A new energy storage charging device with a regulating mechanism

Abstract

The present invention relates to the field of energy storage charging technology, and specifically to a new energy storage charging device with an adjusting mechanism, comprising a charging station, wherein a mobile power source is arranged in the charging station, a wheel tool and a universal wheel are connected to the bottom of the mobile power source, a wind tool is connected to one end of the wheel tool, and the wind tool is fixed in the charging station, the wheel tool comprises a concave folding main board fixed at the bottom of the mobile power source, a fixed axis supported by the concave folding main board, directional wheels with both ends of the fixed axis fixed, and an adjusting mechanism connected to the wind tool for transmission, the mobile power source can be flexibly moved to the side of a vehicle for charging, thus avoiding the wiring confusion caused by the excessively long charging line and the out-of-reach problem caused by the excessively short charging line in the traditional charging mode, and the wheel tool automatically collects power when accompanying the mobile power source for moving, after the mobile power source finishes charging the vehicle, the mobile power source returns to the charging station, the wheel tool releases power to drive the wind tool, and the wind tool blows air to cool the mobile power source.

Description

Technical Field

[0001] The present invention relates to the technical field of energy storage and charging, and in particular to a new energy storage and charging device with a regulating mechanism. Background Art

[0002] Conventional energy refers to energy that is technically mature and has been used on a large scale, while new energy usually refers to energy that has not yet been used on a large scale and is being actively researched and developed. Referring to the prior art, a new energy storage charging device with an adjustment mechanism and announcement number CN218257774U is used to solve the problem of the fixed overall structure of the new energy vehicle charging device. Mobile energy storage charging can solve the problem of the short charging line being out of reach, and the problem of the inflexible movement of the vehicle caused by the need for the new energy vehicle to be charged to stop at the specified charging position. The integrated charging pile cannot better meet the charging needs of new energy vehicles. Based on the purpose of further research and development of mobile energy storage charging devices, the present invention provides a new energy storage charging device with an adjustment mechanism. Summary of the invention

[0003] The purpose of the present invention is to provide a new energy storage charging device with a regulating mechanism to solve the problems raised in the above background technology.

[0004] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a new energy storage charging device with an adjusting mechanism, comprising a charging station, wherein a mobile power supply is arranged in the charging station, a wheel and a universal wheel are connected to the bottom of the mobile power supply, a wind tool is docked at one end of the wheel, and the wind tool is fixed in the charging station, the wheel comprises a concave main board fixed at the bottom of the mobile power supply, a fixed axis supported on the concave main board, directional wheels with both ends of the fixed axis fixed, and an adjusting mechanism connected to the wind tool in a transmission manner, the fixed axis is movably sleeved in a through hole opened at the end of the concave main board, a protective plate is distributed below the adjusting mechanism, one end of the protective plate is fixed on the concave main board, the wind tool comprises a wind box facing the air inlet window on the mobile power supply, a row of air supply units fixed on the wind box, an integrated shaft connected to the row of air supply units in a transmission manner, and a sub-control integration connected to one end of the integrated shaft in a transmission manner.

[0005] The adjustment mechanism includes a flower gear fixedly sleeved on a fixed shaft, a power plate contacting and transmitting on one side of the flower gear, a disk portion transmission-connected to the power plate, a transverse axis transmission-connected on one side of the disk portion, a Z-shaped folding plate for supporting the disk portion and the power plate, and a spring group elastically supporting the power plate, one end of the Z-shaped folding plate is fixed on a concave folding main board, the transverse axis is movably sleeved in a column hole opened on the concave folding main board, and the power plate slides through the plate hole opened on the Z-shaped folding plate.

[0006] The disk portion includes a ring frame, a short shaft and a control ring tube supported on the ring frame, a mainspring fixedly connected to the middle of the control ring tube, and a central shaft device connected to the middle of the mainspring, the central shaft device is transmission-connected to the power plate, one end of the ring frame is fixed on the Z-shaped folding plate, the ring frame is movably sleeved on the ring groove opened on the outer side wall of the control ring tube, the short shaft is movably sleeved in the through hole opened on the folding plate arranged on one side of the ring frame, one end of the short shaft is meshingly transmission-connected with the bevel gear fixed at the end of the horizontal shaft through a fixed bevel gear, and the other end of the short shaft is meshingly transmission-connected with the outer gear ring arranged on the control ring tube through a fixed gear.

