Liquid-cooled chemical energy storage equipment

Abstract

The invention belongs to the technical field of liquid-cooled chemical energy storage equipment, and particularly relates to liquid-cooled chemical energy storage equipment which comprises liquid-cooled chemical energy storage equipment and further comprises a base, the base is arranged on the bottom face of the liquid-cooled chemical energy storage equipment, the liquid-cooled chemical energy storage equipment is located in an inner cavity of the base, a plurality of first sliding grooves are formed in the inner wall of the base, and a plurality of second sliding grooves are formed in the inner wall of the base; a plurality of first sliding grooves are formed in the base, a plurality of first sliding blocks are slidably connected into the first sliding grooves correspondingly, a plurality of first threaded rods are in threaded connection into the first sliding blocks correspondingly, the first threaded rods are located in the first sliding grooves correspondingly and rotationally connected with the first sliding grooves correspondingly, and a bottom plate is fixedly connected between the first sliding blocks; the top surface of the bottom plate is fixed with the bottom surface of the liquid-cooled chemical energy storage equipment; according to the liquid cooling system for the liquid-cooled chemical energy storage equipment, the problem that the liquid-cooled chemical energy storage equipment is damaged due to the fact that external accumulated water possibly enters the liquid cooling system of the liquid-cooled chemical energy storage equipment is solved.

Description

Technical Field

[0001] The present invention belongs to the technical field of liquid-cooled chemical energy storage devices, and particularly relates to a liquid-cooled chemical energy storage device. Background Art

[0002] The liquid-cooled chemical energy storage device is a new type of energy storage thermal management technology, which realizes efficient heat dissipation through liquid convection heat transfer. Compared with the air-cooled system, the liquid-cooling technology has the advantages of high heat dissipation efficiency, good uniformity, and small floor area. The main components of the liquid-cooling energy storage system include a liquid-cooling unit, an energy storage battery cold plate, a circulation pipeline, a quick connector, etc. The liquid-cooling technology is widely used in the field of energy storage batteries, and can effectively control the battery temperature and improve the service life and safety of the battery.

[0003] When the traditional liquid-cooled chemical energy storage device is in use, it does not have a mechanism for height adjustment. When the liquid-cooled chemical energy storage device is used in an area with frequent rainstorms and encounters water accumulation on the road surface, the liquid-cooled chemical energy storage device may be immersed in the accumulated water, resulting in the possible entry of external accumulated water into the liquid-cooling system of the liquid-cooled chemical energy storage device, causing damage to the liquid-cooled chemical energy storage device. In view of this, we propose a liquid-cooled chemical energy storage device. Summary of the Invention

[0004] The purpose of the present invention is to provide a liquid-cooled chemical energy storage device to solve the problems raised in the above background art.

[0005] In view of this, the present invention provides a liquid-cooled chemical energy storage device, including a liquid-cooled chemical energy storage device, and further including: A base, the base is arranged on the bottom surface of the liquid-cooled chemical energy storage device, and the liquid-cooled chemical energy storage device is located in the inner cavity of the base. A plurality of first sliding grooves are opened on the inner wall of the base, and a plurality of first sliders are respectively slidably connected in the plurality of first sliding grooves. A plurality of first threaded rods are respectively threadedly connected in the plurality of first sliders, and the plurality of first threaded rods are respectively located in the plurality of first sliding grooves and are respectively rotatably connected to the plurality of first sliding grooves. A bottom plate is fixedly connected between the plurality of first sliders, and the top surface of the bottom plate is fixedly connected to the bottom surface of the liquid-cooled chemical energy storage device; Two movable grooves, the two movable grooves are opened in the base and are respectively communicated with the plurality of first sliding grooves. A plurality of synchronous wheels are respectively rotatably connected in the two movable grooves, and one ends of the plurality of synchronous wheels respectively extend into the plurality of first sliding grooves and are respectively fixedly connected to the bottom ends of the plurality of first threaded rods. Two synchronous belts are respectively meshed between the plurality of synchronous wheels; A driving component, the driving component is located in the base and is used to drive two of the synchronous wheels to rotate; Two second sliding grooves are provided. The two second sliding grooves are formed in the base and communicate with the two movable grooves respectively. A plurality of second sliders are slidably connected in the two second sliding grooves respectively. The tops of the plurality of second sliders are rotatably connected with a plurality of first pressing blocks respectively. The plurality of first pressing blocks are located on both sides of the two synchronous belts respectively and are in contact with the two synchronous belts respectively; An adjusting assembly is provided. The adjusting assembly is located in the base and is used to drive the plurality of second sliders to move.

