A modular management system for graphene batteries

Abstract

The present invention relates to the field of graphene material technology, and in particular to a modular management system for graphene batteries, comprising a pressure-resistant assembly for placing a plurality of graphene batteries, a partitioning fixture fixedly provided on one side of the pressure-resistant assembly, the graphene batteries being placed in slots of the partitioning fixture and elastically supported by the pressure-resistant assembly, a pressure-balancing assembly provided on the outside of the pressure-resistant assembly, the pressure-balancing assembly being used to balance the extrusion force of the graphene batteries on the pressure-resistant assembly, and an adjustment assembly fixedly provided on the inner side of the middle end of the pressure-resistant assembly, the adjustment assembly adjusting the internal air pressure of the pressure-balancing assembly. The modular management system for graphene batteries does not have an additional fixing structure for the graphene batteries, and the pressure-resistant assembly and the pressure-balancing assembly are used to stably fix the graphene batteries in the slots of the partitioning fixture, facilitating the transportation, handling, and placement of the graphene batteries, making them more convenient to pick up and place.

Description

Technical Field

[0001] The present invention relates to the technical field of graphene materials, and in particular to a modular management system for graphene batteries. Background Art

[0002] Graphene batteries are a new energy battery developed by exploiting the rapid and massive shuttle of lithium ions between the graphene surface and electrodes. Graphene batteries typically consist of a positive electrode, a negative electrode, and an electrolyte. During charging, lithium ions in the positive electrode material are embedded in the graphene layer, forming a graphene-lithium compound. During discharge, lithium ions are deintercalated from the graphene layer and returned to the positive electrode material, releasing electrical energy.

[0003] Graphene batteries, due to their exceptional performance, are widely used in electric vehicles, mobile devices, aerospace, and new energy batteries. In electric vehicles, their high energy density and rapid charge and discharge capabilities make them an ideal power source; in mobile devices, they offer extended battery life; and in aerospace, their high energy density and lightweight design make them an ideal power source for spacecraft and drones. With continued technological advancements and decreasing costs, graphene batteries are expected to find widespread application in even more areas, bringing greater convenience to people's lives and production.

[0004] During the transportation of graphene batteries, they need to be secured. Prior art (Announcement No. CN216943126U) provides a transport device for graphene batteries for new energy vehicles, designed to address the technical challenges of securing, handling, and transporting graphene batteries. However, this prior art still presents the following technical issues: Multiple retaining structures are required for securing the graphene batteries, making their use cumbersome and requiring numerous steps. This makes them impractical and inefficient for securing, handling, and transporting large quantities of graphene batteries. Summary of the Invention

[0005] The main purpose of the present invention is to overcome the deficiencies in the prior art and provide a modular management system for graphene batteries.

[0006] The technical solution adopted by the present invention to achieve its technical purpose is: a modular management system for graphene batteries, including a pressure-resistant component for placing a plurality of graphene batteries, a dividing fixture fixedly provided on one side of the pressure-resistant component, the graphene batteries are placed in the slots of the dividing fixture and are elastically supported by the pressure-resistant component; by setting the dividing fixture, a plurality of slots can be divided out, and the processed graphene batteries can be placed in the slots of the dividing fixture, so that the bottom of the graphene battery is stably supported by the pressure-resistant component.

[0007] A pressure-balancing component is provided on the outside of the pressure-resistant component, and the pressure-balancing component is used to balance the extrusion force of the graphene battery on the pressure-resistant component. Through the setting of the pressure-balancing component, the extrusion force of the graphene battery on the pressure-resistant component can be absorbed, and after the graphene battery is removed, the deformation of the pressure-resistant component itself can be restored under the action of the pressure-balancing component.

[0008] An adjusting component is fixedly provided on the inner side of the middle end of the pressure-resistant component, and the adjusting component adjusts the internal air pressure of the pressure-balancing component. Through the setting of the adjusting component, not only the internal air pressure of the pressure-balancing component can be adjusted, thereby adjusting the softness of the air cushion in the pressure-resistant component, but also the internal air pressure of the pressure-resistant component can be conveniently adjusted when air leakage occurs after long-term use of the entire system, thereby facilitating the stable use of the entire system and extending the service life.

