Circulating water cooling device for energy storage type equipment

Abstract

The invention relates to the technical field of circulating water cooling devices, in particular to an energy storage type equipment circulating water cooling device which comprises an energy storage water tank, a butt joint mechanism and a synchronizing mechanism, a base is arranged at the bottom of the energy storage water tank, the energy storage water tank is fixedly communicated with a plurality of valves, and a second connecting pipe of the butt joint mechanism is inserted to a preset depth to synchronize the valves. A clamping bead is embedded into an annular clamping groove of a second connecting pipe, rapid butt joint design which is mechanically locked and can be operated by a single person is formed, compared with traditional flange connection, more installation and butt joint time is saved, through arrangement of a first synchronous frame and a second synchronous frame of the synchronous mechanism, synchronous state switching of the full-valve butt joint mechanism is achieved, the tedious process of operating multiple valves one by one is avoided, and the working efficiency is improved. And the maintenance efficiency is obviously improved.

Description

Technical Field

[0001] The present invention relates to the technical field of circulating water cooling devices, and particularly to an energy storage type equipment circulating water cooling device. Background Art

[0002] A circulating water cooling device is a system that cools equipment through circulating water and is widely used in the industrial field. Its main functions are to maintain the working temperature of the equipment, improve efficiency, and extend the service life. For example, in an energy storage system, circulating water can effectively control the battery temperature and prevent performance degradation or safety hazards caused by overheating. The circulating water cooling device realizes water cooling through the joint action of three processes: evaporation heat dissipation, contact heat dissipation, and radiation heat dissipation by contacting water with air, including a water tank, a cooling tower, a circulating water pump, a heat exchanger, a pipe system, etc. Each component works together to ensure the continuous circulation of cooling water and heat exchange. By recycling cooling water, the demand for fresh water resources is reduced, and water fees and energy consumption are lowered. The cost of supplementing and treating cooling water is reduced, energy efficiency is improved, and operating costs are lowered.

[0003] When the energy storage type equipment circulating water cooling device is in operation, multiple pipelines need to be set up to conveniently achieve flow distribution and control, and the flow of each pipeline is adjusted according to different cooling requirements. Multiple pipelines can increase the contact area between the cooling water and the equipment, thereby improving the heat exchange efficiency. The pipelines arranged in parallel can evenly distribute the cooling water and avoid local overheating or overcooling. However, multiple pipelines will increase the installation difficulty of the equipment because it is necessary to ensure the correct connection and layout of each pipeline. The operator needs to connect the valves and pipelines one by one. In the case of frequent disassembly and assembly, the complex pipeline layout may result in the need to move or adjust multiple components during the disassembly and assembly process, further increasing the time cost. Since each pipeline needs to be correctly connected, it is easy to make mistakes during the installation process, and when disassembling and assembling frequently, each interface needs to be processed separately, increasing the maintenance difficulty. Summary of the Invention

[0004] The purpose of the present invention is to provide an energy storage type equipment circulating water cooling device to solve the problems raised in the above background art.

[0005] The technical solution adopted by the present application to solve its technical problems is: an energy storage type equipment circulating water cooling device, including: an energy storage water tank, a base is arranged at the bottom of the energy storage water tank, and a number of valves are fixedly communicated with the energy storage water tank. It further includes: A docking mechanism, the docking mechanism is arranged on one side of the valve. The docking mechanism includes a connecting pipe one fixedly arranged on one side of the valve. A number of grooves are equidistantly arranged in a circumferential manner on the connecting pipe one. A clamping bead is movably clamped in the groove. A connecting pipe two is correspondingly inserted through the clamping bead on one side of the connecting pipe. The docking mechanism is used for the quick docking of the valve on the energy storage water tank and external equipment; Synchronization mechanism, the synchronization mechanism is arranged on the valve, the synchronization mechanism includes a synchronization frame one fixedly sleeved on the outer surface of the docking mechanism and a synchronization frame two fixedly sleeved on the outer surfaces of a number of connecting pipes two, and the synchronization mechanism is used to synchronously unlock or lock the docking mechanism on the valve.