[0006] Based on the above structure, by providing the first sliding grooves, the first sliders and the bottom plate, it is ensured that the plurality of first sliders can drive the bottom plate to move up and down along the plurality of first sliding grooves respectively. By providing the first threaded rods, when the plurality of first threaded rods rotate, the plurality of first sliders will be respectively affected by the threads of the plurality of first threaded rods and move upward along the plurality of first sliding grooves by the same distance. By providing the movable grooves and the synchronous wheels, it is ensured that the plurality of synchronous wheels can rotate in the two movable grooves respectively. By providing the driving assembly and the synchronous belts, it is ensured that the user can drive two of the synchronous wheels to rotate through the driving assembly, and the two synchronous wheels respectively drive the other two synchronous wheels to rotate through the two synchronous belts, so that the plurality of synchronous wheels rotate simultaneously. By providing the second sliding grooves, the second sliders and the first pressing blocks, it is ensured that the plurality of second sliders can slide in the two second sliding grooves respectively, and the plurality of second sliders drive the plurality of first pressing blocks to move respectively. By providing the adjusting assembly, the user can drive the plurality of second sliders to move through the adjusting assembly, and the plurality of second sliders drive the plurality of first pressing blocks to move respectively, so that the corresponding two first pressing blocks approach or move away from each other by the same distance, ensuring that the user can adjust the tension of the two synchronous belts.

[0007] In the above technical solution, further, the driving assembly includes: Two first gear grooves are provided. The two first gear grooves are formed in the base and communicate with the two movable grooves respectively. Two first bevel gears and two second bevel gears are rotatably connected in the two first gear grooves respectively. The two first bevel gears are meshed with the two second bevel gears respectively. One ends of the two first bevel gears respectively penetrate through the inner walls of the two first gear grooves and extend into the two movable grooves respectively, and are fixed to two of the synchronous wheels respectively; A first through groove is provided. The first through groove is formed in the base and communicates with the two first gear grooves. A first connecting rod is rotatably connected in the first through groove. Two ends of the first connecting rod extend into the two first gear grooves respectively and are fixed to the two second bevel gears respectively; A second gear groove is formed on the inner wall of the first through groove. A third bevel gear and a fourth bevel gear are rotatably connected in the second gear groove, and the third bevel gear and the fourth bevel gear mesh with each other. The third bevel gear is fixed to the peripheral side of the first connecting rod. A motor groove is formed on the inner wall of the second gear groove. A motor is fixedly connected in the motor groove, and an output shaft of the motor extends into the second gear groove and is fixed to the fourth bevel gear.

[0008] In this technical solution, it is ensured that the user can drive multiple synchronous pulleys to rotate simultaneously.

[0009] In the above technical solution, further, one end of the first bevel gear is rotatably connected to the movable groove.

[0010] In this technical solution, it is ensured that when the first bevel gear rotates, one end of the first bevel gear can rotate normally in the movable groove.

[0011] In the above technical solution, further, both ends of the first connecting rod are respectively rotatably connected to two first gear grooves.

[0012] In this technical solution, it is ensured that when the first connecting rod rotates, both ends of the first connecting rod can rotate normally in the two first gear grooves respectively.

[0013] In the above technical solution, further, the output shaft of the motor is rotatably connected to the second gear groove.

[0014] In this technical solution, it is ensured that when the user starts the motor, the output shaft of the motor can rotate normally in the second gear groove.

[0015] In the above technical solution, further, the adjusting assembly includes: Two bidirectional threaded rods are respectively rotatably connected in two second sliding grooves and are respectively threadedly connected to a plurality of second sliders; A second through groove is formed in the base and is communicated with the two second sliding grooves. A second connecting rod is rotatably connected in the second through groove, and both ends of the second connecting rod respectively extend into the two second sliding grooves and are respectively fixed to one ends of the two bidirectional threaded rods; A rotating groove is formed on the inner wall of one of the second sliding grooves and is communicated with the outside. A turntable is rotatably connected in the rotating groove, and one end of the turntable extends to the outside and is rotatably connected to the base. The other end of the turntable extends into one of the second sliding grooves and is fixed to the other end of one of the bidirectional threaded rods; A fixing component is located in the turntable and is used to fix the turntable.

[0016] In this technical solution, it is ensured that the user can drive multiple second sliders to move.

[0017] In the above technical solution, further, the fixing component includes: A third chute, which is opened in the turntable and communicates with the outside. A second extrusion block is slidably connected in the third chute. A second threaded rod is threadedly connected in the second extrusion block, and the second threaded rod is located on the inner wall of the third chute and is rotatably connected to the third chute. One end of the second threaded rod is fixedly connected to a rotating rod, and one end of the rotating rod penetrates through the inner wall of the third chute and extends to the outside to be rotatably connected to the turntable.

[0018] In this technical solution, it is ensured that the turntable will not rotate under the influence of the outside.