[0009] Preferably, the pressure-resistant assembly includes an air block, an air cushion plate, a pressure regulating cabin, an adjusting tank, an air pressure piston plate, a guide slide rod and a positioning sleeve;

[0010] One side of the air hoverboard is integrally connected to a plurality of the air blocks, which are distributed in a rectangular array on the air hoverboard. The dividing fixture is fixed to one side of the air hoverboard and wraps the air blocks within its slots. The air blocks are made of rubber or other soft or elastic materials. The purpose is to be able to deform or press down when the graphene battery is squeezed, thereby providing protection for the graphene battery, and also to be able to recover under the action of air pressure.

[0011] The other side of the air cushion is integrally connected to the pressure regulating cabin, and the regulating groove is opened on one side of the pressure regulating cabin. The air pressure piston plate is slidably connected to the inside of the regulating groove and maintains a sealed connection with the regulating groove. The internal volume of the pressure regulating cabin can be changed by the movement of the air pressure piston plate inside the regulating groove, so that the gas inside the pressure regulating cabin can be compressed or released, and the pressure of the pressure regulating cabin can be controlled. When the pressure of the pressure regulating cabin is high, the air pressure on the air block is relatively high, and the supporting force of the air block is greater. On the contrary, the supporting force of the air block is smaller. Therefore, it can be used and adjusted according to actual needs, and has good flexibility.

[0012] Preferably, one side of the pneumatic piston plate is positioned and connected to the inner side wall of the pressure regulating cabin through the guide slide rod and the positioning sleeve, one end of the guide slide rod is fixedly connected to the pneumatic piston plate, and the other end is slidably connected to the inside of the positioning sleeve, and one end of the positioning sleeve is fixed to the inner side wall of the pressure regulating cabin;

[0013] By providing the guide slide rod and the positioning sleeve, the movement trajectory of the pneumatic piston plate can be further limited, thereby ensuring that the pneumatic piston plate moves and operates more stably.

[0014] Preferably, a pressure gauge is fixedly installed inside the pressure regulating cabin, and the pressure gauge is connected to the signal terminal of an external person by wireless communication. Thus, through the setting of the pressure gauge, the internal pressure of the pressure regulating cabin can be monitored in real time, which facilitates timely adjustment of the response plan.

[0015] Preferably, the adjustment assembly includes a tapered tooth adjustment bolt, an upper bridge plate, a connecting plate, a lower bridge plate, a bidirectional screw rod, a threaded sleeve, a movable traction rod and a tapered connecting gear;

[0016] The upper bridge plate is integrally connected between the two air cushion plates, and the lower bridge plate is integrally connected between the two pressure regulating chambers, with a gap provided between the upper bridge plate and the lower bridge plate; two connecting plates are provided, and are fixedly connected between the upper bridge plate and the lower bridge plate;

[0017] The two ends of the bidirectional screw are rotatably arranged on the connecting plate, and the two ends are rotatably connected to the plurality of threaded sleeves, the two sides of the threaded sleeves are respectively hinged to the movable traction rods, and one end of the movable traction rod is simultaneously hinged to the pneumatic piston plate;

[0018] At least three threaded sleeves are provided at each end of the bidirectional screw rod, and the bidirectional screw rod and the threaded sleeve are matched with each other, and one end of the threaded sleeve is connected and limited with the pneumatic piston plate through a movable traction rod. Therefore, when the bidirectional screw rod rotates, the bidirectional screw rod can drive the threaded sleeve to move, and under the action of the movable traction rod, the pneumatic piston plate can be driven to move.