[0006] Preferably, a pipeline is arranged on one side of the energy storage water tank. One side of the energy storage water tank is respectively connected with production equipment, a cooling tower and a sediment circulation water tank through the pipeline. One side of the sediment circulation water tank is connected with a circulation water pump, and the circulation water pump is connected with the cooling tower through the pipeline. The energy storage water tank, production equipment, cooling tower, sediment circulation water tank and circulation water pump are commonly electrically connected to a control system.

[0007] Preferably, the docking mechanism further includes sliding grooves symmetrically opened on the outer wall of the connecting pipe one. There are two sliding grooves, and sliding blocks are slidably connected in both of the two sliding grooves. An activity sleeve is fixedly connected to the outer surfaces of the sliding blocks together.

[0008] Preferably, a fixing ring is fixedly arranged on the inner wall of the activity sleeve, the inner wall of the fixing ring slides on the outer surface of the connecting pipe one, and a spring one is sleeved on one side of the fixing ring through the connecting pipe one.

[0009] Preferably, a sealing ring one is fixedly arranged on the outer surface of the connecting pipe one, the outer wall diameter of the sealing ring one is larger than the inner wall diameter of the connecting pipe two, and a clamping groove is opened in the inner wall of the connecting pipe one, and a sealing ring two is arranged in the clamping groove.

[0010] Preferably, an arc-shaped groove is opened on the outer surface of the connecting pipe two, the size of the arc-shaped groove is adapted to the size of the clamping beads, a thread line is arranged on the outer surface of the connecting pipe two, and the connecting pipe two is threadedly connected with a threaded pipe through the thread line, and the outer surface of the threaded pipe slides on the inner wall of the activity sleeve.

[0011] Preferably, the synchronization mechanism further includes fixing blocks symmetrically and fixedly arranged on one side of the energy storage water tank. Two fixing blocks are in a group, and a rotating shaft is fixedly arranged between a group of the fixing blocks, and a rotating block is arranged on the outer surface of the rotating shaft.

[0012] Preferably, a magnetic block is fixedly arranged on the rotating block, and a magnetic strip is also fixedly arranged on the energy storage water tank, and the magnetic strip and the magnetic block are magnetically adsorbed to each other.

[0013] Preferably, the synchronization mechanism further includes limiting frames symmetrically and fixedly arranged above the synchronization frame one. One side of the limiting frame close to the rotating block is an opening, and the inner width of the limiting frame is adapted to the width of the rotating block.

[0014] Preferably, a resisting block is fixedly arranged in the middle of the first synchronous frame. One side of the resisting block is fixedly provided with a first movable cylinder. A second movable cylinder is slidably arranged on the inner wall of the first movable cylinder. One end of the second movable cylinder is fixedly arranged on the energy storage water tank. A second spring is arranged in the inner cavities of the first movable cylinder and the second movable cylinder.

[0015] The beneficial effects of the present application are as follows: A circulating water cooling device for an energy storage type device provided by the present application. Through the second connecting pipe of the docking mechanism being inserted to a predetermined depth and the beads being embedded in the annular card slot of the second connecting pipe to form a mechanical lock, a quick docking design that can be operated by a single person is adopted. Compared with the traditional flange connection, it saves more installation and docking time. The mechanical locking mechanism between the beads and the annular card slot ensures the stability and tightness of the connection.

[0016] A circulating water cooling device for an energy storage type device provided by the present application. Through the setting of the first synchronous frame and the second synchronous frame of the synchronization mechanism, the state synchronous switching of the full valve docking mechanism is realized. Through the mechanical coupling structure of the first synchronous frame and the second synchronous frame, all docking mechanisms can be controlled to perform sealed docking with a single operation. When the equipment needs to be overhauled, only one operation of the synchronization mechanism is required to simultaneously release the docking between all the second connecting pipes and the valves, avoiding the cumbersome process of operating multiple valves one by one and significantly improving the maintenance efficiency.