[0007] The central axis device includes a small frame, a reciprocating shaft and a pressure central axis supported on the small frame, a one-way bearing fixedly sleeved at one end of the reciprocating shaft, a ring plate gear fixedly sleeved outside the one-way bearing, and a worm gear group transmission-connected between the ring plate gear and the pressure central axis. The reciprocating shaft is connected through a cylindrical gear sleeved and a row of teeth meshing and transmission arranged on a power plate, and one end of the small frame is fixed on the Z-shaped folding plate.

[0008] The worm gear group includes a worm and a support shaft supported by a small frame, an L-shaped moving plate fixed at one end of the worm gear, and an S-shaped spring piece fixed on the L-shaped moving plate. The S-shaped spring piece is inserted into an arc groove opened on the outer wall of one end of the support shaft. The other end of the support shaft is connected by meshing transmission with a fixed gear and a ring plate gear. One end of the pressure center shaft is connected by meshing transmission with a fixed gear and a worm gear group. The other end of the pressure center shaft is fixedly connected to the inner end of the spring.

[0009] The auxiliary control integration includes a card group for positioning the horizontal axis, an overlap group, a fixed gear, a positioning shaft and a fixed control frame, one end of the fixed control frame is fixed on the wind box, the positioning shaft is movably sleeved in the inner hole of the cylinder set on the fixed control frame, one end of the positioning shaft is fixed with a fixed gear, one end of the horizontal axis is connected to the overlap group through a fixed gear, and the overlap group establishes transmission by docking with the fixed gear, and the other end of the positioning shaft is connected to the bevel gear fixed at one end of the integrated shaft through a fixed bevel gear.

[0010] The auxiliary control integration also includes an L-shaped open plate, one end of the L-shaped open plate is fixed on the cylinder of the fixed control frame, and the other end of the L-shaped open plate is in contact with the card group for transmission.

[0011] The card group includes a card plate, a square flat cylinder and a return spring piece. One end of the card plate is slidably inserted into the plate hole opened on the horizontal axis, the L-shaped open plate contacts the inclined surface opened on the card plate, one end of the square flat cylinder is fixed on the concave folded main board, the card plate slides through the inner hole of the square flat cylinder, one end of the return spring piece is fixed on the square flat cylinder, and the other end is fixed on the card plate.

[0012] The lap joint group includes a wandering gear, a wandering shaft, an L-shaped split plate and a pressure spring plate. One end of the L-shaped split plate is fixed on the concave main plate. The wandering shaft slides through a through hole opened on the L-shaped split plate. One end of the wandering shaft is fixed with a wandering gear, and the other end is in contact with the pressure spring plate by setting a hemisphere. One end of the pressure spring plate is fixed on the L-shaped split plate. The wandering gear is meshed and transmitted with the gear on the horizontal axis, and the wandering gear is meshed with the fixed gear through axial movement.

[0013] The wind box is a plate box with an opening on one side. The air supply unit includes an air duct fixedly connected to the wind box, a fan distributed in the air duct, a fan shaft supporting the fan, and an inner frame supporting the fan shaft. One end of the inner frame is fixed on the wind duct, and one end of the fan shaft is meshed and transmission connected with an annular bevel gear fixed on the integrated shaft through a fixed bevel gear, and the fixed control frame supports the integrated shaft.

[0014] Compared with the prior art, the present invention has the following beneficial effects:

[0015] 1. The mobile power bank can be flexibly moved to the side of the vehicle for charging, thus avoiding the wiring confusion caused by the long charging line and the out-of-reach problem caused by the short charging line in the traditional charging mode. The wheels automatically collect power while the mobile power bank is moving. After the mobile power bank has finished charging the vehicle, the mobile power bank returns to the charging station, and the wheels release power to drive the wind device, which blows air to cool the mobile power bank.