[0019] In the above technical solution, further, the two threads on the bidirectional threaded rod have opposite helix directions and the same pitch.

[0020] In this technical solution, it is ensured that when the bidirectional threaded rod rotates, the corresponding two second sliders will be affected by the two threads with opposite helix directions on the bidirectional threaded rod and move closer to or away from each other.

[0021] In the above technical solution, further, the two ends of the second connecting rod are respectively rotatably connected to the two second chutes.

[0022] In this technical solution, it is ensured that when the second connecting rod rotates, the two ends of the second connecting rod will rotate normally in the two second chutes respectively.

[0023] In the above technical solution, further, the other end of the turntable is rotatably connected to one of the second chutes.

[0024] In this technical solution, it is ensured that when the turntable rotates, the other end of the turntable will rotate normally in one of the second chutes.

[0025] The beneficial effects of the present invention are: 1. The liquid-cooled chemical energy storage device, through the first chute, the first slider and the bottom plate provided, ensures that multiple first sliders can drive the bottom plate to move up and down along multiple first chutes respectively. Through the first threaded rod provided, when multiple first threaded rods rotate, multiple first sliders will be respectively affected by the threads of multiple first threaded rods and move upward along multiple first chutes by the same distance. Through the movable groove and the synchronous pulley provided, it is ensured that multiple synchronous pulleys can rotate in two movable grooves respectively. Through the driving component and the synchronous belt provided, it is ensured that the user can drive two of the synchronous pulleys to rotate through the driving component, and let the two synchronous pulleys drive the other two synchronous pulleys to rotate through two synchronous belts respectively, so that multiple synchronous pulleys rotate simultaneously, solving the problem that external accumulated water may enter the liquid-cooling system of the liquid-cooled chemical energy storage device and cause damage to the liquid-cooled chemical energy storage device.

[0026] 2. The liquid-cooled chemical energy storage device, through the second chute, the second slider and the first extrusion block provided, ensures that multiple second sliders can slide in two second chutes respectively, and let multiple second sliders drive multiple first extrusion blocks to move respectively. Through the adjustment component provided, the user can drive multiple second sliders to move through the adjustment component, and let multiple second sliders drive multiple first extrusion blocks to move respectively, so that the corresponding two first extrusion blocks approach each other or move away from each other by the same distance, ensuring that the user can adjust the tension of the two synchronous belts.

[0027] 3. The liquid-cooled chemical energy storage device, through the rotating groove and the turntable provided, ensures that the turntable can rotate in the rotating groove. Through the fixing component provided, it is ensured that the user can fix the turntable in the rotating groove through the fixing component and cannot rotate, ensuring that the turntable will not be affected by the outside world and rotate. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 is the overall structural schematic diagram of the present invention; Figure 2 is the regional structural schematic diagram of the base in the present invention; Figure 3 is one of the internal structural schematic diagrams of the base in the present invention; Figure 4 is the sectional structural schematic diagram of the base in the present invention; Figure 5 is the other internal structural schematic diagram of the base in the present invention; Figure 6 is one of the internal structural schematic diagrams of the turntable in the present invention; Figure 7 is the other internal structural schematic diagram of the turntable in the present invention.

[0029] The labels in the figure are shown as: 1. Liquid-cooled chemical energy storage device; 2. Base; 3. First chute; 4. First slider; 5. First threaded rod; 6. Bottom plate; 7. Activity slot; 8. Synchronous pulley; 9. Synchronous belt; 10. Second chute; 11. Second slider; 12. First extrusion block; 13. First gear slot; 14. First bevel gear; 15. Second bevel gear; 16. First through slot; 17. First connecting rod; 18. Second gear slot; 19. Third bevel gear; 20. Fourth bevel gear; 21. Motor slot; 22. Motor; 23. Bidirectional threaded rod; 24. Second through slot; 25. Second connecting rod; 26. Rotation slot; 27. Turntable; 28. Third chute; 29. Second extrusion block; 30. Second threaded rod; 31. Rotating rod. Detailed implementation mode

[0030] The following is further described in detail with reference to the attached Figures 1 - 7 This application is further described in detail.

[0031] In this application, the orientation or positional relationship indicated by terms such as "upper", "lower", "left", "right", "front", "rear", "top", "bottom", "inner", "outer", "middle", "vertical", "horizontal", etc. is the orientation or positional relationship based on the orientation or positional relationship shown in the drawings. These terms are mainly used to better describe this application and its embodiments, and are not used to limit that the indicated device, component or component must have a specific orientation, or be constructed and operated in a specific orientation.