[0019] Preferably, the middle end of the bidirectional screw rod is fixedly sleeved on the conical connecting gear, and one side of the conical connecting gear is meshed and connected with the conical tooth adjusting bolt, and one end of the conical tooth adjusting bolt is fixed to the middle end of the upper bridge plate through a bearing; it is rotatably connected to the inside of the upper bridge plate through the conical tooth adjusting bolt, and a screwdriver can be used to rotate the top end of the conical tooth adjusting bolt, so that the conical tooth adjusting bolt is rotated, and the conical tooth structure at the bottom end of the conical tooth adjusting bolt also rotates together, so that the conical tooth structure at the bottom end of the conical tooth adjusting bolt can drive the conical connecting gear to rotate, thereby causing the bidirectional screw rod to rotate.

[0020] Preferably, the pressure balancing assembly includes an outer frame plate, a sealing plate, a branch air pipe, a main inlet pipe, an air cylinder, a piston rod, a top plate, a slide rail, a spring and a limit column;

[0021] The sealing plate is fixedly covered on one side of the outer frame plate, the interior of the outer frame plate is hollow, and the inner ring thereof is fixedly sleeved on the outer wall of the air cushion plate and the pressure regulating cabin;

[0022] The branch air pipes are provided in plurality, and one end of each branch air pipe is fixedly connected to the pressure regulating cabin, and the other end is fixedly connected to the main inlet pipe; one end of the main inlet pipe is blocked, and the other end is fixedly connected to the air cylinder; the piston rod is slidably provided inside the air cylinder, and one end of each branch air pipe is fixedly connected to the top plate; one end of the spring is pressed against the top plate, and the other end is pressed against the limiting column, and the limiting column is fixedly installed inside the outer frame plate;

[0023] When the graphene battery is subjected to extrusion pressure, the gas block may be deformed, thereby increasing the air pressure in the air cushion plate and the pressure regulating cabin in the pressure-resistant assembly. The air pressure then enters the main inlet pipe through the branch air pipe, and then enters the gas cylinder through the main inlet pipe, thereby pushing the piston rod and the top plate in the gas cylinder to move. The piston rod presses the spring through the top plate, so that the spring is subjected to compression force, which can absorb the air pressure in the air cushion plate and the pressure regulating cabin and convert it into elastic potential energy. When the graphene battery is not subjected to extrusion pressure, the gas block can be restored to its original shape under the action of the spring.

[0024] Preferably, the two sides of the top plate are slidably connected to the inside of the outer frame plate through the slide rails, and the slide rails are fixedly attached to the inner side walls of the outer frame plate; through the setting of the slide rails, the top plate can move stably along the track, which facilitates increasing the movement stability of the top plate.

[0025] Compared with the prior art, the present invention has the following beneficial effects:

[0026] The graphene battery modular management system places the graphene battery in the slots of the partitioned fixing frame, so that the bottom of the graphene battery contacts the air block in the pressure-resistant component and the top of the graphene battery is exposed. When multiple graphene battery modular management systems are stacked up and placed, the pressure regulating cabin in the pressure-resistant component can press down the top of the graphene battery, and cooperate with the pressure-resistant component and the pressure balancing component to stably fix the graphene battery in the slots of the partitioned fixing frame, thereby facilitating the transportation, handling and placement operations of the graphene battery.

[0027] Moreover, before and after transportation, when the top of the graphene battery is not restricted, the gas block can automatically recover under the action of the pressure balance component, lift up the graphene battery, and expose its top. There is no additional fixing structure for the graphene battery, which makes it easier to take and place.

[0028] Finally, the adjustment component cooperates with the pressure-resistant component to adjust the internal air pressure of the pressure-resistant component, thereby adjusting the softness of the air cushion in the pressure-resistant component. It can also facilitate the adjustment of the internal air pressure of the pressure-resistant component when leakage occurs after long-term use of the entire system, thereby facilitating the stable use of the entire system and extending its service life. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] Figure 1 This is a schematic diagram of the top view of the graphene battery modular management system.

[0030] Figure 2 This is a schematic diagram of the top view of the graphene battery modular management system after removing the sealing plate and dividing the fixing frame.

[0031] Figure 3 It is a schematic diagram of the top-down cross-sectional structure of the pressure-resistant component and the adjustment component.