[0016] 2. The present invention automatically collects power and regulates the release through the cooperation of the wind tool and the wheel tool, thereby ventilating and cooling the mobile power source in the charging station, without the need for additional power supply, which is in line with the concept of energy saving and environmental protection. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a schematic diagram of the structure of the present invention.

[0018] Figure 2 This is a schematic diagram of the wheel position.

[0019] Figure 3 This is a schematic diagram of the wind gear location.

[0020] Figure 4 This is a schematic diagram of the charging station structure.

[0021] Figure 5 This is a schematic diagram of the wheel structure.

[0022] Figure 6 Schematic diagram of the adjustment mechanism structure.

[0023] Figure 7 Schematic diagram of the protective plate structure.

[0024] Figure 8 It is a schematic diagram of the disk structure.

[0025] Fig. 9 It is a schematic diagram of the structure of the central axis device.

[0026] Fig.10 It is a schematic diagram of the spring group structure.

[0027] Fig.11 Schematic diagram of the Z-shaped folded plate structure.

[0028] Fig.12 This is a schematic diagram of the sub-control integrated structure.

[0029] Fig.13 This is a diagram of the card group structure.

[0030] Fig.14 Schematic diagram of the air supply unit structure.

[0031] In the figure: charging station 1, mobile power supply 2, wind tool 3, wheel tool 4, universal wheel 5, concave folding main board 6, fixed axis 7, directional wheel 8, adjustment mechanism 9, protective plate 10, wind box 11, air supply unit 12, auxiliary control integration 13, integrated axis 14, horizontal axis 15, flower gear 16, spring group 17, Z-shaped folding plate 18, disk 19, power plate 20, short axis 21, control ring cylinder 22, middle axis device 23, spring 24, ring frame 25, pressure middle axis 26, worm group 27, reciprocating axis 28 , small frame 29, one-way bearing 30, ring plate gear 31, worm 32, L-moving plate 33, S-shaped spring piece 34, support shaft 35, triangular plate 36, spring 37, direction rod 38, card group 39, overlap group 40, fixed gear 41, positioning shaft 42, L-shaped opening plate 43, fixed control frame 44, wandering gear 45, wandering shaft 46, L-shaped dividing plate 47, pressure spring piece 48, card plate 49, square flat cylinder 50, return spring piece 51, wind tube 52, fan 53, fan shaft 54, inner frame 55. DETAILED DESCRIPTION

[0032] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the technical solutions in the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0033] See also Figures 1 to 14The present invention provides a technical solution: a new energy storage charging device with an adjustment mechanism, comprising a charging station 1, a mobile power supply 2 is arranged in the charging station 1, a wheel 4 and a universal wheel 5 are connected to the bottom of the mobile power supply 2, a wind tool 3 is connected to one end of the wheel 4, and the wind tool 3 is fixed in the charging station 1, the wheel 4 comprises a concave main board 6 fixed to the bottom of the mobile power supply 2, a fixed shaft 7 supported on the concave main board 6, a directional wheel 8 fixed at both ends of the fixed shaft 7, and an adjustment mechanism 9 connected to the wind tool 3 in a transmission manner, the fixed shaft 7 is movably sleeved in a through hole opened at the end of the concave main board 6, a protective plate 10 is distributed below the adjustment mechanism 9, one end of the protective plate 10 is fixed to the concave main board 6, the wind tool 3 comprises a wind box 11 facing the air inlet window on the mobile power supply 2, a row of air supply units 12 fixed on the wind box 11, an integrated shaft 14 connected to the row of air supply units 12 in a transmission manner, and a sub-control integration 13 connected to one end of the integrated shaft 14 in a transmission manner, and the charging station 1 and the mobile power supply 2 are both existing technical equipment.

[0034] During vehicle charging, the mobile power supply 2 is pushed out of the charging station 1, and the mobile power supply 2 is moved to the side of the vehicle to charge the vehicle. After charging, the mobile power supply 2 moves back to the charging station 1, and the wheel gear 4 moves along with the mobile power supply 2. During the movement of the wheel gear 4, the mobile power supply 2 continues to collect power. After the mobile power supply 2 returns to the charging station 1, the wheel gear 4 docks with the wind gear 3 in the charging station 1, and the power collected in the wheel gear 4 is released to drive the wind gear 3 to work for ventilation. External air is blown into the mobile power supply 2 through the wind gear 3 to cool the inside of the mobile power supply 2. The hot air is discharged from the side exhaust window on the mobile power supply 2 and then discharged to the outside of the charging station 1.

