Energy storage integrated cabinet with adjustable heat dissipation function

Abstract

The application discloses a kind of energy storage integrated cabinet with adjustable heat dissipation function, it is related to energy storage cabinet technical field.The energy storage cabinet body is included, the energy storage cabinet body is internally provided with two groups of mounting frames, two groups of mounting frames inner wall is provided with multiple groups of corrugated support plate, multiple groups of corrugated support plate are installed with energy storage battery module, the mounting frame inner wall is provided with heat dissipation assembly for cooling energy storage battery module.The application is cooled to energy storage battery module by the synergistic effect of first cooling water pipe and second cooling water, at the same time, with the flow kinetic energy of cooling water, first metal block is moved and contacted with second metal block to conduct, and then wireless control module can be controlled to start heat dissipation fan, and fixed cover is opened at the same time, realize the convection circulation of air in and outside energy storage cabinet body, complete the cooling operation of energy storage battery module, facilitate rapid heat discharge, to a certain extent, avoid the influence of high temperature on the performance and life of energy storage battery module.

Description

Technical Field

[0001] This invention relates to the field of energy storage cabinet technology, specifically to an integrated energy storage cabinet with adjustable heat dissipation function. Background Technology

[0002] In the rapid development of the new energy industry, integrated energy storage cabinets can store renewable resources such as wind and solar energy in the clean power sector. In the event of unstable or interrupted power, they can provide continuous backup power to ensure the normal operation of household life. In industrial and commercial power applications, they can store electricity during periods of low price and use it during periods of high price to profit from the price difference, providing continuous and stable power support for enterprises. Especially during peak electricity consumption periods, they can balance the grid load and reduce electricity costs. Integrated energy storage cabinets have efficient energy storage and transfer systems that can store low-priced energy for future use. Through intelligent scheduling, integrated energy storage cabinets can rationally allocate the energy stored in the batteries to various users with different needs, effectively reducing the electricity costs of enterprises.

[0003] In existing technologies, during long-term operation, the energy storage battery clusters inside energy storage cabinets continuously release a large amount of heat. If this heat cannot be dissipated in time, the battery clusters will operate under high-temperature conditions for an extended period, potentially posing safety hazards. Current technologies typically employ independent air-cooling or liquid-cooling systems for energy storage cabinets. A few solutions utilize a composite cooling structure combining air and liquid cooling. In energy storage cabinets using air-cooling systems, to ensure air intake efficiency, the air intake is usually located on the bottom side wall of the cabinet, and a filter is installed to prevent dust and particulate matter from the external environment from entering the cabinet with the airflow, affecting heat dissipation and causing poor contact of electrical components. However, the filter... Over time, a large amount of impurities will gradually accumulate on its surface, leading to filter blockage and reducing the heat dissipation efficiency of the air-cooled system. Therefore, staff need to regularly disassemble, clean, or replace the filter, increasing their workload. In addition, the battery clusters inside existing energy storage cabinets are mostly arranged in a stacked manner, with each battery module closely arranged. Adjacent battery modules will affect each other during operation, forming local heat accumulation, which prevents heat from being dissipated quickly. This may affect the overall heat dissipation effect and further exacerbate the inconsistency of battery performance due to temperature gradient differences within the battery clusters. This may adversely affect the long-term stable operation and service life of the energy storage cabinet. Summary of the Invention

[0004] Based on this, the purpose of the present invention is to provide an integrated energy storage cabinet with adjustable heat dissipation function to solve the technical problems mentioned in the background art.

[0005] To achieve the above objectives, the present invention provides the following technical solution: an integrated energy storage cabinet with adjustable heat dissipation function, comprising an energy storage cabinet body, wherein the energy storage cabinet body is provided with two sets of mounting frames, the inner walls of the two sets of mounting frames are provided with multiple sets of corrugated support plates, an energy storage battery module is installed between the multiple sets of corrugated support plates, the inner walls of the mounting frames are provided with heat dissipation components for cooling the energy storage battery module, an exhaust vent is provided at the top of the energy storage cabinet body, air inlets are provided at the lower positions of both sides of the energy storage cabinet body, and the inner walls of the air inlets are provided with vibration components, and a drive component is provided on the rear surface of the energy storage cabinet body.