[0032] Embodiment 1: This embodiment provides a liquid-cooled chemical energy storage device, including the liquid-cooled chemical energy storage device 1, and further including: Base 2, the base 2 is arranged on the bottom surface of the liquid-cooled chemical energy storage device 1, and the liquid-cooled chemical energy storage device 1 is located in the inner cavity of the base 2. A plurality of first chutes 3 are opened on the inner wall of the base 2. A plurality of first sliders 4 are respectively slidably connected in the plurality of first chutes 3. A plurality of first threaded rods 5 are respectively threadedly connected in the plurality of first sliders 4. And the plurality of first threaded rods 5 are respectively located in the plurality of first chutes 3 and are respectively rotatably connected to the plurality of first chutes 3. A bottom plate 6 is fixedly connected between the plurality of first sliders 4, and the top surface of the bottom plate 6 is fixedly connected to the bottom surface of the liquid-cooled chemical energy storage device 1; Two activity slots 7, the two activity slots 7 are opened in the base 2 and are respectively communicated with the plurality of first chutes 3. A plurality of synchronous pulleys 8 are respectively rotatably connected in the two activity slots 7. And one end of each of the plurality of synchronous pulleys 8 respectively extends into the plurality of first chutes 3 and is respectively fixedly connected to the bottom ends of the plurality of first threaded rods 5. Two synchronous belts 9 are respectively meshed between the plurality of synchronous pulleys 8; Drive assembly, the drive assembly is located in the base 2 and is used to drive two of the synchronous pulleys 8 to rotate; Two second sliding grooves 10 are provided. The two second sliding grooves 10 are formed in the base 2 and are respectively communicated with the two moving grooves 7. A plurality of second sliding blocks 11 are respectively slidably connected in the two second sliding grooves 10. The tops of the plurality of second sliding blocks 11 are respectively rotatably connected with a plurality of first pressing blocks 12. The plurality of first pressing blocks 12 are respectively located on both sides of the two synchronous belts 9 and are respectively in contact with the two synchronous belts 9. An adjusting assembly is provided. The adjusting assembly is located in the base 2 and is used to drive the plurality of second sliding blocks 11 to move.

[0033] Embodiment 2: This embodiment provides a liquid-cooled chemical energy storage device. In addition to including the technical solutions of the above embodiment, it also has the following technical features. The driving assembly includes: Two first gear grooves 13 are provided. The two first gear grooves 13 are formed in the base 2 and are respectively communicated with the two moving grooves 7. Two first bevel gears 14 and two second bevel gears 15 are respectively rotatably connected in the two first gear grooves 13. The two first bevel gears 14 are respectively meshed with the two second bevel gears 15. One ends of the two first bevel gears 14 respectively penetrate through the inner walls of the two first gear grooves 13 and extend into the two moving grooves 7 respectively, and are respectively fixed to two of the synchronous wheels 8. A first through groove 16 is provided. The first through groove 16 is formed in the base 2 and is communicated with the two first gear grooves 13. A first connecting rod 17 is rotatably connected in the first through groove 16. The two ends of the first connecting rod 17 respectively extend into the two first gear grooves 13 and are respectively fixed to the two second bevel gears 15. A second gear groove 18 is provided. The second gear groove 18 is formed on the inner wall of the first through groove 16. A third bevel gear 19 and a fourth bevel gear 20 are rotatably connected in the second gear groove 18. The third bevel gear 19 and the fourth bevel gear 20 are meshed with each other. The third bevel gear 19 is fixed to the circumferential side of the first connecting rod 17. A motor groove 21 is provided. The motor groove 21 is formed on the inner wall of the second gear groove 18. A motor 22 is fixedly connected in the motor groove 21. The output shaft of the motor 22 extends into the second gear groove 18 and is fixed to the fourth bevel gear 20.

[0034] Among them, when in use, the user starts the motor 22, and the output shaft of the motor 22 drives the fourth bevel gear 20 to rotate in the second gear groove 18, so that the fourth bevel gear 20 drives the third bevel gear 19 to rotate in the second gear groove 18, and the third bevel gear 19 drives the first connecting rod 17 to rotate in the first through groove 16, so that both ends of the first connecting rod 17 drive two second bevel gears 15 to rotate in two first gear grooves 13 respectively, and the two second bevel gears 15 drive two first bevel gears 14 to rotate in two first gear grooves 13 respectively. When the two first bevel gears 14 rotate, the two first bevel gears 14 will drive two of the synchronous pulleys 8 to rotate in two movable grooves 7 respectively, and the two synchronous pulleys 8 drive the other two synchronous pulleys 8 to rotate through two synchronous belts 9 respectively, ensuring that the user can drive multiple synchronous pulleys 8 to rotate simultaneously.

[0035] Embodiment 3: This embodiment provides a liquid-cooled chemical energy storage device. In addition to including the technical solutions of the above embodiments, it also has the following technical features: one end of the first bevel gear 14 is rotatably connected to the movable groove 7.