[0035] refer to Figure 6 It is understood that the adjustment mechanism 9 includes a flower gear 16 fixedly sleeved on the fixed shaft 7, a power plate 20 contacting and transmitting on one side of the flower gear 16, a disk portion 19 transmission-connected to the power plate 20, a transverse axis 15 transmission-connected on one side of the disk portion 19, a Z-shaped folding plate 18 for supporting the disk portion 19 and the power plate 20, and a spring group 17 elastically supporting the power plate 20, one end of the Z-shaped folding plate 18 is fixed on the concave folding main board 6, the transverse axis 15 is movably sleeved in a column hole opened on the concave folding main board 6, and the power plate 20 slides through the plate hole opened on the Z-shaped folding plate 18, reference Fig.10 The spring group 17 includes a triangular plate 36, a spring 37 and a direction rod 38. The direction rod 38 slides through the protruding through hole set on the Z-shaped folding plate 18. The spring 37 is sleeved on the direction rod 38. The triangular plate 36 is fixed to one end of the direction rod 38, and the triangular plate 36 is fixed to the power plate 20. The spring 37 is padded between the triangular plate 36 and the Z-shaped folding plate 18. The power plate 20 is pushed by the elastic force and is close to the flower gear 16. The rotation of the flower gear 16 causes the reciprocating translation of the power plate 20.

[0036] refer to Figure 8It is understood that the disk portion 19 includes a ring frame 25, a short shaft 21 and a control ring tube 22 supported on the ring frame 25, a spring 24 fixedly connected to the middle of the control ring tube 22, and a central axis device 23 connected to the middle of the spring 24, the central axis device 23 and the power plate 20 are transmission connected, one end of the ring frame 25 is fixed on the Z-shaped folding plate 18, the ring frame 25 is movably sleeved on the annular groove opened on the outer side wall of the control ring tube 22, the short shaft 21 is movably sleeved in the through hole opened on the folding plate set on one side of the ring frame 25, one end of the short shaft 21 is meshed and transmission connected with the bevel gear fixed at the end of the transverse shaft 15 through a fixed bevel gear, and the other end of the short shaft 21 is meshed and transmission connected with the outer gear ring set on the control ring tube 22 through a fixed gear.

[0037] refer to Fig. 9 It is understood that the central axis device 23 includes a small frame 29, a reciprocating shaft 28 and a pressure central axis 26 supported on the small frame 29, a one-way bearing 30 fixedly sleeved at one end of the reciprocating shaft 28, a ring plate gear 31 fixedly sleeved outside the one-way bearing 30, and a worm gear group 27 transmission-connected between the ring plate gear 31 and the pressure central axis 26. The reciprocating shaft 28 is connected to the power plate 20 through a row of teeth meshing transmission connected by a cylindrical gear sleeved on the reciprocating shaft 28. One end of the small frame 29 is fixed on the Z-shaped folding plate 18, and the pressure central axis 26 and the reciprocating shaft 28 are respectively movably sleeved in two through holes opened on the small frame 29.

[0038] The worm group 27 includes a worm 32 and a support shaft 35 supported by a small frame 29, an L-shaped moving plate 33 fixed at one end of the worm 32, and an S-shaped spring 34 fixed on the L-shaped moving plate 33. The S-shaped spring 34 is inserted into an arc groove opened on the outer wall of one end of the support shaft 35. The other end of the support shaft 35 is meshed and connected to the ring plate gear 31 through a fixed gear. One end of the pressure center shaft 26 is meshed and connected to the worm group 27 through a fixed gear. The other end of the pressure center shaft 26 is fixedly connected to the inner end of the spring 24. The support shaft 35 and the worm 32 are respectively movably sleeved in two circular holes opened on the small frame 29.

