0043] Fig.14 This is one of the three-dimensional structural schematic diagrams of the telescopic wheel frame device of the third embodiment of the present invention.

[0044] Fig.15 This is the second schematic diagram of the three-dimensional structure of the telescopic wheel frame device of the third embodiment of the present invention.

[0045] Fig.16 It is a schematic diagram of the three-dimensional structure of the baffle cover according to the third embodiment of the present invention.

[0046] Fig.17 It is a schematic diagram of the three-dimensional structure of the oil separation plate of the third embodiment of the present invention.

[0047] Fig.18 It is a schematic diagram of the three-dimensional structure of the interconnecting disk according to the third embodiment of the present invention.

[0048] In the figure: water pipe 1, connecting pipe 2, two-way water pump 3, water tank 4, circulating water return pipe 5, ball return pipe 6, first gate valve switch 7, second gate valve switch 8, third gate valve switch 9, ball push unit 10, ball outlet pipe 11, water supply pump 12, water supply pipe 13, wheel body circulation device 14, wheel frame 15, wheel body 16, ball holder seat 17, ball holder cup 18, generator 19, pin 20, first pressure rod 21, first pressure wheel 22, second pressure rod 23, second pressure wheel 24, frame 25, inclined surface 26, opening 27, thrust hydraulic cylinder 28, top hydraulic cylinder 29, arc ball holder 30, intercepting pipe 31, chain transmission device 32, second transmission gear plate 33, third transmission gear plate 34, upper transmission shaft 35 , the first transmission gear plate 36, the transmission chain 37, the ball seat guide rail 38, the guide groove 39, the arc ball seat 40, the float 41, the fixing ear 42, the guide seat 43, the hinge shaft 44, the angle adjustment seat 45, the guide wheel 46, the adjustment plate 47, the strip hole 48, the limit pin 49, the telescopic wheel frame device 50, the wheel plate 51, the ball bracket groove 52, the baffle 53, the oil distribution plate module 54, the slide rail 55, the slide groove 56, the wheel axle 57, the pulley 58, the hydraulic cylinder 59, the oil distribution plate 60, the first connecting hole 61, the second connecting hole 62, the oil inlet hole 63, the oil outlet hole 64, the connecting plate 65, the first arc groove 66, the third connecting hole 67, the second arc groove 68, the fourth connecting hole 69, and the oil supply hydraulic station 70. DETAILED DESCRIPTION

[0049] Embodiment 1 Combination Figures 1 to 6A Ferris wheel rotating cycle gravity power generation system is shown, comprising: a water pipe 1, a ball pushing unit 10 and a generator 12, a flow intercepting and returning ball unit is arranged at the lower end of the water pipe 1, a ball outlet pipe 11 is arranged at one side of the upper end of the water pipe 1, a water tank 4 is arranged at one side of the flow intercepting and returning ball unit, and a ball return pipe 6 for recovering a floating ball 41 is arranged obliquely at the other side, so that the flow intercepting and returning ball unit intercepts the liquid in the water pipe 1 and recovers the liquid into the water tank 4, and a third gate valve switch 9 is arranged between the flow intercepting and returning ball unit and the ball return pipe 6; The ball pushing unit 10 is installed on one side of the upper end of the water pipe 1 to push the float 41 into the ball outlet pipe 11; the gravity circulation unit is located on one side of the water pipe 1, and the gravity circulation unit includes a plurality of ball holder modules, and the plurality of ball holder modules are cyclically rotated and arranged between the ball outlet pipe 11 and the ball return pipe 6, so that the ball holder module can receive the float 41 falling from the ball outlet pipe 11, and drive the plurality of ball holder modules to cyclically rotate under the gravity of the float 41, and drop the float 41 into the ball return pipe 6; the generator 12 is connected to the gravity circulation unit. In this embodiment, after the float 41 enters the ball return pipe 6, the water pipe 1 can be intercepted by the interception ball return unit 2, and the water in the interception ball return unit is recovered into the water tank 4, so that the liquid level in the interception ball return unit is reduced, and then the third gate valve switch 9 is opened to prevent the liquid from leaking out from the ball return pipe 6, and at the same time, the float 41 is allowed to enter the interception ball return unit, and then the third gate valve switch 9 is closed, and the channel between the interception ball return unit and the water pipe 1 is opened, and finally the water in the water tank 4 is discharged and enters the water pipe 1 to restore the liquid level of the water pipe 1, so that the float 41 can further rise by buoyancy, and the float 41 can enter the ball outlet pipe 11 under the push of the ball pusher unit 10, so as to improve the circulation stability of the float 41, so that the float 41 in the ball outlet pipe 11 falls into the gravity circulation unit, thereby realizing the cyclic rotation of the ball support module to drive the generator 12 to generate electricity, and the entire float recovery cycle process can prevent liquid leakage, make the power generation system more stable, and prevent power generation failure due to liquid leakage.