[0036] Among them, it is ensured that when the first bevel gear 14 rotates, one end of the first bevel gear 14 can rotate normally in the movable groove 7.

[0037] Embodiment 4: This embodiment provides a liquid-cooled chemical energy storage device. In addition to including the technical solutions of the above embodiments, it also has the following technical features: both ends of the first connecting rod 17 are rotatably connected to two first gear grooves 13 respectively.

[0038] Among them, it is ensured that when the first connecting rod 17 rotates, both ends of the first connecting rod 17 can rotate normally in two first gear grooves 13 respectively.

[0039] Embodiment 5: This embodiment provides a liquid-cooled chemical energy storage device. In addition to including the technical solutions of the above embodiments, it also has the following technical features: the output shaft of the motor 22 is rotatably connected to the second gear groove 18.

[0040] Among them, it is ensured that when the user starts the motor 22, the output shaft of the motor 22 can rotate normally in the second gear groove 18.

[0041] Embodiment 6: This embodiment provides a liquid-cooled chemical energy storage device. In addition to including the technical solutions of the above embodiments, it also has the following technical features: the adjusting assembly includes: Two bidirectional threaded rods 23, which are respectively rotatably connected in two second sliding grooves 10 and are respectively threadedly connected to a plurality of second sliders 11; The second through groove 24 is opened in the base 2 and communicates with the two second sliding grooves 10. A second connecting rod 25 is rotatably connected in the second through groove 24, and both ends of the second connecting rod 25 extend into the two second sliding grooves 10 respectively and are fixed to one end of the two bidirectional threaded rods 23 respectively; The rotating groove 26 is opened on the inner wall of one of the second sliding grooves 10 and communicates with the outside. A turntable 27 is rotatably connected in the rotating groove 26. One end of the turntable 27 extends to the outside and is rotatably connected to the base 2. The other end of the turntable 27 extends into one of the second sliding grooves 10 and is fixed to the other end of one of the bidirectional threaded rods 23; The fixing component is located in the turntable 27 and is used to fix the turntable 27.

[0042] Among them, when in use, the user rotates the turntable 27 by hand, so that the other end of the turntable 27 drives one of the bidirectional threaded rods 23 to rotate in one of the liquid-cooled chemical energy storage devices 1, and the one bidirectional threaded rod 23 drives the other bidirectional threaded rod 23 to rotate in the other second sliding groove 10 through the second connecting rod 25. When the two bidirectional threaded rods 23 rotate, the multiple second sliders 11 will be respectively affected by the two sections of threads with opposite helix directions on the two bidirectional threaded rods 23 and move along the two second sliding grooves 10 respectively, so that the corresponding two second sliders 11 approach or move away from each other, ensuring that the user can drive the multiple second sliders 11 to move.

[0043] Embodiment 7: This embodiment provides a liquid-cooled chemical energy storage device. In addition to including the technical solutions of the above embodiments, it also has the following technical features. The fixing component includes: The third sliding groove 28 is opened in the turntable 27 and communicates with the outside. A second pressing block 29 is slidably connected in the third sliding groove 28. A second threaded rod 30 is threadedly connected in the second pressing block 29. The second threaded rod 30 is located on the inner wall of the third sliding groove 28 and is rotatably connected to the third sliding groove 28. One end of the second threaded rod 30 is fixedly connected to a rotating rod 31, and one end of the rotating rod 31 penetrates through the inner wall of the third sliding groove 28 and extends to the outside and is rotatably connected to the turntable 27.

[0044] Among them, when in use, when the turntable 27 rotates to a suitable position, the user rotates the rotating rod 31 by hand, so that the rotating rod 31 drives the second threaded rod 30 to rotate in the third sliding groove 28, and the second pressing block 29 is affected by the thread of the second threaded rod 30 and moves along the third sliding groove 28 towards the direction of the base 2. When the second pressing block 29 moves to a position where it cannot move, the second pressing block 29 will tightly press on the base 2, fixing the turntable 27 in the rotating groove 26 and preventing it from rotating, ensuring that the turntable 27 will not be affected by the outside and rotate.

[0045] Embodiment 8: This embodiment provides a liquid-cooled chemical energy storage device. In addition to including the technical solutions of the above embodiments, it also has the following technical features. The two sections of threads on the bidirectional threaded rod 23 have opposite helix directions and the same pitch.

[0046] Among them, it is ensured that when the bidirectional threaded rod 23 rotates, the corresponding two second sliders 11 will be affected by the two sections of threads with opposite helix directions on the bidirectional threaded rod 23 and move closer to or away from each other.

[0047] Embodiment 9: This embodiment provides a liquid-cooled chemical energy storage device. In addition to including the technical solutions of the above embodiments, it also has the following technical features. The two ends of the second connecting rod 25 are respectively rotatably connected to the two second chutes 10.