[0017] A circulating water cooling device for an energy storage type device provided by the present application. Through the second movable pipe extruding the second sealing ring in the card slot to form a preliminary seal, and then rotating the threaded pipe to make the threaded pipe extrude the first sealing ring to form a secondary seal. In the mechanical locking part, the design of the beads and the grooves enables quick connection. Pressing and releasing can achieve locking, which is faster than the traditional threaded connection and is suitable for scenarios that require frequent disassembly and assembly. Secondly, for the double-sealing part, the second sealing ring and the first sealing ring play roles respectively when inserting and tightening the threaded pipe, improving the sealing reliability and preventing water leakage. This is very important for the circulating water system to avoid the influence of water leakage on the cooling effect.

[0018] In addition to the purposes, features and advantages described above, the present application has other purposes, features and advantages. The following will refer to the drawings for a further detailed description of the present application. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a schematic diagram of the overall process structure of the present invention; Figure 2 It is a schematic diagram of the structure of the energy storage water tank of the present invention; Figure 3 It is a schematic diagram of the structure of the energy storage water tank from another perspective of the present invention; Figure 4 For the present invention Figure 3 The enlarged schematic diagram of part A in it; Figure 5Front view structural schematic diagram of the docking mechanism of the present invention after partial sectioning; Figure 6 Overall structural schematic diagram of the docking mechanism and the synchronization mechanism of the present invention; Figure 7 For the present invention Figure 6 Enlarged structural schematic diagram at position B in the present invention; Figure 8 Partial exploded structural schematic diagram of the docking mechanism and the synchronization mechanism of the present invention.

[0020] Illustration of figure numbers: 1. Energy storage water tank; 2. Base; 3. Pipeline; 4. Production equipment; 5. Cooling tower; 6. Sediment circulation water tank; 7. Circulation water pump; 8. Control system; 9. Docking mechanism; 10. Valve; 11. First connecting pipe; 12. Groove; 13. Ball; 14. Slide groove; 15. Slide block; 16. Movable sleeve; 17. Fixed ring; 18. First spring; 19. First sealing ring; 20. Card slot; 21. Second sealing ring; 22. Second connecting pipe; 23. Arc groove; 24. Thread line; 25. Threaded pipe; 26. Synchronization mechanism; 27. First synchronization frame; 28. Second synchronization frame; 29. Fixed block; 30. Rotating shaft; 31. Rotating block; 32. Magnetic block; 33. Magnetic strip; 34. Limit frame; 35. Block; 36. First movable cylinder; 37. Second movable cylinder; 38. Second spring. Detailed implementation manners

[0021] It should be noted that, without conflict, the embodiments in the present application and the features in the embodiments can be combined with each other. The following will refer to the accompanying drawings and combine with the embodiments to detail the present application.

[0022] In order to enable those skilled in the art to better understand the solution of the present application, the following will clearly and completely describe the technical solutions in the embodiments of the present application with reference to the accompanying drawings in the embodiments of the present application. Obviously, the described embodiments are only a part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present application.

[0023] Please refer to Figures 1 to 8, An energy storage device circulating water cooling device, comprising: an energy storage water tank 1, a base 2 is arranged at the bottom of the energy storage water tank 1, and a plurality of valves 10 are fixedly communicated with the energy storage water tank 1. It further comprises: a docking mechanism 9, the docking mechanism 9 is arranged on one side of the valve 10, the docking mechanism 9 includes a connecting pipe one 11 fixedly arranged on one side of the valve 10, a plurality of grooves 12 are equidistantly arranged in a circumferential manner on the connecting pipe one 11, and a clamping bead 13 is movably clamped in the groove 12. Connecting pipes two 22 are correspondingly inserted through the clamping beads 13 on both sides of the connecting pipe one 11. The docking mechanism 9 is used for quickly docking the valve 10 on the energy storage water tank 1 with external equipment; By inserting the connecting pipe two 22 of the docking mechanism 9 to a predetermined depth, the clamping bead 13 is embedded in the annular clamping groove 20 of the connecting pipe two 22 to form a mechanical lock. The single-person operable quick docking design saves more installation and docking time compared with traditional flange connections. The mechanical locking mechanism of the clamping bead 13 and the annular clamping groove 20 ensures the stability and sealing performance of the connection.