[0050] The intercepting and ball-returning unit of this embodiment includes an intercepting pipe 31 coaxially arranged with the water pipe 1, a first gate valve switch 7 is arranged between the water pipe 1 and the intercepting pipe 31, a connecting pipe 2 is arranged on the side of the intercepting pipe 31 close to the water tank 4, the connecting pipe 2 is connected to the water tank 4 through the second gate valve switch 8 and the two-way water pump 3, and the other side of the intercepting pipe 31 is connected to the ball-returning pipe 6 through the third gate valve switch 9. Before the float 41 falls into the ball return pipe 6, the second gate valve switch 8 and the third gate valve switch 9 are in the closed state. After the float 41 enters the ball return pipe 6, the first gate valve switch 7 is closed to intercept the flow, and the second gate valve switch 8 is opened. The two-way water pump 3 pumps the liquid in the interception pipe 31 into the water tank 4, so that the liquid level is lower than the ball return pipe 6, and then the third gate valve switch 9 is opened to allow the float 41 to enter the interception pipe 31. At this time, the third gate valve switch 9 is closed, and the two-way water pump 3 discharges the liquid in the water tank 4 into the interception pipe 31. At this time, the first gate valve switch 7 can be opened until the liquid in the water tank 4 is discharged, and the second gate valve switch 8 is closed. This cycle is repeated to ensure that the liquid cannot leak out from the ball return pipe 9.

[0051] The ball pushing unit 10 of this embodiment includes a box body, the part of the water pipe 1 located in the box body is provided with an opening 27, the inlet end of the ball outlet pipe 11 is located in the opening 27, a jacking hydraulic cylinder 29 is arranged in the box body, the cylinder body of the jacking hydraulic cylinder 29 is hinged in the lower end of the box body, an arc ball holder 30 is hinged on the hydraulic shaft of the jacking hydraulic cylinder 29, a thrust hydraulic cylinder 28 hinged in the box body is arranged on one side of the jacking hydraulic cylinder 29, and the hydraulic shaft of the thrust hydraulic cylinder 28 and the cylinder body of the jacking hydraulic cylinder 29 are hinged to each other. When the floating ball 41 floats up to the opening 27, the thrust hydraulic cylinder 28 pushes the jacking hydraulic cylinder 29 to swing toward the ball outlet pipe 5, and the jacking hydraulic cylinder 29 drives the arc ball holder 30 to push and lift the floating ball 41 upward, so that the floating ball 41 falls into the ball outlet pipe 11, and the structure is simple, so as to ensure that each floating floating ball 41 can enter the ball outlet pipe 11, prevent accumulation, and ensure the circulation of the floating ball 41.

[0052] The gravity circulation unit of this embodiment includes two groups of left-right symmetrical chain transmission devices 32, and a floating ball falling area is formed between the two groups of chain transmission devices 32. The upper end of the floating ball falling area corresponds to the outlet of the ball outlet pipe 11, and the lower end corresponds to the inlet end of the ball return pipe 6. The two groups of chain transmission devices 32 both include an upper transmission shaft 35 and a lower transmission shaft. Both ends of the upper transmission shaft 35 are equipped with a first transmission gear plate 36, and both ends of the lower transmission shaft are equipped with a second transmission gear plate 33. The first transmission gear plate 36 and the second transmission gear plate 33 on the same side are connected by a transmission chain 37. A plurality of arc ball seats 40 are installed between the transmission chains 37 on both sides so that the plurality of arc ball seats 40 can circulate in the floating ball falling area. The second transmission gear plate 33 is meshedly connected with the third transmission gear plate 34, and the generator 29 is meshed with the third transmission gear plate 34. The volume of the plurality of arc ball seats 40 is one-fourth of the sphere. After multiple arc-shaped ball seats 40 enter the floating ball falling area, the left-right symmetrical arc-shaped ball seats 40 can be combined into a hemispherical seat to support the floating ball 41. Under the dead weight of the floating ball 41, the hemispherical seat falls in the floating ball falling area and drives the transmission chain 37 to run. At the same time, the third transmission gear plate 34 is driven to rotate through the second transmission gear plate 33, so that the generator 29 is driven to generate electricity through the third transmission gear plate 34, and the power generation efficiency is high.

[0053] In this embodiment, a ball seat guide rail 38 is arranged between the upper transmission shaft 35 and the lower transmission shaft, and a guide groove 39 is arranged inside the ball seat guide rail 38. A plurality of arc-shaped ball seats 40 are guided and arranged in the guide groove 39. The plurality of arc-shaped ball seats 40 are guided by the guide groove 39, so that the plurality of arc-shaped ball seats 40 are more stable when moving and are smoother at the corners.