[0039] refer to Fig.12 It is understood that the auxiliary control integration 13 includes a card group 39, a lap group 40, a fixed gear 41, a positioning shaft 42 and a fixed control frame 44 for positioning the horizontal axis 15. One end of the fixed control frame 44 is fixed on the wind box 11, and the positioning shaft 42 is movably sleeved in the inner hole of the cylinder set on the fixed control frame 44. A fixed gear 41 is fixed to one end of the positioning shaft 42. One end of the horizontal axis 15 is connected to the lap group 40 through a fixed gear, and the lap group 40 establishes transmission by docking with the fixed gear 41. The other end of the positioning shaft 42 is connected to the bevel gear fixed at one end of the integrated shaft 14 through a fixed bevel gear.

[0040] The auxiliary control integration 13 also includes an L-shaped open plate 43, one end of the L-shaped open plate 43 is fixed on the cylinder of the fixed control frame 44, and the other end of the L-shaped open plate 43 is in contact with the card group 39 for transmission.

[0041] The card group 39 includes a card plate 49, a square flat cylinder 50 and a return spring piece 51. One end of the card plate 49 is slidably inserted into the plate hole opened on the horizontal axis 15. The L-shaped open plate 43 contacts the inclined surface opened on the card plate 49. One end of the square flat cylinder 50 is fixed on the concave folded main board 6. The card plate 49 slides through the inner hole of the square flat cylinder 50. One end of the return spring piece 51 is fixed on the square flat cylinder 50, and the other end is fixed on the card plate 49.

[0042] The lap joint group 40 includes a wandering gear 45, a wandering shaft 46, an L-shaped split plate 47 and a pressure spring plate 48. One end of the L-shaped split plate 47 is fixed on the concave folded main board 6. The wandering shaft 46 slides through a through hole provided on the L-shaped split plate 47. One end of the wandering shaft 46 is fixed with a wandering gear 45, and the other end is in contact with the pressure spring plate 48 by setting a hemisphere. One end of the pressure spring plate 48 is fixed on the L-shaped split plate 47. The wandering gear 45 is meshed and driven with the gear on the horizontal shaft 15, and the wandering gear 45 establishes meshing with the fixed gear 41 through axial movement.

[0043] The wind box 11 is a plate box with one side open, and the air supply unit 12 includes a wind tube 52 fixedly connected to the wind box 11, a fan 53 distributed in the wind tube 52, a fan shaft 54 ​​supporting the fan 53, and an inner frame 55 supporting the fan shaft 54, one end of the inner frame 55 is fixed on the wind tube 52, one end of the fan shaft 54 ​​is meshed and transmission connected with the annular bevel gear fixed on the integrated shaft 14 through a fixed bevel gear, and the fixed control frame 44 supports the integrated shaft 14, the fan shaft 54 ​​is movably sleeved in a through hole opened on the inner frame 55, and the integrated shaft 14 is movably sleeved in a through hole opened on the fixed control frame 44.

[0044] The wheel 4 continuously collects power while the mobile power source 2 moves. The specific process is that the directional wheel 8 rotates to drive the fixed shaft 7, and then drives the flower gear 16 to rotate continuously, causing the power plate 20 to reciprocate, and then drives the reciprocating shaft 28 to rotate reciprocatingly. Through the conversion of the one-way bearing 30, the ring plate gear 31 undergoes intermittent directional rotation, and then drives the S-shaped spring 34 through the support shaft 35, and then drives the worm 32 to rotate through the L-moving plate 33. The L-moving plate 33 and the S-shaped spring 34 cooperate to disconnect the transmission due to overpressure. After the power is saturated, the transmission between the support shaft 35 and the worm 32 is interrupted, and the rotation of the support shaft 35 will not cause the worm 32 to rotate. During the power storage process, the rotation of the worm 32 drives the pressure center shaft 26, and the rotation of the pressure center shaft 26 causes the spring 24 to contract and store power. At this time, the ring frame 25 cannot rotate.