[0048] Among them, it is ensured that when the second connecting rod 25 rotates, the two ends of the second connecting rod 25 will respectively rotate normally within the two second chutes 10.

[0049] Embodiment 10: This embodiment provides a liquid-cooled chemical energy storage device. In addition to including the technical solutions of the above embodiments, it also has the following technical features. The other end of the turntable 27 is rotatably connected to one of the second chutes 10.

[0050] Among them, it is ensured that when the turntable 27 rotates, the other end of the turntable 27 will rotate normally within one of the second chutes 10.

[0051] Working principle: When the user knows through the weather forecast that continuous heavy rains will occur in the near future, the user starts the motor 22, and the output shaft of the motor 22 drives the fourth bevel gear 20 to rotate within the second gear groove 18, so that the fourth bevel gear 20 drives the third bevel gear 19 to rotate within the second gear groove 18, and the third bevel gear 19 drives the first connecting rod 17 to rotate within the first through groove 16, so that the two ends of the first connecting rod 17 respectively drive the two second bevel gears 15 to rotate within the two first gear grooves 13, and the two second bevel gears 15 respectively drive the two first bevel gears 14 to rotate within the two first gear grooves 13. When the two first bevel gears 14 rotate, the two first bevel gears 14 will respectively drive two of the synchronous wheels 8 to rotate within the two movable grooves 7, and the two of the synchronous wheels 8 respectively drive the other two synchronous wheels 8 to rotate through the two synchronous belts 9, ensuring that the user can drive multiple synchronous wheels 8 to rotate simultaneously. When the multiple synchronous wheels 8 rotate, the multiple synchronous wheels 8 will respectively drive the multiple first threaded rods 5 to rotate within the multiple first chutes 3, and the multiple first sliders 4 will be respectively affected by the threads of the multiple first threaded rods 5 and move upward along the multiple first chutes 3, so that the multiple first sliders 4 drive the liquid-cooled chemical energy storage device 1 to move upward through the bottom plate 6. When the liquid-cooled chemical energy storage device 1 moves to a suitable position, the user turns off the motor 22; During use, the user rotates the turntable 27 by hand, and the other end of the turntable 27 drives one of the bidirectional threaded rods 23 to rotate within one of the liquid-cooled chemical energy storage devices 1, causing one of the bidirectional threaded rods 23 to drive the other bidirectional threaded rod 23 to rotate within the other second chute 10 through the second connecting rod 25. When the two bidirectional threaded rods 23 rotate, multiple second sliders 11 will be respectively affected by the two sections of threads with opposite helix directions on the two bidirectional threaded rods 23 and move along the two second chutes 10 respectively, causing the corresponding two second sliders 11 to approach or move away from each other, ensuring that the user can drive the multiple second sliders 11 to move. When the multiple second sliders 11 move, the multiple second sliders 11 will respectively drive the multiple first pressing blocks 12 to move, causing the corresponding two first pressing blocks 12 to approach or move away from each other. When the multiple first pressing blocks 12 move, the multiple first pressing blocks 12 will respectively press the two synchronous belts 9, enabling the user to adjust the tension of the two synchronous belts 9; During use, when the turntable 27 rotates to a suitable position, the user rotates the rotating rod 31 by hand, and the rotating rod 31 drives the second threaded rod 30 to rotate within the third chute 28, causing the second pressing block 29 to move along the third chute 28 towards the base 2 under the action of the thread of the second threaded rod 30. When the second pressing block 29 moves to a position where it cannot move further, the second pressing block 29 will tightly press against the base 2, fixing the turntable 27 within the rotating groove 26 and preventing it from rotating, thus preventing the turntable 27 from being affected by the outside and rotating.

[0052] In addition, through the coordinated linkage between the driving component, the adjusting component and the fixing component, an adaptive and self-stabilizing intelligent adjustment system is constructed, which realizes the dual protection of dynamic adjustment and static locking; firstly, dynamic adaptability is realized: the driving component provides stable power through the motor 22 and the parts 14-20, so that the synchronous wheel 8 drives the first threaded rod 5 to rise and fall accurately, and quickly responds to the height adjustment requirements of the water environment; at the same time, the adjusting component links the second slider 11 through the bidirectional threaded rod 23 to fine-tune the tension of the synchronous belt 9 in real time to ensure that the transmission efficiency is always in the optimal state, avoiding energy loss or component wear caused by loose or over-tightening of the synchronous belt; specifically, after the motor 22 is started, the power is transmitted to the synchronous wheel 8 through the bevel gear transmission chain of the fourth bevel gear 20→the third bevel gear 19→the first connecting rod 17→the second bevel gear 15→the first bevel gear 14. Since multiple synchronous wheels 8 are meshed and linked through synchronous belts 9, all first threaded rods 5 are ensured to rotate synchronously, so that the first slider 4 is raised and lowered synchronously along the first slide groove 3, driving the bottom plate 6 and the liquid cooling equipment to be lifted or lowered as a whole smoothly, and quickly avoiding the threat of water accumulation; during the height adjustment process, the user rotates the turntable 27 → the two-way threaded rod 23 → the second connecting rod 25, driving the second sliders 11 on both sides to move toward or in the opposite direction along the second slide groove 10. Since the two sections of the two-way threaded rod 23 have opposite rotation directions, the clamping force of the paired first extrusion blocks 12 on the synchronous belt 9 can be accurately controlled, and the relaxation of the synchronous belt caused by height changes or long-term use can be compensated in real time to ensure the optimal transmission efficiency.