[0054] In this embodiment, both sides of the outer wall of the plurality of arc-shaped ball seats 40 are provided with fixing ears 42 connected to the transmission chain 37, and a guide seat 43 installed on the outer wall of the arc-shaped ball seat 40 is provided between the fixing ears 42 on both sides, and an angle adjustment seat 45 is hingedly connected to one side of the guide seat 43 through a hinge shaft 44. Both ends of the guide seat 43 and the angle adjustment seat 45 are provided with guide wheels 46, and the guide wheels 46 are located in the guide groove 39. The arc-shaped ball seat 40 can be fixed between the transmission chains 37 on both sides through the fixing ears 42, so that the transmission chain 37 is driven to run under the dead weight of the floating ball 41, and the guide wheel 46 moves in the guide groove 39, so that the arc-shaped ball seat 40 moves more smoothly, and at the same time, with the cooperation of the angle adjustment seat 45, the angle can be automatically fine-tuned at the corner to prevent the phenomenon of stiff movement and track jamming when turning.

[0055] The angle adjustment seat 45 of this embodiment is provided with adjustment pieces 47 at both ends, and strip holes 48 are provided on the adjustment pieces 47. The adjustment pieces 47 at both ends are clamped at both ends of the guide seat 43. Limit pins 49 are inserted into the strip holes 48, and the limit pins 49 are fixedly connected to the guide seat 43 so that the limit pins 49 can move in the strip holes 48. The adjustment pieces 47 can make a fine adjustment between the angle adjustment seat 45 and the guide seat 43 under the action of the strip holes 48, and when turning, the angle adjustment seat 45 and the guide seat 43 can swing relative to each other, so as to pass through the turning smoothly.

[0056] Embodiment 2 Combination Figure 3 , Figures 7 to 12 The Ferris wheel rotating cycle gravity power generation system shown in the figure comprises: a water pipe 1, a ball pushing unit 10, a gravity circulation unit and a generator 12, a intercepting ball return unit is arranged at the lower end of the water pipe 1, a ball outlet pipe 11 is arranged at one side of the upper end of the water pipe 1, a water tank 4 is arranged at one side of the intercepting ball return unit, and a ball return pipe 6 for recovering a floating ball 41 is arranged obliquely at the other side, so that the intercepting ball return unit intercepts the liquid in the water pipe 1 and recovers the liquid into the water tank 4, and a third gate valve is arranged between the intercepting ball return unit and the ball return pipe 6. Switch 9; the ball pushing unit 10 is installed on one side of the upper end of the water pipe 1 to push the float 41 into the ball outlet pipe 11; the gravity circulation unit is located on one side of the water pipe 1, and the gravity circulation unit includes a plurality of ball holder modules, and the plurality of ball holder modules are cyclically rotated and arranged between the ball outlet pipe 11 and the ball return pipe 6, so that the ball holder module receives the float 41 dropped from the ball outlet pipe 11, and drives the plurality of ball holder modules to cyclically rotate under the gravity of the float 41, and drops the float 41 into the ball return pipe 6; the generator 12 is connected to the gravity circulation unit. In this embodiment, after the float 41 enters the ball return pipe 6, the water pipe 1 can be intercepted by the interception ball return unit 2, and the water in the interception ball return unit is recovered into the water tank 4, so that the liquid level in the interception ball return unit is reduced, and then the third gate valve switch 9 is opened to prevent the liquid from leaking out from the ball return pipe 6, and at the same time, the float 41 is allowed to enter the interception ball return unit, and then the third gate valve switch 9 is closed, and the channel between the interception ball return unit and the water pipe 1 is opened, and finally the water in the water tank 4 is discharged and enters the water pipe 1 to restore the liquid level of the water pipe 1, so that the float 41 can further rise through buoyancy, and the float 41 can enter the ball outlet pipe 11 under the push of the ball pushing unit 10, thereby improving the circulation stability of the float 41, so that the float 41 in the ball outlet pipe 11 falls into the gravity circulation unit, thereby realizing the cyclic rotation of the ball support module to drive the generator 12 to generate electricity, and the entire float recovery cycle process can prevent liquid leakage, make the power generation system more stable, and prevent power generation failure due to liquid leakage.

[0057] The intercepting and ball-returning unit comprises an intercepting pipe 31 coaxially arranged with the water pipe 1, a first gate valve switch 7 is arranged between the water pipe 1 and the intercepting pipe 31, a connecting pipe 2 is arranged on the side of the intercepting pipe 31 close to the water tank 4, the connecting pipe 2 is connected to the water tank 4 through the second gate valve switch 8 and the two-way water pump 3, and the other side of the intercepting pipe 31 is connected to the ball-returning pipe 6 through the third gate valve switch 9. Before the float 41 falls into the ball return pipe 6, the second gate valve switch 8 and the third gate valve switch 9 are in the closed state. After the float 41 enters the ball return pipe 6, the first gate valve switch 7 is closed to intercept the flow, and the second gate valve switch 8 is opened. The two-way water pump 3 pumps the liquid in the interception pipe 31 into the water tank 4, so that the liquid level is lower than the ball return pipe 6, and then the third gate valve switch 9 is opened to allow the float 41 to enter the interception pipe 31. At this time, the third gate valve switch 9 is closed, and the two-way water pump 3 discharges the liquid in the water tank 4 into the interception pipe 31. At this time, the first gate valve switch 7 can be opened until the liquid in the water tank 4 is discharged, and the second gate valve switch 8 is closed. This cycle is repeated to ensure that the liquid cannot leak out from the ball return pipe 9.