[0032] Figure 4 This is a schematic diagram of the main structure of the pressure-resistant component and the adjustment component.

[0033] in:

[0034] 1-pressure balancing assembly; 101-outer frame plate; 102-sealing plate; 103-branch air pipe; 104-main inlet pipe; 105-air cylinder; 106-piston rod; 107-top plate; 108-slide rail; 109-spring; 110-limiting column; 2-dividing fixing frame; 3-pressure-resistant assembly; 301-gas block; 302-air cushion plate; 303-pressure regulating cabin; 304-adjusting groove; 305-pneumatic piston plate; 306-guide slide rod; 307-positioning sleeve; 4-adjusting assembly; 401-tapered tooth adjusting bolt; 402-upper bridge plate; 403-connecting plate; 404-lower bridge plate; 405-bidirectional screw; 406-threaded sleeve; 407-movable traction rod; 408-tapered connecting gear. DETAILED DESCRIPTION

[0035] In the description of the present invention, it should be noted that the terms "center," "upper," "lower," "left," "right," "vertical," "horizontal," "inner," "outer," and the like, indicating orientations or positional relationships, are based on the orientations or positional relationships shown in the accompanying drawings, or are the orientations or positional relationships in which the inventive product is typically placed when in use. These terms are intended solely to facilitate the description of the present invention and to simplify the description, and are not intended to indicate or imply that the devices or components referred to must have, be constructed, or operate in a specific orientation. Therefore, they should not be construed as limitations on the present invention. Furthermore, the terms "first," "second," "third," and the like are used solely to distinguish descriptions and should not be construed as indicating or implying relative importance.

[0036] In the description of the present invention, it should also be noted that, unless otherwise expressly specified or limited, the terms "disposed," "installed," "connected," and "connected" should be understood in a broad sense. For example, they may refer to fixed connections, detachable connections, or integral connections; they may refer to mechanical connections or electrical connections; they may refer to direct connections or indirect connections through an intermediate medium; and they may refer to internal communication between two components. Those skilled in the art will understand the specific meanings of the above terms in the present invention based on the specific circumstances.

[0037] To make the objectives, technical solutions, and advantages of the present invention more clearly understood, the present invention is further described in detail below with reference to the accompanying drawings and examples. However, it should be understood that the specific embodiments described herein are merely illustrative of the present invention and are not intended to limit the scope of the present invention. In addition, in the following description, descriptions of well-known structures and technologies are omitted to avoid unnecessary confusion of the present invention. Example 1

[0038] See also Figure 1-4 A modular management system for graphene batteries includes a pressure-resistant component 3 for placing a plurality of graphene batteries. A dividing fixture 2 is fixedly provided on one side of the pressure-resistant component 3. The graphene batteries are placed in the slots of the dividing fixture 2 and are elastically supported by the pressure-resistant component 3. By setting the dividing fixture 2, a plurality of slots can be divided out, and the processed graphene batteries can be placed in the slots of the dividing fixture 2, so that the bottom of the graphene battery is stably supported by the pressure-resistant component 3.

[0039] A pressure balancing component 1 is provided on the outside of the pressure-resistant component 3, and the pressure balancing component 1 is used to balance the extrusion force of the graphene battery on the pressure-resistant component 3; through the setting of the pressure balancing component 1, the extrusion force of the graphene battery on the pressure-resistant component 3 can be absorbed, and after the graphene battery is removed, the deformation of the pressure-resistant component 3 itself can be restored under the action of the pressure balancing component 1.

[0040] An adjusting component 4 is fixedly provided on the inner side of the middle end of the pressure-resistant component 3, and the adjusting component 4 adjusts the internal air pressure of the pressure-balancing component 1; through the setting of the adjusting component 4, not only the internal air pressure of the pressure-balancing component 1 can be adjusted, thereby adjusting the softness of the air cushion 302 in the pressure-resistant component 3, but also the internal air pressure of the pressure-resistant component 3 can be conveniently adjusted when air leakage occurs after long-term use of the entire system, thereby facilitating the stable use of the entire system and extending the service life.