[0024] Please refer to Figures 1 to 8 , An energy storage device circulating water cooling device further comprises: a synchronization mechanism 26, the synchronization mechanism 26 is arranged on the valve 10, the synchronization mechanism 26 includes a synchronization frame one 27 fixedly sleeved on the outer surface of the docking mechanism 9 and a synchronization frame two 28 fixedly sleeved on the outer surfaces of a plurality of connecting pipes two 22. The synchronization mechanism 26 is used for synchronously unlocking or locking the docking mechanism 9 on the valve 10; Through the settings of the synchronization frame one 27 and the synchronization frame two 28 of the synchronization mechanism 26, the state synchronous switching of all the docking mechanisms 9 on the valve 10 is realized. Through the mechanical coupling structure of the synchronization frame one 27 and the synchronization frame two 28, the single operation can control all the docking mechanisms 9 to perform sealed docking. When the equipment needs to be overhauled, only by operating the synchronization mechanism 26 once, the docking of all the connecting pipes two 22 and the valve 10 can be loosened simultaneously, avoiding the cumbersome process of operating multiple valves 10 one by one, and significantly improving the maintenance efficiency. The synchronous unlocking function can quickly disconnect the connection between all the circulating water pipes 3 and the energy storage water tank 1. Cooperating with the quick insertion structure of the clamping bead 13 of the docking mechanism 9, the disassembly and assembly time is compressed from "operating one by one" to "one-time operation", which is especially suitable for industrial scenarios that require frequent maintenance.

[0025] Among them, specifically please refer to Figure 1 , In addition to the above embodiments, a pipe 3 is arranged on one side of the energy storage water tank 1. One side of the energy storage water tank 1 is respectively connected with a production equipment 4, a cooling tower 5 and a precipitation circulating water tank 6 through the pipe 3. One side of the precipitation circulating water tank 6 is connected with a circulating water pump 7. The circulating water pump 7 and the cooling tower 5 are connected through the pipe 3. The energy storage water tank 1, the production equipment 4, the cooling tower 5, the precipitation circulating water tank 6 and the circulating water pump 7 are commonly and electrically connected with a control system 8.

[0026] By setting the cooling tower 5 and the constant-pressure energy storage water tank 1 at higher positions such as the roof, and then setting the circulating water pump 7 and the sedimentation circulating water tank 6 at lower positions such as the ground, with water as the medium, the circulating water pump 7 first enters the cooling tower 5 through the pipeline 3 for evaporative cooling. After the medium is cooled, it enters the constant-pressure energy storage water tank 1 for storage. The medium in the constant-pressure energy storage water tank 1 flows by gravity into the production equipment 4 through the pipeline 3 by utilizing the height difference with the equipment room. After the medium absorbs the heat generated by the production equipment 4, it flows by gravity into the sedimentation circulating water tank 6 through the pipeline 3. After the medium is sedimented, it enters the circulating water pump 7 again, and so on in a cycle. Among them, in the non-full-load operation state of the production equipment 4, some of the redundant medium in the constant-pressure energy storage water tank 1 directly overflows into the sedimentation circulating water tank 6 by gravity through the pipeline 3 by utilizing the height difference. The whole system uses PLC for data monitoring and control, and can operate fully automatically after the parameter settings are completed.

[0027] In the above-mentioned embodiment, the constant-pressure energy storage water tank 1 is set at a higher position, and energy is stored by utilizing the non-full-load of the production equipment 4 and the lower outdoor air temperature period, which can timely meet the cooling capacity and circulating water volume requirements required by the large-scale change of the heat load of the production equipment 4 within a short time; the equipment selection of the cooling tower 5 becomes smaller, reducing the initial investment; the cooling water is supplied to the production equipment 4 by utilizing the height difference, reducing the system resistance and the energy consumption of the circulating water pump 7. The whole system can realize constant pressure and constant flow operation; a PLC full-automatic control system 8 is set in the system to monitor the operation state and parameters of the system in real time, and timely adjust the operation state and parameters of the equipment, so that the pressure and temperature of the cooling medium on the production equipment 4 side are stable; a sedimentation circulating water tank 6 is set and a filtering device is set in the cooling tower 5 to filter, sediment and monitor the medium, and timely drain sewage or add medicine for treatment to ensure high-standard water quality and avoid causing system scaling and blockage.