[0058] Among them, it is particularly noted that a water supply pipe 13 is connected to the water tank 4 of this embodiment, which is different from the first embodiment. A water supply pump 12 is installed on the water supply pipe 13, and a circulating return pipe 5 is also connected to one side of the water tank 4, and the other end of the circulating return pipe 5 is connected to one end of the ball return pipe 6. Since the float 41 will also take away liquid during the circulation process, the external water source or the upper end of the water pipe 1 can be connected through the water supply pipe 13, and the water tank 4 can be replenished with water through the circulating return pipe 5 to prevent the float 41 from being unable to circulate due to the low water level of the interception. Moreover, after the first gate valve switch 7 is closed to intercept, the two-way water pump 3 can suck liquid into the water tank 4, and the liquid can directly rush to the return ball pipe 6 through the circulating return pipe 5, and the height of the return ball pipe 6 is higher than the height of the water tank 4, so that the liquid can bring the float 41 entering the return ball pipe 6 to the third gate valve switch 9 to prevent the ball from getting stuck, so that the float 41 can be brought into the interception pipe 31 after the third gate valve switch 9 is opened. At the same time, after the second gate valve switch 8 is opened, when the two-way water pump 3 discharges the liquid in the water tank 4 to the interception pipe 31, the float 41 can also be rushed into the interception pipe 31, so that the float 41 floats in the interception pipe 31.

[0059] The ball pushing unit 10 includes a box body, the part of the water pipe 1 located in the box body is provided with an opening 27, the inlet end of the ball outlet pipe 11 is located in the opening 27, a jacking hydraulic cylinder 29 is arranged in the box body, the cylinder body of the jacking hydraulic cylinder 29 is hinged at the lower end of the box body, an arc ball holder 30 is hinged on the hydraulic shaft of the jacking hydraulic cylinder 29, a thrust hydraulic cylinder 28 hinged in the box body is arranged on one side of the jacking hydraulic cylinder 29, and the hydraulic shaft of the thrust hydraulic cylinder 28 and the cylinder body of the jacking hydraulic cylinder 29 are hinged to each other. When the floating ball 41 floats up to the opening 27, the thrust hydraulic cylinder 28 pushes the jacking hydraulic cylinder 29 to swing toward the ball outlet pipe 5, and the jacking hydraulic cylinder 29 drives the arc ball holder 30 to push and lift the floating ball 41 upward, so that the floating ball 41 falls into the ball outlet pipe 11, and the structure is simple to ensure that each floating floating ball 41 can enter the ball outlet pipe 11 to prevent accumulation, so as to ensure the circulation of the floating ball 41.

[0060] Another difference between the second embodiment and the first embodiment is that the gravity circulation unit includes a wheel body circulation device 14, the wheel body circulation device 14 includes a wheel body 16, the wheel body 16 is mounted on the wheel frame 15 through a rotating shaft, a generator 19 is installed at the center of the wheel body 16, a plurality of ball holders 17 are evenly arranged along the circumferential direction of the wheel body 16, a plurality of ball holders 17 are mounted with swingable ball holder cups 18, and a ball holder cup top pressure piece is arranged on one side below the wheel frame 15, so that during the rotation of the wheel body 16, the ball holder cup 18 is swung by the top pressure of the ball holder cup top pressure piece. The float 41 is discharged from the ball outlet pipe 11 and falls onto the ball holder 17. The gravity of the float 41 drives the wheel body 16 to rotate, so that the generator 19 generates electricity. Multiple floats 41 continuously enter multiple ball holders 17, so that the generator 19 generates electricity uninterruptedly. The energy consumption is lower than that of the traditional one, the efficiency is high, and the cost is saved. During the falling process, the float 41 presses against the ball holder cup 18 against the ball holder cup pressing piece below, so that the ball holder cup 18 can be tilted, so that the float 41 can be poured into the ball return pipe 6.