[0041] Specifically, when in use, the processed graphene battery is placed in the slot of the dividing fixture 2 and elastically supported by the pressure-resistant component 3, so that the bottom of the graphene battery is stably supported by the pressure-resistant component 3; the top of the graphene battery is exposed outside the slot of the dividing fixture 2, and multiple graphene battery modular management systems are stacked up and down, so that the upper pressure-resistant component 3 is pressed on the top of the graphene battery, so that the top of the graphene battery is kept flush with the dividing fixture 2, and then the pressure balancing component 1 absorbs the extrusion force of the graphene battery on the pressure-resistant component 3; and when the graphene battery needs to be removed, the deformation of the pressure-resistant component 3 itself can be restored under the action of the pressure balancing component 1, and then the top of the graphene battery is exposed, which is convenient for removal.

[0042] The internal air pressure of the pressure-resistant component 3 can be adjusted by the adjustment component 4, thereby adjusting the softness of the air cushion 302 in the pressure-resistant component 3. In addition, when the entire system leaks after long-term use, the internal air pressure of the pressure-resistant component 3 can be conveniently adjusted, thereby facilitating the stable use of the entire system and extending its service life. Example 2

[0043] See also Figure 1-4 On the basis of the above embodiment, the graphene battery modular management system, the pressure-resistant component 3 includes an air block 301, an air cushion plate 302, a pressure regulating cabin 303, an adjusting groove 304, a pneumatic piston plate 305, a guide slide rod 306 and a positioning sleeve 307;

[0044] One side of the air hoverboard 302 is integrally connected to a plurality of air blocks 301, which are distributed in a rectangular array on the air hoverboard 302. The partitioning fixture 2 is fixed to one side of the air hoverboard 302 and wraps the air blocks 301 within its slots. The air blocks 301 are made of rubber or other soft or elastic materials. The purpose is to be able to deform or press downward when the graphene battery is squeezed, providing protection for the graphene battery, and also to be able to recover under the action of air pressure.

[0045] The other side of the air cushion 302 is integrally connected to the pressure regulating cabin 303. A regulating groove 304 is provided on one side of the pressure regulating cabin 303. The air pressure piston plate 305 is slidably connected to the inside of the regulating groove 304 and maintains a sealed connection with the regulating groove 304. The movement of the air pressure piston plate 305 in the regulating groove 304 can change the internal volume of the pressure regulating cabin 303, thereby compressing or releasing the gas inside the pressure regulating cabin 303 and controlling the pressure of the pressure regulating cabin 303. When the pressure in the pressure regulating cabin 303 is high, the air pressure on the gas block 301 is relatively high, and the supporting force of the gas block 301 is greater. On the contrary, the supporting force of the gas block 301 is weaker. Therefore, it can be used and adjusted according to actual needs, and has good flexibility.

[0046] Furthermore, in this embodiment, one side of the pneumatic piston plate 305 is positioned and connected to the side inner wall of the pressure regulating cabin 303 through a guide slide 306 and a positioning sleeve 307. One end of the guide slide 306 is fixedly connected to the pneumatic piston plate 305, and the other end is slidably connected to the inside of the positioning sleeve 307. One end of the positioning sleeve 307 is fixed to the side inner wall of the pressure regulating cabin 303. Through the setting of the guide slide 306 and the positioning sleeve 307, the moving trajectory of the pneumatic piston plate 305 can be further limited, thereby ensuring that the pneumatic piston plate 305 moves and operates more stably.

[0047] Furthermore, in this embodiment, a pressure gauge is fixedly installed inside the pressure regulating cabin 303, and the pressure gauge is connected to the signal terminal of an external person by wireless communication. Therefore, through the setting of the pressure gauge, the internal pressure of the pressure regulating cabin 303 can be monitored in real time, which facilitates timely adjustment of the response plan.