[0006] Preferably, the heat dissipation assembly includes multiple sets of first cooling water pipes installed on the inner wall of the mounting frame. The upper center of the multiple sets of first cooling water pipes is connected to a heat dissipation water pipe that is connected to them. The heat dissipation water pipe is located on the outer side of the rear side of the energy storage cabinet. Multiple sets of heat dissipation fins are sleeved on the outer wall of the heat dissipation water pipe, and the heat dissipation water pipe is arranged in an "S" shape. The bottom end of the heat dissipation water pipe is connected to a first water tank fixed to the rear surface of the outer wall of the energy storage cabinet. The bottom end of the first cooling water pipe is connected to the first water tank.

[0007] Preferably, the inner wall of the mounting frame is provided with two sets of second cooling water pipes, which are staggered with the first cooling water pipes. A second water tank is connected to the rear surface of the outer wall of the energy storage cabinet, and the second water tank is located above the first water tank. The top ends of the two sets of second cooling water pipes are connected to the outer walls on both sides of the second water tank. The bottom ends of the two sets of second cooling water pipes are connected to a conveying pipe located on the rear side of the outer wall of the energy storage cabinet. The top end of the conveying pipe is connected to the top end of the second water tank.

[0008] Preferably, the drive component includes a connecting block, which is fixedly connected to the middle position of a set of delivery pipes. A first moving block is slidably provided on the inner wall of the connecting block. A first metal block is connected to the outer wall of the first moving block at the cavity position of the connecting block. A second metal block is connected to the inner wall of the cavity through an mounting plate. The connecting block is connected to the outer wall of the energy storage cabinet, and a wireless control module is installed inside the cavity.

[0009] Preferably, the upper surface of the first movable block is connected to a second movable block via a telescopic rod. An electromagnetic coil is connected to the outer wall of the second movable block extending to the cavity of the connecting block. An iron core is fixedly connected to the upper surface of the mounting plate. The electromagnetic coil is sleeved on the outer wall of the iron core. A slot is opened in the inner wall of the connecting block. A baffle matching the slot is fixedly connected to the outer walls of both the first and second movable blocks.

[0010] Preferably, the vibration component includes a fixed cover fixedly connected to the inner wall of the air inlet, a filter screen is slidably provided on the inner wall of the fixed cover, a plurality of rotating plates are rotatably connected to the inner wall of the fixed cover on one side of the filter screen, a controller for driving the rotating plates to rotate is provided on the outer wall of the fixed cover, a collection box is installed at the bottom of the fixed cover, and a bending groove communicating with the collection box is opened at the bottom of the inner wall of the fixed cover.

[0011] Preferably, the outer wall of the conveying pipe is connected to a fixing block via a branch pipe. The fixing block is located below the connecting block. An impeller is installed on the inner wall of the fixing block. A turntable extending to the outside of the fixing block is connected to the center of the impeller via a fixed shaft. Two sets of pressure blocks are symmetrically arranged on the lower surface of the turntable.

[0012] Preferably, the top of the filter extends to the outside of the fixed cover via a shaft and is rotatably connected to a transmission rod. Support blocks are rotatably connected to both outer walls of the energy storage cabinet. The center of the lower surface of the transmission rod is connected to the outer wall of the support block. The end of the transmission rod away from the filter extends to the lower surface of the turntable and contacts the turntable.

[0013] Preferably, two sets of protective covers are installed on both outer walls of the energy storage cabinet, and cooling fans are installed inside the protective covers. Multiple sets of flow guides are connected to the outer wall of one side of the mounting frame at the corresponding position of the corrugated support plate. A flow guide block is connected to the outer wall of the other side of the mounting frame above the corrugated support plate. A fan is installed at the bottom of the inner wall of the energy storage cabinet between the two sets of mounting frames.

[0014] In summary, the present invention has the following main beneficial effects:

[0015] 1. This invention achieves basic cooling of the energy storage battery module by using a first cooling water pipe. By combining this with an S-shaped cooling water pipe and heat dissipation fins on the outer wall, the residence time of the cooling water inside the pipe is extended, improving heat dissipation efficiency and facilitating the recycling of the cooling water. When the energy storage battery module experiences localized overheating, the combined action of the first and second cooling water pipes creates dual cooling. Simultaneously, the kinetic energy of the flowing cooling water propels the first moving block. When the first and second metal blocks make contact and conduction, the cooling fan is activated via a wireless control module. At the same time, the rotating plate opens to realize the air convection circulation inside and outside the energy storage cabinet. With the help of the guide block and guide shroud, the airflow is guided through the heat-generating area, and the fan promptly discharges the hot airflow from the exhaust port, thereby completing the cooling operation of the energy storage battery module. When the temperature of the energy storage battery module is high, the flow rate of the cooling water inside the delivery pipe increases, which makes it easier to dynamically adjust the speed of the cooling fan and the air intake of the fixed shroud. When the temperature of the energy storage battery module drops to the preset threshold, the cooling water inside the delivery pipe automatically stops operating, which to a certain extent avoids the impact of high temperature on the performance and life of the energy storage battery module.