[0028] Further, specifically, please refer to Figures 3 to 8 , the docking mechanism 9 further includes sliding grooves 14 symmetrically opened on the outer wall of the first connecting pipe 11. There are two sliding grooves 14, and sliders 15 are slidably connected in both of the two sliding grooves 14. A movable sleeve 16 is fixedly connected to the outer surfaces of the sliders 15 together. A fixing ring 17 is fixedly arranged on the inner wall of the movable sleeve 16, and the inner wall of the fixing ring 17 slides on the outer surface of the first connecting pipe 11. A first spring 18 is sleeved on one side of the fixing ring 17 through the first connecting pipe 11. A first sealing ring 19 is fixedly arranged on the outer surface of the first connecting pipe 11, and the outer diameter of the outer wall of the first sealing ring 19 is larger than the inner diameter of the inner wall of the second connecting pipe 22. A clamping groove 20 is opened in the inner wall of the first connecting pipe 11, and a second sealing ring 21 is arranged in the clamping groove 20. An arc-shaped groove 23 is opened on the outer surface of the second connecting pipe 22, and the size of the arc-shaped groove 23 is mutually adapted to the size of the clamping bead 13. A thread line 24 is arranged on the outer surface of the second connecting pipe 22, and the second connecting pipe 22 is threadedly connected with a threaded pipe 25 through the thread line 24. The outer surface of the threaded pipe 25 slides on the inner wall of the movable sleeve 16.

[0029] In the above embodiments, by pressing the movable sleeve 16, the fixing ring 17 on the inner wall of the movable sleeve 16 squeezes the first spring 18, causing the first spring 18 to compress. As a result, the fixing ring 17 loses its restriction on the ball 13, enabling the ball 13 to move within the groove 12. Align the second connecting pipe 22 with the first connecting pipe 11 and insert it. When the second connecting pipe 22 is inserted to the predetermined depth, release the movable sleeve 16. At this time, after the second spring 38 loses the extrusion force, it will quickly recover, driving the movable sleeve 16 to slide on the outer surface of the first connecting pipe 11 through the slider 15 and the chute 14. At this time, the inner wall of the fixing ring 17 will squeeze the ball 13 to make it embed into the annular slot 20 of the second connecting pipe 22, forming a mechanical lock. At the same time, the second movable pipe will squeeze the second sealing ring 21 in the slot 20 to form a preliminary seal, and then rotate the threaded pipe 25 to make the threaded pipe 25 squeeze the first sealing ring 19 to form a secondary seal. For the mechanical locking part, the design of the ball 13 and the groove 12 enables quick connection. Pressing and releasing can complete the locking, which is faster than traditional threaded connections and is suitable for scenarios that require frequent disassembly and assembly. Secondly, for the double-sealing part, the second sealing ring 21 and the first sealing ring 19 act respectively when inserting and tightening the threaded pipe 25, improving the sealing reliability and preventing water leakage. This is very important for the circulating water system to avoid the influence of water leakage on the cooling effect.

[0030] Furthermore, specifically refer to Figure 3 , Figure 4 and Figures 6 to 8 , the synchronization mechanism 26 further includes fixing blocks 29 that are symmetrically and fixedly arranged on one side of the energy storage water tank 1. Two fixing blocks 29 form a group, and a rotating shaft 30 is fixedly arranged between a group of fixing blocks 29. A rotating block 31 is arranged on the outer surface of the rotating shaft 30. A magnetic block 32 is fixedly arranged on the rotating block 31, and a magnetic strip 33 is also fixedly arranged on the energy storage water tank 1. The magnetic strip 33 and the magnetic block 32 are magnetically attracted to each other. The synchronization mechanism 26 further includes a limiting frame 34 that is symmetrically and fixedly arranged above the first synchronization frame 27. One side of the limiting frame 34 close to the rotating block 31 is open, and the inner width of the limiting frame 34 is adapted to the width of the rotating block 31. A resisting block 35 is fixedly arranged in the middle of the first synchronization frame 27. One side of the resisting block 35 is fixedly provided with a first movable cylinder 36. A second movable cylinder 37 is slidably arranged on the inner wall of the first movable cylinder 36. One end of the second movable cylinder 37 is fixedly arranged on the energy storage water tank 1. A second spring 38 is arranged in the inner cavities of the first movable cylinder 36 and the second movable cylinder 37.