[0048] Specifically, during use, the air pressure piston plate 305 moves inside the regulating groove 304, thereby changing the internal volume of the pressure regulating cabin 303, compressing or releasing the gas inside the pressure regulating cabin 303, and then controlling the pressure of the pressure regulating cabin 303. When the gas inside the pressure regulating cabin 303 is compressed, the pressure of the pressure regulating cabin 303 increases, and the pressing air pressure on the gas block 301 is relatively large, and the supporting force of the gas block 301 is greater. Conversely, the supporting force of the gas block 301 is smaller. Example 3

[0049] See also Figure 1-2 On the basis of the above embodiment, the graphene battery modular management system, the pressure balance component 1 includes an outer frame plate 101, a sealing plate 102, a branch air pipe 103, a main inlet pipe 104, an air cylinder 105, a piston rod 106, a top plate 107, a slide rail 108, a spring 109 and a limiting column 110;

[0050] The sealing plate 102 is fixedly covered on one side of the outer frame plate 101. The interior of the outer frame plate 101 is hollow, and its inner ring is fixedly sleeved on the outer walls of the air cushion plate 302 and the pressure regulating chamber 303. A plurality of branch air pipes 103 are provided, one end of which is fixedly connected to the pressure regulating chamber 303 and the other end is fixedly connected to the main intake pipe 104. One end of the main intake pipe 104 is blocked, and the other end is fixedly connected to the air cylinder 105. The piston rod 106 is slidably arranged inside the air cylinder 105, and one end of which is fixedly connected to the top plate 107. The spring 109 has one end pressed against the top plate 107 and the other end pressed against the limiting column 110, which is fixedly installed inside the outer frame plate 101.

[0051] When the graphene battery is subjected to compression, the gas block 301 may be deformed, thereby increasing the air pressure in the air cushion plate 302 and the pressure regulating cabin 303 in the pressure-resistant component 3. The air pressure then enters the main inlet pipe 104 through the branch air pipe 103, and then enters the gas cylinder 105 through the main inlet pipe 104, thereby pushing the piston rod 106 and the top plate 107 in the gas cylinder 105 to move. The piston rod 106 presses the spring 109 through the top plate 107, so that the spring 109 is subjected to compression force, which can absorb the air pressure in the air cushion plate 302 and the pressure regulating cabin 303 and convert it into elastic potential energy. When the graphene battery is not subjected to compression, the gas block 301 can be restored to its original shape under the action of the spring 109.

[0052] Furthermore, in this embodiment, both sides of the top plate 107 are slidably connected to the inside of the outer frame plate 101 through slide rails 108, and the slide rails 108 are fixedly attached to the inner side walls of the outer frame plate 101; through the setting of the slide rails 108, the top plate 107 can move stably along the track, thereby increasing the movement stability of the top plate 107.

[0053] Specifically, during use, the processed graphene battery is placed in the slot dividing the fixing frame 2, and its bottom is stably supported by the pressure-resistant component 3. When the graphene battery is subjected to extrusion pressure, the gas block 301 can be deformed, thereby increasing the air pressure in the air cushion plate 302 and the pressure regulating cabin 303 in the pressure-resistant component 3, so that the air pressure enters the gas cylinder 105 through the branch air pipe 103 and the main intake pipe 104, and then pushes the piston rod 106 and the top plate 107 to move, so that the spring 109 can be subjected to compression force, which can absorb the deformation extrusion force on the gas block 301 and convert it into elastic potential energy.

[0054] When the graphene battery is no longer subjected to compression, the spring 109 automatically resets, pushing the gas in the cylinder 105 back into the air cushion 302 and the pressure regulating chamber 303, and finally restoring the shape of the gas block 301.

[0055] The solution in this embodiment can be selectively combined with the solutions in other embodiments for use. Example 4

[0056] See also Figure 1-4 On the basis of the above embodiment, the graphene battery modular management system, the adjustment component 4 includes a conical tooth adjustment bolt 401, an upper bridge plate 402, a connecting plate 403, a lower bridge plate 404, a bidirectional screw 405, a threaded sleeve 406, a movable traction rod 407 and a conical connecting gear 408;

[0057] The upper bridge plate 402 is integrally connected between the two air cushion plates 302, and the lower bridge plate 404 is integrally connected between the two pressure regulating chambers 303. A gap is provided between the upper bridge plate 402 and the lower bridge plate 404. Two connecting plates 403 are provided and fixedly connected between the upper bridge plate 402 and the lower bridge plate 404.