[0053] Secondly, static stability is achieved: the fixing assembly locks the turntable 27 through the second extrusion block 29, and forms a rigid fixation after the adjustment is completed, effectively resisting vibration or external force interference during the operation of the equipment, and preventing unexpected changes in height or tension; after the adjustment is completed, the rotating rod 31 is rotated → the second threaded rod 30 → the second extrusion block 29 is pushed to move along the third slide groove 28 toward the base 2 until an interference fit is formed with the surface of the base 2. At this time, the turntable 27 is completely locked in the rotation groove 26, and the two-way threaded rod 23 cannot rotate, thereby solidifying the position of the second slider 11 and maintaining the preset tension of the synchronous belt 9.

[0054] Through the cooperation of the three, not only the limitation of single function is solved (for example, only adjusting the height may neglect the transmission stability), but also through the closed-loop control of "dynamic adjustment - instant locking", the reliability, energy efficiency and environmental adaptability of the equipment are significantly improved (such as complex working conditions like heavy rain and deformation due to temperature difference), forming a comprehensive protection mechanism of "quick response, precise maintenance and long-term stability", further extending the equipment life and reducing the maintenance cost; the process of the stroke closed-loop response is specifically that when environmental water accumulation is detected (such as through a sensor) → the motor 22 is triggered to lift the equipment → the synchronous belt 9 may become loose due to displacement → the turntable 27 is manually / automatically fine-tuned to tighten the synchronous belt → the locking and fixing component. The whole process forms a closed loop of "environmental perception - power adjustment - mechanical compensation - state locking" to ensure that the system is always in a dynamic balance state; it can also play a role in suppressing vibration and load. The mechanical locking force of the fixing component (the pressure of the second pressing block 29) is much higher than the vibration amplitude during the operation of the equipment, and the self-locking characteristic of the bevel gear transmission (such as the meshing angle design of the first bevel gear 14 and the second bevel gear 15) can prevent reverse drive, double guaranteeing the stability of the adjustment result.

[0055] The embodiments of the present application have been described above in conjunction with the accompanying drawings. Without conflict, the embodiments and the features in the embodiments in the present application can be combined with each other. The present application is not limited to the above specific embodiments. The above specific embodiments are merely illustrative and not restrictive. Under the inspiration of the present application, those of ordinary skill in the art can also make many forms without departing from the purpose of the present application and the scope protected by the claims, and all of them belong to the protection scope of the present application.

Claims

1. A liquid-cooled chemical energy storage device, including a liquid-cooled chemical energy storage device (1), characterized in that, Further comprising: A base (2), the base (2) is disposed on the bottom surface of the liquid-cooled chemical energy storage device (1), and the liquid-cooled chemical energy storage device (1) is located in the inner cavity of the base (2). A plurality of first sliding grooves (3) are formed on the inner wall of the base (2). A plurality of first sliding blocks (4) are respectively slidably connected in the plurality of first sliding grooves (3). A plurality of first threaded rods (5) are respectively threadedly connected in the plurality of first sliding blocks (4). And the plurality of first threaded rods (5) are respectively located in the plurality of first sliding grooves (3) and are respectively rotatably connected to the plurality of first sliding grooves (3). A bottom plate (6) is fixedly connected between the plurality of first sliding blocks (4), and the top surface of the bottom plate (6) is fixedly connected to the bottom surface of the liquid-cooled chemical energy storage device (1); Two movable grooves (7), the two movable grooves (7) are formed in the base (2) and are respectively communicated with the plurality of first sliding grooves (3). A plurality of synchronous wheels (8) are respectively rotatably connected in the two movable grooves (7). And one ends of the plurality of synchronous wheels (8) respectively extend into the plurality of first sliding grooves (3) and are respectively fixedly connected to the bottom ends of the plurality of first threaded rods (5). Two synchronous belts (9) are respectively meshed between the plurality of synchronous wheels (8); A driving assembly, the driving assembly is located in the base (2) and is used for driving two of the synchronous wheels (8) to rotate; Two second sliding grooves (10), the two second sliding grooves (10) are formed in the base (2) and are respectively communicated with the two movable grooves (7). A plurality of second sliding blocks (11) are respectively slidably connected in the two second sliding grooves (10). The top ends of the plurality of second sliding blocks (11) are respectively rotatably connected with a plurality of first pressing blocks (12). And the plurality of first pressing blocks (12) are respectively located on both sides of the two synchronous belts (9) and are respectively in contact with the two synchronous belts (9); An adjusting assembly, the adjusting assembly is located in the base (2) and is used for driving the plurality of second sliding blocks (11) to move.