[0061] The ball support cup 18 of this embodiment is provided with a cup cavity that can accommodate the floating ball 41, and pins 20 are provided on both sides of the ball support cup 18, and the pins 20 on both sides are connected to the ball support seat 17, and the lower end of the ball support cup 18 is respectively installed with a first pressure rod 21 and a second pressure rod 23, and the first pressure rod 21 is installed with a first pressure wheel 22, and the second pressure wheel 24 is installed on the second pressure rod 23. The first pressure rod 21 and the second pressure rod 23 are not on the axis, and the first pressure rod 21 and the second pressure rod 23 are staggered front and back. The ball support cup top pressure piece includes a first top pressure frame and a second top pressure frame, the first top pressure frame corresponds to the first pressure wheel 22, and the second top pressure frame corresponds to the second pressure wheel 24, and the first top pressure frame and the second top pressure frame both include a frame body 25 installed at the lower end of the wheel frame 15, and the upper end of the frame body 25 is installed with an inclined surface 26, and the inclined surface 26 faces the rotation direction of the wheel body 16. The ball support cup 18 can swing in the ball support seat 17 through the pin shaft 20. When the wheel body 16 rotates, the first pressure wheel 22 first presses against the inclined surface 26 on the first pressing frame, causing the ball support cup 18 to tilt. At this time, the ball support cup 18 continues to rotate driven by the wheel body 16 until the second pressure wheel 24 presses against the inclined surface on the second pressing frame, causing the ball support cup 18 to completely swing to the tipping state, and pour the float 41 into the ball return tube 6, thereby performing a cycle.

[0062] Embodiment 3 Combination Figure 2 , Figure 3 , Figures 13 to 18A Ferris wheel rotating cycle gravity power generation system is shown, comprising: a water pipe 1, a ball pushing unit 10 and a generator 12, a flow intercepting and returning ball unit is arranged at the lower end of the water pipe 1, a ball outlet pipe 11 is arranged at one side of the upper end of the water pipe 1, a water tank 4 is arranged at one side of the flow intercepting and returning ball unit, and a ball return pipe 6 for recovering a floating ball 41 is arranged obliquely at the other side, so that the flow intercepting and returning ball unit intercepts the liquid in the water pipe 1 and recovers the liquid into the water tank 4, and a third gate valve switch 9 is arranged between the flow intercepting and returning ball unit and the ball return pipe 6; The ball pushing unit 10 is installed on one side of the upper end of the water pipe 1 to push the float 41 into the ball outlet pipe 11; the gravity circulation unit is located on one side of the water pipe 1, and the gravity circulation unit includes a plurality of ball holder modules, and the plurality of ball holder modules are cyclically rotated and arranged between the ball outlet pipe 11 and the ball return pipe 6, so that the ball holder module can receive the float 41 falling from the ball outlet pipe 11, and drive the plurality of ball holder modules to cyclically rotate under the gravity of the float 41, and drop the float 41 into the ball return pipe 6; the generator 12 is connected to the gravity circulation unit. In this embodiment, after the float 41 enters the ball return pipe 6, the water pipe 1 can be intercepted by the interception ball return unit 2, and the water in the interception ball return unit is recovered into the water tank 4, so that the liquid level in the interception ball return unit is reduced, and then the third gate valve switch 9 is opened to prevent the liquid from leaking out from the ball return pipe 6, and at the same time, the float 41 is allowed to enter the interception ball return unit, and then the third gate valve switch 9 is closed, and the channel between the interception ball return unit and the water pipe 1 is opened, and finally the water in the water tank 4 is discharged and enters the water pipe 1 to restore the liquid level of the water pipe 1, so that the float 41 can further rise by buoyancy, and the float 41 can enter the ball outlet pipe 11 under the push of the ball pusher unit 10, so as to improve the circulation stability of the float 41, so that the float 41 in the ball outlet pipe 11 falls into the gravity circulation unit, thereby realizing the cyclic rotation of the ball support module to drive the generator 12 to generate electricity, and the entire float recovery cycle process can prevent liquid leakage, make the power generation system more stable, and prevent power generation failure due to liquid leakage.

[0063] The intercepting and ball-returning unit of this embodiment includes an intercepting pipe 31 coaxially arranged with the water pipe 1, a first gate valve switch 7 is arranged between the water pipe 1 and the intercepting pipe 31, a connecting pipe 2 is arranged on the side of the intercepting pipe 31 close to the water tank 4, the connecting pipe 2 is connected to the water tank 4 through the second gate valve switch 8 and the two-way water pump 3, and the other side of the intercepting pipe 31 is connected to the ball-returning pipe 6 through the third gate valve switch 9. Before the float 41 falls into the ball return pipe 6, the second gate valve switch 8 and the third gate valve switch 9 are in the closed state. After the float 41 enters the ball return pipe 6, the first gate valve switch 7 is closed to intercept the flow, and the second gate valve switch 8 is opened. The two-way water pump 3 pumps the liquid in the interception pipe 31 into the water tank 4, so that the liquid level is lower than the ball return pipe 6, and then the third gate valve switch 9 is opened to allow the float 41 to enter the interception pipe 31. At this time, the third gate valve switch 9 is closed, and the two-way water pump 3 discharges the liquid in the water tank 4 into the interception pipe 31. At this time, the first gate valve switch 7 can be opened until the liquid in the water tank 4 is discharged, and the second gate valve switch 8 is closed. This cycle is repeated to ensure that the liquid cannot leak out from the ball return pipe 9.