[0045] After the mobile power source 2 moves back to the charging station 1, the charging station 1 charges the mobile power source 2, and the wind device 3 performs ventilation work. Specifically, Fig.12 The horizontal axis 15 and the overlap group 40 move right synchronously, and the overlap group 40 is connected with the fixed gear 41. Fig.13The floating shaft 46 in the horizontal axis 15 can move axially. Even if the floating gear 45 and the gear on the horizontal axis 15 are not meshed successfully during docking, once the horizontal axis 15 rotates, the floating gear 45 automatically meshes with the gear on the horizontal axis 15. The horizontal axis 15 rotates because the L-shaped opening plate 43 during docking pushes the card plate 49, and the card plate 49 is pulled out from the horizontal axis 15, so that the horizontal axis 15 can rotate. Specifically, the spring 24 releases power to rotate the control ring tube 22, and then transmits the horizontal axis 15 through the short shaft 21. The rotation of the horizontal axis 15 drives the fixed gear 41 through the floating gear 45, and then transmits the integrated shaft 14 through the positioning shaft 42. The rotation of the integrated shaft 14 drives all the fan shafts 54 to rotate, thereby causing the fan 53 to rotate for ventilation, and the outside air is collected into the wind box 11 through the wind tube 52, and then blown into the mobile power supply 2.

[0046] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A new energy storage charging device with a regulating mechanism, comprising a charging station (1), characterized in that: The charging station (1) is provided with a mobile power source (2). The bottom of the mobile power source (2) is connected to a wheel (4) and a universal wheel (5). One end of the wheel (4) is butt-jointed with a wind tool (3). The wind tool (3) is fixed in the charging station (1). The wheel (4) comprises a concave folding main board (6) fixed to the bottom of the mobile power source (2), a fixed shaft (7) supported on the concave folding main board (6), directional wheels (8) fixed at both ends of the fixed shaft (7), and an adjustment mechanism (9) drivingly connected to the wind tool (3). The shaft (7) is movably sleeved in a through hole opened at the end of the concave folded main board (6); a protective plate (10) is distributed below the adjustment mechanism (9); one end of the protective plate (10) is fixed to the concave folded main board (6); the wind device (3) comprises a wind box (11) facing the air inlet window on the mobile power source (2); a row of air supply units (12) fixed to the wind box (11); an integrated shaft (14) drivingly connected to the row of air supply units (12); and a sub-control integration (13) drivingly connected to one end of the integrated shaft (14); The adjustment mechanism (9) comprises a flower gear (16) fixedly sleeved on the fixed shaft (7), a power plate (20) contacting and transmitting on one side of the flower gear (16), a disk portion (19) transmission-connected to the power plate (20), a transverse shaft (15) transmission-connected on one side of the disk portion (19), a Z-shaped folding plate (18) for supporting the disk portion (19) and the power plate (20), and a spring group (17) elastically supporting the power plate (20), one end of the Z-shaped folding plate (18) being fixed on the concave folding main plate (6), the transverse shaft (15) being movably sleeved in a column hole provided on the concave folding main plate (6), and the power plate (20) slidingly passing through the plate hole provided on the Z-shaped folding plate (18); The disk portion (19) comprises a ring frame (25), a short shaft (21) and a control ring tube (22) supported on the ring frame (25), a spring (24) fixedly connected to the middle of the control ring tube (22), and a central shaft device (23) connected to the middle of the spring (24); the central shaft device (23) and the power plate (20) are transmission-connected; one end of the ring frame (25) is fixed to the Z-shaped folding plate (18); the ring frame (25) is movably sleeved on a ring groove provided on the outer side wall of the control ring tube (22); the short shaft (21) is movably sleeved in a through hole provided on the folding plate provided on one side of the ring frame (25); one end of the short shaft (21) is meshedly transmission-connected with a bevel gear fixed to the end of the transverse shaft (15) through a fixed bevel gear; and the other end of the short shaft (21) is meshedly transmission-connected with an outer gear ring provided on the control ring tube (22) through a fixed gear; The center shaft device (23) comprises a small frame (29), a reciprocating shaft (28) and a pressure center shaft (26) supported on the small frame (29), a one-way bearing (30) fixedly sleeved on one end of the reciprocating shaft (28), a ring plate gear (31) fixedly sleeved on the outside of the one-way bearing (30), and a worm gear group (27) drivingly connected between the ring plate gear (31) and the pressure center shaft (26), a cylindrical gear sleeved on the reciprocating shaft (28) and a row of teeth arranged on the power plate (20) meshing and drivingly connected, and one end of the small frame (29) is fixed on the Z-shaped folding plate (18).