[0031] In the above embodiments, by pressing the first synchronization frame 27, the abutting block 35 presses the first movable cylinder 36 towards the second movable cylinder 37 at this time and compresses the second spring 38. This operation can synchronously press and compress the movable sleeve 16, and then align the second connecting pipe 22 on the second synchronization frame 28 with the first connecting pipe 11 for synchronous insertion. Compared with the traditional method of inserting and unplugging individual interfaces one by one, it avoids repeated operations and is especially suitable for cooling systems with multiple parallel pipelines. For example, the energy storage water tank 1 is connected to multiple production devices 4 or circulating pipelines, reducing the operation time from individual operations to a one-time batch operation, greatly improving the disassembly and assembly efficiency during equipment maintenance or overhaul. After the insertion is completed, release the first synchronization frame 27, and then rotate the rotating block 31 magnetically attracted by the magnetic block 32 on the magnetic strip 33 and snap it into the limiting frame 34. Under the influence of gravity, the self-locking of the first synchronization frame 27 is completed. The magnetic attraction between the rotating block 31 and the magnetic strip 33 can fix the position of the first synchronization frame 27 after insertion, preventing it from shaking randomly and facilitating the operator to quickly align with the limiting frame 34. After the insertion is completed, rotate the rotating block 31 to make it snap into the limiting frame 34, and use the gravity to achieve mechanical self-locking, avoiding accidental rebound of the first synchronization frame 27 caused by external forces such as vibration and water pressure fluctuations, and ensuring that the docking mechanism 9 remains in a locked state continuously.