[0064] The ball pushing unit 10 of this embodiment includes a box body, the part of the water pipe 1 located in the box body is provided with an opening 27, the inlet end of the ball outlet pipe 11 is located in the opening 27, a jacking hydraulic cylinder 29 is arranged in the box body, the cylinder body of the jacking hydraulic cylinder 29 is hinged in the lower end of the box body, an arc ball holder 30 is hinged on the hydraulic shaft of the jacking hydraulic cylinder 29, a thrust hydraulic cylinder 28 hinged in the box body is arranged on one side of the jacking hydraulic cylinder 29, and the hydraulic shaft of the thrust hydraulic cylinder 28 and the cylinder body of the jacking hydraulic cylinder 29 are hinged to each other. When the floating ball 41 floats up to the opening 27, the thrust hydraulic cylinder 28 pushes the jacking hydraulic cylinder 29 to swing toward the ball outlet pipe 5, and the jacking hydraulic cylinder 29 drives the arc ball holder 30 to push and lift the floating ball 41 upward, so that the floating ball 41 falls into the ball outlet pipe 11, and the structure is simple, so as to ensure that each floating floating ball 41 can enter the ball outlet pipe 11, prevent accumulation, and ensure the circulation of the floating ball 41.

[0065] The difference between the third embodiment and the first embodiment is that the gravity circulation unit of the present embodiment includes a telescopic wheel frame device 50, and the telescopic wheel frame device 50 includes a wheel disc 51, and a plurality of ball brackets 52 are evenly provided on the outer circumference of the wheel disc 51, and a retractable shield 53 is arranged in the plurality of ball brackets 52, and slide rails 55 are arranged on both sides of the inner wall of the ball bracket 52, and slide grooves 56 are arranged on the sides of the slide rails 55, and wheel axles 57 are arranged on both sides of the shield 53, and pulleys 58 located in the slide grooves 56 are arranged on the wheel axles 57, and a hydraulic cylinder 59 is arranged at one end of the shield 53, and a generator 19 is installed on one side of the center of the wheel disc 51, and an oil distribution plate module 54 is installed on the other side, and the oil distribution plate module 54 is respectively connected to the oil supply hydraulic station 70 and the plurality of hydraulic cylinders 59; the floating ball 41 is discharged from the ball outlet pipe 11 and falls into the ball bracket 52, and the floating ball The gravity of 41 drives the wheel disc 51 to rotate, so that the generator 19 generates electricity, and the multiple floats 41 continuously enter the multiple ball brackets 52, so that the generator 19 generates electricity uninterruptedly. The energy consumption is lower than that of the traditional one, the efficiency is high, and the cost is saved. After the float 41 enters the ball bracket 52 located above, the baffle 53 can be driven by the hydraulic cylinder 59, so that the baffle 53 can close the ball bracket 52 to prevent the float 41 from falling off when the wheel disc 51 rotates. After the float 41 rotates to the bottom through the wheel disc 51, the baffle 53 opens the ball bracket 52 by telescopic means, so that the float 41 can be detached and poured into the ball return tube 6. The whole process can further stabilize the position of the float 41 and improve the efficiency of power generation, and the pulley 58 can further improve the smoothness of the baffle 53 when it is telescopic.

[0066] Furthermore, the oil distribution plate module 54 includes an oil distribution plate 60 and a connecting plate 65. The oil distribution plate 60 rotates synchronously with the wheel plate 51. A plurality of first connecting holes 61 and a second connecting hole 62 are provided on the side of the oil distribution plate 60 facing the connecting plate 65. A plurality of oil inlet holes 63 and an oil outlet hole 64 are provided on the outer circumference of the oil distribution plate 60. The oil inlet holes 63 are respectively connected to the first connecting holes 61 and the oil pressure cylinder 59, and the oil outlet holes 64 are respectively connected to the second connecting holes 62 and the oil pressure cylinder 59. The connecting plate 65 is a non-rotating plate. Two groups of oil port parts are provided on the connecting plate 65. Both groups of oil port parts include a first arc groove 66 and a second arc groove 68. The first arc groove 66 is a first arc groove 68. A third connecting hole 67 connected to the oil supply hydraulic station 70 is provided in the groove 66, and a fourth connecting hole 69 connected to the oil supply hydraulic station 70 is provided in the second arc-shaped groove 68. The first arc-shaped groove 66 corresponds to the second connecting hole 62, and the second arc-shaped groove 68 corresponds to the first connecting hole 61. When the oil distribution plate 60 rotates synchronously with the wheel plate 51, each group of the first connecting holes 61 and the second connecting holes 62 also follows the position change, so that the first connecting holes 61 and the second connecting holes 62 correspond to the two groups of oil ports respectively, thereby realizing the oil supply or oil return of the oil hydraulic cylinder 59 at the corresponding position, so that the baffle 53 can be extended and retracted at the corresponding position.

[0067] It is also worth mentioning that the float 41 in the present invention includes an iron ball, and at least two layers of air bag layers are arranged on the outside of the iron ball. The air bag layers are used to ensure that the float 41 has a certain buoyancy. At the same time, the float 41 has a certain weight due to the gravity of the iron ball itself, so as to ensure the operation of the gravity circulation unit.