2. The liquid-cooled chemical energy storage device according to claim 1, wherein The driving assembly includes: Two first gear grooves (13), the two first gear grooves (13) are formed in the base (2) and are respectively communicated with the two movable grooves (7). Two first bevel gears (14) and two second bevel gears (15) are respectively rotatably connected in the two first gear grooves (13). And the two first bevel gears (14) are respectively meshed with the two second bevel gears (15). One ends of the two first bevel gears (14) respectively penetrate through the inner walls of the two first gear grooves (13) and respectively extend into the two movable grooves (7) and are respectively fixedly connected to two of the synchronous wheels (8); A first through groove (16), the first through groove (16) is formed in the base (2) and is communicated with the two first gear grooves (13). A first connecting rod (17) is rotatably connected in the first through groove (16). And both ends of the first connecting rod (17) respectively extend into the two first gear grooves (13) and are respectively fixedly connected to the two second bevel gears (15); The second gear groove (18) is formed on the inner wall of the first through groove (16). A third bevel gear (19) and a fourth bevel gear (20) are rotatably connected in the second gear groove (18), and the third bevel gear (19) and the fourth bevel gear (20) are meshed with each other. The third bevel gear (19) is fixed to the circumferential side of the first connecting rod (17). The motor groove (21) is formed on the inner wall of the second gear groove (18). A motor (22) is fixedly connected in the motor groove (21), and the output shaft of the motor (22) extends into the second gear groove (18) and is fixed to the fourth bevel gear (20).

3. The liquid-cooled chemical energy storage device according to claim 2, characterized in that, One end of the first bevel gear (14) is rotatably connected to the movable groove (7).

4. The liquid-cooled chemical energy storage device according to claim 2, characterized in that, Both ends of the first connecting rod (17) are respectively rotatably connected to the two first gear grooves (13).

5. A liquid-cooled chemical energy storage device according to claim 2, wherein, The output shaft of the motor (22) is rotatably connected to the second gear groove (18).

6. The liquid-cooled chemical energy storage device according to claim 1, wherein, The adjusting assembly includes: Two bidirectional threaded rods (23) are respectively rotatably connected in the two second sliding grooves (10) and are respectively threadedly connected to a plurality of second sliding blocks (11). The second through groove (24) is formed in the base (2) and is communicated with the two second sliding grooves (10). A second connecting rod (25) is rotatably connected in the second through groove (24), and both ends of the second connecting rod (25) respectively extend into the two second sliding grooves (10) and are respectively fixed to one end of the two bidirectional threaded rods (23). The rotating groove (26) is formed on the inner wall of one of the second sliding grooves (10) and is communicated with the outside. A turntable (27) is rotatably connected in the rotating groove (26). One end of the turntable (27) extends to the outside and is rotatably connected to the base (2). The other end of the turntable (27) extends into one of the second sliding grooves (10) and is fixed to the other end of one of the bidirectional threaded rods (23). The fixing assembly is located in the turntable (27) and is used to fix the turntable (27).

7. The liquid-cooled chemical energy storage device according to claim 6, characterized in that, The fixing assembly includes: The third sliding groove (28) is formed in the turntable (27) and is communicated with the outside. A second pressing block (29) is slidably connected in the third sliding groove (28). A second threaded rod (30) is threadedly connected in the second pressing block (29). The second threaded rod (30) is located on the inner wall of the third sliding groove (28) and is rotatably connected to the third sliding groove (28). One end of the second threaded rod (30) is fixedly connected to a rotating rod (31), and one end of the rotating rod (31) penetrates through the inner wall of the third sliding groove (28) and extends to the outside and is rotatably connected to the turntable (27).

8. The liquid-cooled chemical energy storage device according to claim 6, wherein The two threads on the bidirectional threaded rod (23) have opposite helix directions and the same pitch.

9. The liquid-cooled chemical energy storage device according to claim 6, wherein, Both ends of the second connecting rod (25) are respectively rotatably connected to the two second sliding grooves (10).

10. A liquid-cooled chemical energy storage device according to claim 6, wherein, The other end of the turntable (27) is rotatably connected to one of the second sliding grooves (10).

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