[0016] 2. This invention drives the impeller to rotate through the flow of cooling water. When the impeller drives the turntable to rotate, the pressure block continuously presses down on the transmission rod. Simultaneously, in conjunction with the support block, the filter screen vibrates up and down using the lever principle, shaking off the dust adhering to the filter screen. The fixed cover has bending grooves inside to prevent the collected dust from being disturbed by airflow and re-adhering to the filter screen surface, thus avoiding filter screen blockage and affecting the ventilation efficiency of the energy storage cabinet. No additional cleaning power device is required, which reduces the workload of the staff to a certain extent. When the temperature of the energy storage battery module drops to the preset threshold, the rotating plate rotates back to its original position, and the fixed cover closes automatically, effectively preventing external dust from entering the energy storage cabinet and reducing the corrosion of internal electronic components and battery modules by dust, thus extending the service life of the equipment. Attached Figure Description

[0017] Figure 1 This is a first-view perspective three-dimensional schematic diagram of the overall structure of the present invention;

[0018] Figure 2 This is a second-view perspective three-dimensional schematic diagram of the overall structure of the present invention;

[0019] Figure 3 This is a three-dimensional schematic diagram of the overall internal structure of the energy storage cabinet of the present invention;

[0020] Figure 4 This is a three-dimensional schematic diagram of the internal structure of the energy storage cabinet of the present invention;

[0021] Figure 5 This is a three-dimensional schematic diagram of the overall structure of the heat dissipation component and mounting frame of the present invention;

[0022] Figure 6 This is a three-dimensional schematic diagram of the overall structure of the heat dissipation component, driving component, and vibration component of the present invention;

[0023] Figure 7 This is a three-dimensional structural diagram of the disassembled drive component of the present invention;

[0024] Figure 8 This is a 3D schematic diagram of the overall structure of the jitter component;

[0025] Figure 9 A three-dimensional structural diagram showing the disassembly of the vibration component;

[0026] Figure 10 This is a side view of the fixed cover.

[0027] In the diagram: 1. Energy storage cabinet; 11. Mounting frame; 12. Guide block; 13. Guide shroud; 14. Corrugated support plate; 15. Exhaust vent; 21. First cooling water pipe; 22. Heat dissipation water pipe; 23. Heat dissipation fins; 24. Second cooling water pipe; 25. Conveying pipe; 26. Protective cover; 31. Connecting block; 32. First moving block; 33. Second moving block; 34. Iron core; 35. Electromagnetic coil; 41. Fixed cover; 411. Bending groove; 42. Rotating plate; 43. Filter screen; 44. Transmission rod; 45. Support block; 46. Turntable; 461. Pressure block; 47. Impeller; 48. Fixed block. Detailed Implementation

[0028] To further illustrate the technical means and effects adopted by the present invention in order to achieve the intended purpose, the following detailed description is provided in conjunction with the accompanying drawings and preferred embodiments, based on the specific implementation methods, structures, features and effects of the present invention.

[0029] An integrated energy storage cabinet with adjustable heat dissipation function, such as Figure 1 - Figure 10 As shown, the device includes an energy storage cabinet 1. Inside the energy storage cabinet 1, there are two sets of mounting frames 11. The inner walls of the two sets of mounting frames 11 are provided with multiple sets of corrugated support plates 14. Energy storage battery modules are installed between the multiple sets of corrugated support plates 14. The corrugated support plates 14 can separate the energy storage battery modules, which facilitates ventilation and improves the heat dissipation of the energy storage battery modules. The inner walls of the mounting frames 11 are provided with heat dissipation components to cool down the energy storage battery modules. An exhaust vent 15 is opened at the top of the energy storage cabinet 1. Air inlets are opened at the lower positions on both sides of the energy storage cabinet 1, and the inner walls of the air inlets are provided with vibration components. A drive component is provided on the rear surface of the energy storage cabinet 1.