[0068] The embodiments of the present invention are described in detail above with reference to the accompanying drawings, but the present invention is not limited to the described embodiments. For those skilled in the art, various changes, modifications, substitutions and variations of these embodiments are made without departing from the principles and spirit of the present invention, and still fall within the scope of protection of the present invention.

Claims

1. A Ferris wheel rotating cycle gravity power generation system, characterized in that: include: A water pipe (1), wherein a flow intercepting and returning ball unit is arranged at the lower end of the water pipe (1), a ball outlet pipe (11) is arranged at one side of the upper end of the water pipe (1), a water tank (4) is arranged at one side of the flow intercepting and returning ball unit, and a ball return pipe (6) for recovering a floating ball (41) is arranged obliquely at the other side, so that the flow intercepting and returning ball unit intercepts liquid in the water pipe (1) and recovers the liquid into the water tank (4), and a third gate valve switch (9) is arranged between the flow intercepting and returning ball unit and the ball return pipe (6); A ball pushing unit (10) is installed on one side of the upper end of the water pipe (1) to push the floating ball (41) into the ball outlet pipe (11); A gravity circulation unit, which is located on one side of the water pipe (1), and comprises a plurality of ball holder modules, which are cyclically rotatably arranged between the ball outlet pipe (11) and the ball return pipe (6), so that the ball holder modules receive the floating ball (41) dropped from the ball outlet pipe (11), and drive the plurality of ball holder modules to cyclically rotate under the gravity of the floating ball (41), and drop the floating ball (41) into the ball return pipe (6); A generator (12) is connected to the gravity circulation unit.

2. The Ferris wheel rotating cycle gravity power generation system according to claim 1, characterized in that: The intercepting and ball-returning unit comprises an intercepting pipe (31) coaxially arranged with the water pipe (1); a first gate valve switch (7) is arranged between the water pipe (1) and the intercepting pipe (31); a connecting pipe (2) is arranged on a side of the intercepting pipe (31) close to the water tank (4); the connecting pipe (2) and the water tank (4) are connected via a second gate valve switch (8) and a two-way water pump (3); and the other side of the intercepting pipe (31) is connected to the ball-returning pipe (6) via a third gate valve switch (9).

3. The Ferris wheel rotating cycle gravity power generation system according to claim 2, characterized in that: The water tank (4) is connected to a water supply pipe (13), and a water supply pump (12) is installed on the water supply pipe (13). A circulating water return pipe (5) is also connected to one side of the water tank (4), and the other end of the circulating water return pipe (5) is connected to one end of the ball return pipe (6).

4. The Ferris wheel rotating cycle gravity power generation system according to claim 1, characterized in that: The ball pushing unit (10) comprises a box body, a portion of the water pipe (1) located in the box body is provided with an opening (27), the inlet end of the ball outlet pipe (11) is located in the opening (27), a jacking hydraulic cylinder (29) is arranged in the box body, the cylinder body of the jacking hydraulic cylinder (29) is hinged at the lower end of the box body, an arc-shaped ball support (30) is hinged on the hydraulic shaft of the jacking hydraulic cylinder (29), a thrust hydraulic cylinder (28) hinged in the box body is arranged on one side of the jacking hydraulic cylinder (29), and the hydraulic shaft of the thrust hydraulic cylinder (28) and the cylinder body of the jacking hydraulic cylinder (29) are hinged to each other.

5. The Ferris wheel rotating cycle gravity power generation system according to claim 1, characterized in that: The gravity circulation unit comprises a wheel body circulation device (14), the wheel body circulation device (14) comprising a wheel body (16), the wheel body (16) being mounted on a wheel frame (15) via a rotating shaft, a generator (19) being mounted at the center of the wheel body (16), a plurality of ball support seats (17) being evenly arranged along the circumferential direction of the wheel body (16), a plurality of ball support seats (17) being mounted with swingable ball support cups (18), and a ball support cup pressing piece being arranged on one side below the wheel frame (15), so that during the rotation of the wheel body (16), the ball support cup (18) is swung by the pressing of the ball support cup pressing piece.

6. The Ferris wheel rotating cycle gravity power generation system according to claim 5, characterized in that: The ball support cup (18) is provided with a cup cavity capable of accommodating a floating ball (41), pins (20) are provided on both sides of the ball support cup (18), the pins (20) on both sides are connected to the ball support seat (17), a first pressure rod (21) and a second pressure rod (23) are respectively installed at the lower end of the ball support cup (18), a first pressure wheel (22) is installed on the first pressure rod (21), a second pressure wheel (24) is installed on the second pressure rod (23), and the first pressure rod (21) and the second pressure rod (23) are not On the axis, the first pressure rod (21) and the second pressure rod (23) are staggeredly distributed front and back, the ball support cup top pressure member includes a first pressure frame and a second pressure frame, the first pressure frame corresponds to the first pressure wheel (22), the second pressure frame corresponds to the second pressure wheel (24), the first pressure frame and the second pressure frame both include a frame body (25) installed at the lower end of the wheel frame (15), and an inclined surface (26) is installed at the upper end of the frame body (25), and the inclined surface (26) faces the rotation direction of the wheel body (16).