[0058] The two ends of the bidirectional screw rod 405 are rotatably set on the connecting plate 403, and its two ends are rotatably connected to multiple threaded sleeves 406, and the two sides of the threaded sleeve 406 are respectively hinged to movable traction rods 407, and one end of the movable traction rod 407 is simultaneously hinged to the pneumatic piston plate 305; there are at least three threaded sleeves 406 on each end of the bidirectional screw rod 405, through the cooperation of the bidirectional screw rod 405 and the threaded sleeve 406, and one end of the threaded sleeve 406 is connected and limited to the pneumatic piston plate 305 through the movable traction rod 407, so that when the bidirectional screw rod 405 rotates, the bidirectional screw rod 405 can drive the threaded sleeve 406 to move, and under the action of the movable traction rod 407, it can also drive the pneumatic piston plate 305 to move.

[0059] The middle end of the bidirectional screw rod 405 is fixedly sleeved with a conical connecting gear 408, and one side of the conical connecting gear 408 is meshed with the conical tooth adjusting bolt 401, and one end of the conical tooth adjusting bolt 401 is fixed to the middle end of the upper bridge plate 402 through a bearing; the conical tooth adjusting bolt 401 is rotatably connected to the inside of the upper bridge plate 402, and a screwdriver can be used to rotate the top end of the conical tooth adjusting bolt 401, so that the conical tooth adjusting bolt 401 is rotated, and the conical tooth structure at the bottom end of the conical tooth adjusting bolt 401 also rotates together, so that the conical tooth structure at the bottom end of the conical tooth adjusting bolt 401 can drive the conical connecting gear 408 to rotate, thereby causing the bidirectional screw rod 405 to rotate.

[0060] Specifically, when in use, the conical tooth adjustment bolt 401 is rotated by a screwdriver, and the conical tooth structure at the bottom end of the conical tooth adjustment bolt 401 can drive the conical connecting gear 408 to rotate, thereby causing the bidirectional screw rod 405 to rotate. When the bidirectional screw rod 405 rotates, the bidirectional screw rod 405 can drive the threaded sleeve 406 to move, and under the action of the movable traction rod 407, it can drive the pneumatic piston plate 305 to move.

[0061] The solution in this embodiment can be selectively combined with the solutions in other embodiments for use.

[0062] It should be noted that although the above embodiments have been described herein, this does not limit the scope of patent protection of the present invention. Therefore, based on the innovative concept of the present invention, changes and modifications to the embodiments described herein, or equivalent structures, equivalent processes, or equivalent functional transformations made using the contents of the present invention's specification and drawings, and direct or indirect application of the above technical solutions to other related technical fields, are all included in the scope of protection of the present invention's patent.

Claims

1. A modular management system for graphene batteries, characterized by: It comprises a pressure-resistant component (3) for placing a plurality of graphene batteries, a partitioning fixture (2) being fixedly provided on one side of the pressure-resistant component (3), the graphene batteries being placed in slots of the partitioning fixture (2) and being elastically supported by the pressure-resistant component (3); A pressure balancing component (1) is provided on the outside of the pressure-resistant component (3), and the pressure balancing component (1) is used to balance the extrusion force of the graphene battery on the pressure-resistant component (3); An adjusting component (4) is fixedly provided on the inner side of the middle end of the pressure-resistant component (3), and the adjusting component (4) adjusts the internal air pressure of the pressure-balancing component (1); The pressure-resistant assembly (3) includes an air block (301), an air cushion plate (302), a pressure regulating cabin (303), an adjusting groove (304), an air pressure piston plate (305), a guide slide rod (306) and a positioning sleeve (307); One side of the air cushion plate (302) is integrally connected to a plurality of the air blocks (301), and the plurality of the air blocks (301) are distributed in a rectangular array on the air cushion plate (302). The dividing fixing frame (2) is fixed to one side of the air cushion plate (302) and wraps the air blocks (301) inside the slots thereof; The other side of the air cushion plate (302) is integrally connected to the pressure regulating cabin (303), and the regulating groove (304) is provided on one side of the pressure regulating cabin (303). The air pressure piston plate (305) is slidably connected inside the regulating groove (304) and maintains a sealed connection with the regulating groove (304).