[0032] Through all the above embodiments, the working principle of the present invention is as follows: The cooling tower 5 and the constant-pressure energy storage water tank 1 are arranged at higher positions such as the roof, and the circulating water pump 7 and the sedimentation circulating water tank 6 are arranged at lower positions such as the ground. Taking water as the medium, the circulating water pump 7 first enters the cooling tower 5 through the pipeline 3 for evaporation cooling. After the medium is cooled, it enters the constant-pressure energy storage water tank 1 for storage. The medium in the constant-pressure energy storage water tank 1 flows into the production device 4 by gravity through the pipeline 3 using the height difference with the equipment. After the medium absorbs the heat generated by the production device 4, it flows into the sedimentation circulating water tank 6 by gravity through the pipeline 3. After the medium is sedimented, it enters the circulating water pump 7 again, and so on in a cycle. Among them, when the production device 4 is operating at a non-full load, some of the excess medium in the constant-pressure energy storage water tank 1 directly overflows into the sedimentation circulating water tank 6 by gravity through the pipeline 3 using the height difference. The entire system uses a PLC for data monitoring and control, and can operate fully automatically after the parameter settings are completed; When connecting devices, by pressing the movable sleeve 16, the fixing ring 17 on the inner wall of the movable sleeve 16 squeezes the first spring 18, causing the first spring 18 to compress. As a result, the fixing ring 17 loses its restriction on the ball 13, enabling the ball 13 to move within the groove 12. Align the second connecting pipe 22 with the first connecting pipe 11 and insert them. When the second connecting pipe 22 is inserted to the predetermined depth, release the movable sleeve 16. At this time, after the second spring 38 loses the extrusion force, it will quickly recover, driving the movable sleeve 16 to slide on the outer surface of the first connecting pipe 11 through the slider 15 and the chute 14. At this time, the inner wall of the fixing ring 17 will squeeze the ball 13 to cause it to embed into the annular slot 20 of the second connecting pipe 22, forming a mechanical lock. At the same time, the second movable pipe will squeeze the second sealing ring 21 in the slot 20 to form a preliminary seal. Then rotate the threaded pipe 25 so that the threaded pipe 25 squeezes the first sealing ring 19 to form a secondary seal. For the mechanical locking part, the design of the ball 13 and the groove 12 enables quick connection. Pressing and releasing can lock it, which is faster than traditional threaded connections and is suitable for scenarios that require frequent disassembly and assembly. Secondly, for the double-sealing part, the second sealing ring 21 and the first sealing ring 19 act respectively when inserting and tightening the threaded pipe 25, improving the sealing reliability and preventing water leakage, which is very important for the circulating water system to avoid water leakage affecting the cooling effect; By pressing the first synchronous frame 27, at this time, the abutting block 35 squeezes the first movable cylinder 36 towards the second movable cylinder 37 and causes the second spring 38 to compress. This operation can synchronously press and compress the movable sleeve 16. Then align the second connecting pipe 22 on the second synchronous frame 28 with the first connecting pipe 11 for synchronous insertion. Compared with the traditional method of plugging and unplugging each single interface one by one, it avoids repeated operations, especially suitable for cooling systems with multiple parallel pipelines. For example, the energy storage water tank 1 is connected to multiple production devices 4 or circulating pipelines, reducing the operation time from individual operations to a one-time batch operation, greatly improving the disassembly and assembly efficiency during equipment maintenance or repair. After the insertion is completed, release the first synchronous frame 27. Then rotate the rotating block 31 magnetically attracted by the magnetic block 32 on the magnetic strip 33 and snap it into the limiting frame 34. Under the influence of gravity, the self-locking of the first synchronous frame 27 is completed. The magnetic attraction between the rotating block 31 and the magnetic strip 33 can fix the position of the first synchronous frame 27 after insertion, preventing it from shaking randomly, facilitating the operator to quickly align with the limiting frame 34. After the insertion is completed, rotate the rotating block 31 to make it snap into the limiting frame 34, and use the gravity effect to achieve mechanical self-locking, avoiding accidental rebound of the first synchronous frame 27 due to external forces such as vibration and water pressure fluctuations, ensuring that the docking mechanism 9 remains in the locked state continuously.

[0033] Those of ordinary skill in the art should understand that the discussion of any above embodiment is only exemplary. Under the concept of the present invention, the technical features in the above embodiments or different embodiments can also be combined, and the steps can be implemented in any order. There are many other variations in different aspects of the present invention as described above, and they are not provided in detail for the sake of brevity.

[0034] This invention is intended to cover all such substitutions, modifications, and variations that fall within the broad scope of the appended claims. Accordingly, any omissions, modifications, equivalent substitutions, improvements, etc. made within the spirit and principle of this invention shall be included within the scope of protection of this invention.

Claims

1. A circulating water cooling device for an energy storage device, comprising: Energy storage water tank (1), a base (2) is arranged at the bottom of the energy storage water tank (1), and a plurality of valves (10) are fixedly communicated with the energy storage water tank (1). It is characterized in that it further comprises: A docking mechanism (9), the docking mechanism (9) is arranged on one side of the valve (10), the docking mechanism (9) includes a connecting pipe one (11) fixedly arranged on one side of the valve (10), a plurality of grooves (12) are equidistantly arranged in a circumferential manner on the connecting pipe one (11), a clamping bead (13) is movably clamped in the groove (12), and a connecting pipe two (22) is correspondingly inserted through the clamping bead (13) on each side of the connecting pipe one (11). The docking mechanism (9) is used for quickly docking the valve (10) on the energy storage water tank (1) with external equipment; A synchronization mechanism (26), the synchronization mechanism (26) is arranged on the valve (10), the synchronization mechanism (26) includes a synchronization frame one (27) fixedly sleeved on the outer surface of the docking mechanism (9) and a synchronization frame two (28) fixedly sleeved on the outer surfaces of a plurality of connecting pipes two (22). The synchronization mechanism (26) is used for synchronously unlocking or locking the docking mechanism (9) on the valve (10).