7. The Ferris wheel rotating cycle gravity power generation system according to claim 1, characterized in that: The gravity circulation unit comprises two groups of left-right symmetrical chain transmission devices (32), a floating ball falling area is formed between the two groups of chain transmission devices (32), the upper end of the floating ball falling area corresponds to the outlet of the ball outlet pipe (11), and the lower end corresponds to the inlet of the ball return pipe (6), the two groups of chain transmission devices (32) each comprise an upper transmission shaft (35) and a lower transmission shaft, both ends of the upper transmission shaft (35) are equipped with a first transmission gear disk (36), both ends of the lower transmission shaft are equipped with a second transmission gear disk (33), the first transmission gear disk (36) and the second transmission gear disk (33) on the same side are connected by a transmission chain (37), a plurality of arc-shaped ball seats (40) are installed between the transmission chains (37) on both sides, so that the plurality of arc-shaped ball seats (40) can circulate in the floating ball falling area, the second transmission gear disk (33) is meshedly connected with a third transmission gear disk (34), and the generator (29) is meshed with the third transmission gear disk (34); A ball seat guide rail (38) is disposed between the upper transmission shaft (35) and the lower transmission shaft, a guide groove (39) is disposed inside the ball seat guide rail (38), and a plurality of arc-shaped ball seats (40) are guided and disposed in the guide groove (39), and the volume of the plurality of arc-shaped ball seats (40) is one-fourth of a sphere.

8. A buoyancy power generation system according to claim 7, characterized in that: Both sides of the outer walls of the plurality of arc-shaped ball seats (40) are provided with fixing ears (42) connected to the transmission chain (37); a guide seat (43) mounted on the outer wall of the arc-shaped ball seat (40) is provided between the fixing ears (42) on both sides; one side of the guide seat (43) is hingedly connected to an angle adjustment seat (45) via a hinge shaft (44); both ends of the guide seat (43) and the angle adjustment seat (45) are provided with guide wheels (46); the guide wheels (46) are located in the guide groove (39); Adjustment plates (47) are installed at both ends of the angle adjustment seat (45), and strip holes (48) are opened on the adjustment plates (47). The adjustment plates (47) at both ends are clamped at the two ends of the guide seat (43), and limit pins (49) are inserted into the strip holes (48). The limit pins (49) are fixedly connected to the guide seat (43) so that the limit pins (49) can move in the strip holes (48).

9. The Ferris wheel rotating cycle gravity power generation system according to claim 1, characterized in that: The gravity circulation unit comprises a telescopic wheel frame device (50), the telescopic wheel frame device (50) comprising a wheel disc (51), a plurality of ball brackets (52) are evenly arranged on the outer circumference of the wheel disc (51), a telescopic shield (53) is arranged in the plurality of ball brackets (52), slide rails (55) are arranged on both sides of the inner wall of the ball brackets (52), a slide groove (56) is arranged on the side of the slide rail (55), a wheel axle (57) is arranged on both sides of the shield (53), a pulley (58) located in the slide groove (56) is arranged on the wheel axle (57), a hydraulic cylinder (59) is arranged at one end of the shield (53), a generator (19) is installed on one side of the center of the wheel disc (51), and an oil distribution plate module (54) is installed on the other side, and the oil distribution plate module (54) is respectively connected to the oil supply hydraulic station (70) and the plurality of hydraulic cylinders (59).

10. The Ferris wheel rotating cycle gravity power generation system according to claim 9, characterized in that: The oil separation plate module (54) comprises an oil separation plate (60) and a connecting plate (65). The oil separation plate (60) rotates synchronously with the wheel plate (51). A plurality of first connecting holes (61) and second connecting holes (62) are provided on a side of the oil separation plate (60) facing the connecting plate (65). A plurality of oil inlet holes (63) and oil outlet holes (64) are provided on the outer circumference of the oil separation plate (60). The oil inlet holes (63) are respectively connected to the first connecting holes (61) and the oil pressure cylinder (59), and the oil outlet holes (64) are respectively connected to the second connecting holes (62) and the oil pressure cylinder (59). The connecting disk (65) is a non-rotating disk. Two groups of oil port portions are arranged on the connecting disk (65). The two groups of oil port portions include a first arc-shaped groove (66) and a second arc-shaped groove (68). A third connecting hole (67) connected to the oil supply hydraulic station (70) is opened in the first arc-shaped groove (66). A fourth connecting hole (69) connected to the oil supply hydraulic station (70) is opened in the second arc-shaped groove (68). The first arc-shaped groove (66) corresponds to the second connecting hole (62), and the second arc-shaped groove (68) corresponds to the first connecting hole (61).

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