[0030] See Figure 2 - Figure 6It is understood that the heat dissipation component includes multiple sets of first cooling water pipes 21 installed on the inner wall of the mounting frame 11. Since the first cooling water pipes 21 are in close contact with the side wall of the energy storage battery module, they can quickly remove the heat generated by the energy storage battery module during operation, thus cooling the energy storage battery module. At the center of the upper end of the multiple sets of first cooling water pipes 21, there are heat dissipation water pipes 22 connected to them. The heat dissipation water pipes 22 are located on the outer side of the rear side of the energy storage cabinet 1. Multiple sets of heat dissipation fins 23 are sleeved on the outer wall of the heat dissipation water pipes 22, and the heat dissipation water pipes 22 are arranged in an "S" shape. Cooling water inside the first cooling water pipes 21 is used to cool the energy storage battery module. After cooling the energy storage battery module, cooling water enters the heat dissipation pipe 22. The "S"-shaped setting can extend the residence time of the cooling water inside the heat dissipation pipe 22. At the same time, the cooling water is cooled by the heat dissipation fins 23. The bottom end of the heat dissipation pipe 22 is connected to a first water tank fixed to the rear surface of the outer wall of the energy storage cabinet 1. A first water pump is installed inside the first water tank. The bottom end of the first cooling water pipe 21 is connected to the first water tank. After the cooling water enters the first water tank, it can be transferred to the heat dissipation pipe 22 by the water pump to cool the cooling water inside the first water tank, so as to facilitate circulation.

[0031] See Figure 2 - Figure 6 It is known that the inner wall of the mounting frame 11 is provided with two sets of second cooling water pipes 24. The two sets of second cooling water pipes 24 are staggered with the first cooling water pipe 21. The second cooling water pipes 24 can be used to assist in cooling the energy storage battery module. The rear surface of the outer wall of the energy storage cabinet 1 is connected to a second water tank. A second water pump is installed inside the second water tank, and the second water tank is located above the first water tank. The top ends of the two sets of second cooling water pipes 24 are connected to the outer walls on both sides of the second water tank. The bottom ends of the two sets of second cooling water pipes 24 are connected to a conveying pipe 25 located on the rear side of the outer wall of the energy storage cabinet 1. The top end of the conveying pipe 25 is connected to the top of the second water tank. The conveying pipe 25 facilitates the circulation of cooling water inside the second water tank.

[0032] See Figure 4 - Figure 7 It is known that the drive component includes a connecting block 31, which is fixedly connected to the middle position of a set of conveying pipes 25. After the cooling water enters the interior of the conveying pipes 25, it will flow through the connecting block 31. A first moving block 32 is slidably provided on the inner wall of the connecting block 31. A first metal block is connected to the outer wall of the first moving block 32 at the cavity position of the connecting block 31. A second metal block is connected to the inner wall of the cavity through a mounting plate. When the cooling water enters the interior of the connecting block 31, the first moving block 32 will move under the impact of the cooling water, thereby synchronously driving the first metal block to move. When the first metal block contacts the second metal block, it can be powered on, thereby activating the wireless control module. The connecting block 31 is connected to the outer wall of the energy storage cabinet 1, and a wireless control module is installed inside the cavity. The wireless control module can control the cooling fan and the controller to turn on.

[0033] See Figure 7 It can be seen that a second moving block 33 is connected to the upper surface of the first moving block 32 via a telescopic rod. An electromagnetic coil 35 is connected to the outer wall of the second moving block 33 at the cavity position of the connecting block 31. An iron core 34 is fixedly connected to the upper surface of the mounting plate. A spring connected to the bottom end of the electromagnetic coil 35 is fixed to the outer wall of the iron core 34. The spring provides resistance to the movement of the second moving block 33, preventing the second moving block 33 from moving too quickly due to excessive instantaneous flow rate of cooling water, which would affect the normal use of the electromagnetic coil 35 and the iron core 34. The electromagnetic coil 35 is sleeved on the outer wall of the iron core 34. When the cooling water flows inside the delivery pipe 25, it can synchronously drive the second moving block 33 to move upward, thereby synchronously adjusting the height position of the electromagnetic coil 35. The faster the flow rate of the cooling water, the greater the impact force generated. At this time, the electromagnetic coil 35 moves a greater distance and generates a greater current. When the current increases, the deflection angle of the rotating plate 42 increases. The inner wall of the connecting block 31 is provided with a slot. The outer walls of the first moving block 32 and the second moving block 33 are both fixedly connected with baffles that match the slots. The baffles can prevent the cooling water inside the connecting block 31 from flowing into the cavity.