2. The circulating water cooling device of an energy storage type device according to claim 1, characterized in that, A pipeline (3) is arranged on one side of the energy storage water tank (1). The energy storage water tank (1) is respectively connected with production equipment (4), a cooling tower (5), and a precipitation circulation water tank (6) through the pipeline (3) on one side. A circulation water pump (7) is connected to one side of the precipitation circulation water tank (6). The circulation water pump (7) is connected with the cooling tower (5) through the pipeline (3). The energy storage water tank (1), the production equipment (4), the cooling tower (5), the precipitation circulation water tank (6), and the circulation water pump (7) are commonly and electrically connected to a control system (8).

3. The circulating water cooling device of an energy storage type device according to claim 1, characterized in that, The docking mechanism (9) further includes sliding grooves (14) symmetrically arranged on the outer wall of the connecting pipe one (11). There are two sliding grooves (14), and sliders (15) are slidably connected in both of the two sliding grooves (14). A movable sleeve (16) is fixedly connected to the outer surfaces of the sliders (15) together.

4. The circulating water cooling device of an energy storage type device according to claim 3, characterized in that, A fixing ring (17) is fixedly arranged on the inner wall of the movable sleeve (16). The inner wall of the fixing ring (17) slides on the outer surface of the connecting pipe one (11). A first spring (18) is sleeved on the connecting pipe one (11) on one side of the fixing ring (17).

5. The circulating water cooling device of an energy storage device according to claim 4, characterized in that, A first sealing ring (19) is fixedly arranged on the outer surface of the connecting pipe one (11). The outer wall diameter of the first sealing ring (19) is larger than the inner wall diameter of the connecting pipe two (22). A clamping groove (20) is arranged in the inner wall of the connecting pipe one (11), and a second sealing ring (21) is arranged in the clamping groove (20).

6. The circulating water cooling device for an energy storage type device according to claim 5, characterized in that An arc-shaped groove (23) is arranged on the outer surface of the connecting pipe two (22). The size of the arc-shaped groove (23) is adapted to the size of the clamping bead (13). A thread line (24) is arranged on the outer surface of the connecting pipe two (22). The connecting pipe two (22) is threadedly connected with a threaded pipe (25) through the thread line (24). The outer surface of the threaded pipe (25) slides on the inner wall of the movable sleeve (16).

7. The circulating water cooling device for an energy storage type device according to claim 1, characterized in that, The synchronization mechanism (26) further includes fixed blocks (29) that are symmetrically and fixedly arranged on one side of the energy storage water tank (1). Two of the fixed blocks (29) form a group, and a rotating shaft (30) is fixedly arranged between a group of the fixed blocks (29). A rotating block (31) is arranged on the outer surface of the rotating shaft (30).

8. The circulating water cooling device of an energy storage type device according to claim 7, characterized in that, A magnetic block (32) is fixedly arranged on the rotating block (31), and a magnetic strip (33) is also fixedly arranged on the energy storage water tank (1). The magnetic strip (33) and the magnetic block (32) are magnetically attracted to each other.

9. The circulating water cooling device of an energy storage type device according to claim 8, characterized in that, The synchronization mechanism (26) further includes a limiting frame (34) that is symmetrically and fixedly arranged above the first synchronization frame (27). One side of the limiting frame (34) close to the rotating block (31) is open, and the inner width of the limiting frame (34) is adapted to the width of the rotating block (31).

10. The circulating water cooling device of an energy storage type device according to claim 9, characterized in that, A resisting block (35) is fixedly arranged in the middle of the first synchronization frame (27). A first movable cylinder (36) is fixedly arranged on one side of the resisting block (35). A second movable cylinder (37) is slidably arranged on the inner wall of the first movable cylinder (36). One end of the second movable cylinder (37) is fixedly arranged on the energy storage water tank (1). A second spring (38) is arranged in the inner cavities of the first movable cylinder (36) and the second movable cylinder (37).

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