2. A new energy storage charging device with an adjustment mechanism according to claim 1, characterized in that: The worm gear group (27) comprises a worm (32) and a support shaft (35) supported by a small frame (29), an L-shaped moving plate (33) fixed at one end of the worm (32), and an S-shaped spring piece (34) fixed on the L-shaped moving plate (33), wherein the S-shaped spring piece (34) is inserted into an arc groove formed on an outer wall of one end of the support shaft (35), and the other end of the support shaft (35) is meshedly connected to the ring plate gear (31) through a fixed gear, and one end of the pressure center shaft (26) is meshedly connected to the worm gear group (27) through a fixed gear, and the other end of the pressure center shaft (26) is fixedly connected to the inner end of the mainspring (24).

3. A new energy storage charging device with an adjustment mechanism according to claim 1, characterized in that: The auxiliary control assembly (13) comprises a clamping group (39) for clamping the transverse axis (15), an overlap group (40), a fixed gear (41), a positioning shaft (42) and a fixed control frame (44); one end of the fixed control frame (44) is fixed to the wind box (11); the positioning shaft (42) is movably sleeved in an inner hole of a cylinder provided on the fixed control frame (44); one end of the positioning shaft (42) is fixed with a fixed gear (41); one end of the transverse axis (15) is transmission-connected to the overlap group (40) via a fixed gear, and the overlap group (40) establishes transmission by docking with the fixed gear (41); the other end of the positioning shaft (42) is transmission-connected to the fixed bevel gear fixed at one end of the integrated axis (14) via a fixed bevel gear.

4. A new energy storage charging device with an adjustment mechanism according to claim 3, characterized in that: The auxiliary control assembly (13) further comprises an L-shaped opening plate (43), one end of the L-shaped opening plate (43) being fixed on the cylinder of the fixed control frame (44), and the other end of the L-shaped opening plate (43) being in contact with the card group (39) for transmission.

5. A new energy storage charging device with an adjustment mechanism according to claim 4, characterized in that: The card group (39) comprises a card plate (49), a square flat cylinder (50) and a return spring piece (51); one end of the card plate (49) is slidably inserted into a plate hole provided on the transverse axis (15); the L-shaped open plate (43) contacts an inclined surface provided on the card plate (49); one end of the square flat cylinder (50) is fixed on the concave folded main plate (6); the card plate (49) slides through the inner hole of the square flat cylinder (50); one end of the return spring piece (51) is fixed on the square flat cylinder (50) and the other end is fixed on the card plate (49).

6. A new energy storage charging device with an adjustment mechanism according to claim 3, characterized in that: The lap joint group (40) comprises a wandering gear (45), a wandering shaft (46), an L-shaped split plate (47) and a pressure spring sheet (48); one end of the L-shaped split plate (47) is fixed to the concave folded main plate (6); the wandering shaft (46) slides through a through hole provided on the L-shaped split plate (47); one end of the wandering shaft (46) is fixed with a wandering gear (45), and the other end is in contact with the pressure spring sheet (48) by means of a hemispherical body; one end of the pressure spring sheet (48) is fixed to the L-shaped split plate (47); the wandering gear (45) is meshed and transmission-connected with a gear on the transverse shaft (15); and the wandering gear (45) is meshed with the fixed gear (41) by axial movement.

7. A new energy storage charging device with an adjustment mechanism according to claim 3, characterized in that: The wind box (11) is a plate box with one side open, and the air supply unit (12) comprises a wind tube (52) fixedly connected to the wind box (11), a fan (53) distributed in the wind tube (52), a fan shaft (54) supporting the fan (53), and an inner frame (55) supporting the fan shaft (54), one end of the inner frame (55) is fixed to the wind tube (52), one end of the fan shaft (54) is meshed and transmission-connected with a ring-shaped bevel gear fixed on the integrated shaft (14) via a fixed bevel gear, and the fixed control frame (44) supports the integrated shaft (14).

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