[0034] See Figure 8 - Figure 10 It is known that the shaking component includes a fixed cover 41 fixedly connected to the inner wall of the air inlet. A filter 43 is slidably provided on the inner wall of the fixed cover 41. The filter 43 can filter the air entering the energy storage cabinet 1 to prevent dust from affecting the use of electrical components inside the energy storage cabinet 1. Multiple sets of rotating plates 42 are rotatably connected to the inner wall of the fixed cover 41 on one side of the filter 43. A controller for driving the rotating plates 42 to rotate is provided on the outer wall of the fixed cover 41. The rotation angle of the rotating plates 42 can be adjusted by the flow rate of the cooling water inside the delivery pipe 25. The larger the rotation angle of the rotating plates 42, the larger the opening of the fixed cover 41, which facilitates the increase of air circulation efficiency and improves the heat dissipation effect. A collection box is installed at the bottom of the fixed cover 41. A bending groove 411 communicating with the collection box is opened at the bottom of the inner wall of the fixed cover 41. The setting of the bending groove 411 can prevent the dust collected inside the collection box from being stirred up by the airflow and then adhering to the filter 43, affecting the normal use of the filter 43.

[0035] See Figure 8 and Figure 9 It can be seen that the outer wall of the conveying pipe 25 is connected to a fixed block 48 through a branch pipe. The fixed block 48 is located below the connecting block 31. An impeller 47 is installed on the inner wall of the fixed block 48. At the center of the impeller 47, a turntable 46 extending to the outside of the fixed block 48 is connected through a fixed shaft. Two sets of pressure blocks 461 are symmetrically arranged on the lower surface of the turntable 46. After the cooling water enters the interior of the fixed block 48 through the branch pipe, the cooling water can drive the impeller 47 to rotate. The impeller 47, in conjunction with the fixed shaft, can synchronously drive the turntable 46 to rotate.

[0036] The top of the filter screen 43 extends to the outside of the fixed cover 41 via a shaft and is rotatably connected to a transmission rod 44. Support blocks 45 are rotatably connected to the outer walls of both sides of the energy storage cabinet 1. The center of the lower surface of the transmission rod 44 is connected to the outer wall of the support block 45. The end of the transmission rod 44 away from the filter screen 43 extends to the lower surface of the turntable 46 and contacts the turntable 46. When the turntable 46 rotates, the pressure block 461 on the lower surface of the turntable 46 continuously squeezes the transmission rod 44 during the rotation. Through the setting of the support block 45, the transmission rod 44 can be driven to swing up and down around the support block 45 as the midpoint through the "lever principle". This can drive the filter screen 43 to shake continuously, shake off the dust on the filter screen 43, and prevent the filter screen 43 from clogging after the dust accumulates.

[0037] See Figure 1 - Figure 5 It is known that two sets of protective covers 26 are installed on both outer walls of the energy storage cabinet 1. Cooling fans are installed inside the protective covers 26. The cooling fans can be turned on by the wireless control module. Multiple sets of air guide covers 13 are connected to the outer wall of one side of the mounting frame 11 at the corresponding position of the corrugated support plate 14. A guide block 12 is connected to the outer wall of the other side of the mounting frame 11 above the corrugated support plate 14. The arrangement of the air guide covers 13 and the guide blocks 12 facilitates the flow of air through the gaps in the corrugated support plate 14, thereby blowing heat to the central cavity area of ​​the energy storage cabinet 1. A fan is installed at the bottom of the inner wall of the energy storage cabinet 1 between the two sets of mounting frames 11. By cooperating with the fan, heat can be discharged from the exhaust port 15. The first cooling water pipe 21 and the second cooling water pipe 24 further dissipate heat from the energy storage battery module.

[0038] The working principle of this invention is as follows: When the energy storage cabinet 1 is in use, the energy storage battery module inside it will generate a lot of heat. At this time, by starting the first water pump inside the first water tank, cooling water is transferred to the inside of the first cooling water pipe 21 through the heat dissipation water pipe 22. The cooling water flows from top to bottom along the first cooling water pipe 21 to cool the side wall of the energy storage battery module. After the cooling is completed, the cooling water flows back to the inside of the first water tank, and then is transported to the heat dissipation water pipe 22 again by the first water pump to form a cooling circulation loop. Since the heat dissipation water pipe 22 is set in an "S" shape, it is easier to extend the residence time of the cooling water inside the heat dissipation water pipe 22. At the same time, with the heat dissipation fins 23 set on the outer wall of the heat dissipation water pipe 22, the heat dissipation effect of the cooling water inside the heat dissipation water pipe 22 can be further enhanced, so that the cooling water can be circulated and the battery module can be continuously cooled.