2. A graphene battery modular management system according to claim 1, characterized in that: One side of the pneumatic piston plate (305) is positioned and connected to the inner side wall of the pressure regulating chamber (303) through the guide slide bar (306) and the positioning sleeve (307), one end of the guide slide bar (306) is fixedly connected to the pneumatic piston plate (305), and the other end is slidably connected to the inside of the positioning sleeve (307), and one end of the positioning sleeve (307) is fixed to the inner side wall of the pressure regulating chamber (303).

3. The graphene battery modular management system according to claim 1, characterized in that: A barometer is also fixedly installed inside the pressure regulating cabin (303).

4. The graphene battery modular management system according to claim 1, characterized in that: The adjustment assembly (4) comprises a conical tooth adjustment bolt (401), an upper bridge plate (402), a connecting plate (403), a lower bridge plate (404), a bidirectional screw rod (405), a threaded sleeve (406), a movable traction rod (407) and a conical connecting gear (408); The upper bridge plate (402) is integrally connected between the two air cushion plates (302), and the lower bridge plate (404) is integrally connected between the two pressure regulating cabins (303), with a gap being provided between the upper bridge plate (402) and the lower bridge plate (404); Two connecting plates (403) are provided, and are fixedly connected between the upper bridge plate (402) and the lower bridge plate (404); The ends of the bidirectional screw rod (405) are rotatably arranged on the connecting plate (403), and the ends are rotatably connected to the plurality of threaded sleeves (406). Both sides of the threaded sleeves (406) are respectively hinged to the movable traction rod (407), and one end of the movable traction rod (407) is simultaneously hinged to the pneumatic piston plate (305).

5. A graphene battery modular management system according to claim 4, characterized in that: The middle end of the bidirectional screw rod (405) is fixedly sleeved with the conical connecting gear (408), one side of the conical connecting gear (408) is meshed with the conical tooth adjustment bolt (401), and one end of the conical tooth adjustment bolt (401) is fixed inside the middle end of the upper bridge plate (402) through a bearing.

6. The graphene battery modular management system according to claim 1, characterized in that: The pressure balancing assembly (1) comprises an outer frame plate (101), a sealing plate (102), a branch air pipe (103), a main inlet pipe (104), an air cylinder (105), a piston rod (106), a top plate (107), a slide rail (108), a spring (109) and a limiting column (110); The sealing plate (102) is fixedly covered on one side of the outer frame plate (101); the inner portion of the outer frame plate (101) is hollow, and the inner ring thereof is fixedly sleeved on the outer walls of the air cushion plate (302) and the pressure regulating cabin (303); A plurality of branch air pipes (103) are provided, and one end of each branch air pipe is fixedly connected to the pressure regulating cabin (303), and the other end is fixedly connected to the main inlet pipe (104); one end of the main inlet pipe (104) is blocked, and the other end is fixedly connected to the air cylinder (105); the piston rod (106) is slidably arranged inside the air cylinder (105), and one end of each branch air pipe is fixedly connected to the top plate (107); one end of the spring (109) is pressed against the top plate (107), and the other end is pressed against the limiting column (110), and the limiting column (110) is fixedly installed inside the outer frame plate (101).

7. A modular graphene battery management system according to claim 6, characterized in that: Both sides of the top plate (107) are slidably connected to the interior of the outer frame plate (101) via the slide rails (108), and the slide rails (108) are fixedly attached to the inner side walls of the outer frame plate (101).

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