[0039] When the energy storage battery module experiences localized overheating, and the first cooling water pipe 21 alone is insufficient to cool it down in time, the second water pump inside the second water tank is activated to transfer the cooling water inside the second water tank to the second cooling water pipe 24. The second cooling water pipe 24 and the first cooling water pipe 21 work together to assist in cooling down and improve the overall cooling effect on the energy storage battery module.

[0040] After the cooling water is cooled by the second cooling water pipe 24, it flows back to the second water tank through the delivery pipe 25 for circulation. After entering the delivery pipe 25, the cooling water flows into the fixed block 48 through the branch pipe. At this time, the kinetic energy of the cooling water flow drives the impeller 47 to rotate. When the impeller 47 rotates, it synchronously drives the turntable 46 to rotate. During the rotation of the turntable 46, the pressure block 461 set on its lower surface continuously applies a downward squeezing force to the transmission rod 44. At the same time, the support block 45 provides support for the transmission rod. The rod 44 provides positioning and support. When one end of the transmission rod 44 is subjected to pressure from the pressure block 461, the other end will be lifted, thereby driving the filter screen 43 to move up and down continuously on the inner wall of the fixed cover 41, shaking off the dust on the surface of the filter screen 43 and collecting the dust through the collection box. At the same time, the bending groove 411 on the fixed cover 41 can prevent the dust from being stirred up by the airflow and re-adhering to the surface of the filter screen 43 when the air is inlet, thus avoiding dust clogging the filter screen 43 and affecting the ventilation efficiency of the filter screen 43.

[0041] As the cooling water continues to flow inside the delivery pipe 25, it enters the connecting block 31. Under the impact of the water flow, the first moving block 32 moves upward, simultaneously driving the first metal block to move and make it contact and connect with the second metal block on the mounting plate. Then, the cooling fan built into the protective cover 26 is activated through the wireless control module to blow air to cool the energy storage battery module inside the energy storage cabinet 1. While the cooling fan is running, the controller simultaneously controls multiple rotating plates 42 to rotate, so that the fixed cover 41 is in the open state. External air enters the energy storage cabinet 1 to form an effective convection circulation, which works in conjunction with the first cooling water pipe 21 and the second cooling water pipe 24 to achieve auxiliary heat dissipation of the energy storage battery module.

[0042] The airflow is guided by the flow guide shroud 13 and flows along the corrugated support plate 14 to the cavity area in the middle of the energy storage cabinet 1. Then, with the help of the fan set at the bottom of the energy storage cabinet 1, the cavity area is blown by the fan. At the same time, with the help of the flow guide block 12, the hot gas inside the energy storage cabinet 1 is discharged through the exhaust port 15, thus completing the cooling operation of the energy storage battery module.

[0043] When the temperature of the energy storage battery module is high, the flow rate of the cooling water inside the delivery pipe 25 increases synchronously. At this time, under the thrust of the cooling water, the second moving block 33 gradually moves upward, synchronously driving the electromagnetic coil 35 to move. The greater the displacement of the electromagnetic coil 35, the higher the intensity of the induced current, which in turn drives the cooling fan to increase its speed. At the same time, the impeller 47 speed increases synchronously, increasing the shaking frequency of the filter screen 43. Meanwhile, the deflection angle of the rotating plate 42 increases, which facilitates increasing the air intake per unit time, improving ventilation efficiency, and further improving the heat dissipation effect on the energy storage cabinet 1. When the temperature of the energy storage battery module drops to the preset threshold, the second water pump built into the second water tank automatically stops operating. At the same time, the cooling fan and filter screen 43 stop operating, and the rotating plate 42 is reset under the action of the controller, so that the fixed cover 41 is in the closed state, effectively preventing external dust from entering the interior of the energy storage cabinet 1. The contents not described in detail in this description belong to the prior art known to those skilled in the art.

[0044] The above description is merely a preferred embodiment of the present invention and is not intended to limit the present invention in any way. Although the present invention has been disclosed above with reference to preferred embodiments, it is not intended to limit the present invention. Any person skilled in the art can make some modifications or alterations to the above-disclosed technical content to create equivalent embodiments without departing from the scope of the present invention. Any simple modifications, equivalent changes and alterations made to the above embodiments based on the technical essence of the present invention without departing from the scope of the present invention shall still fall within the scope of the present invention.

Claims

1. An energy storage integrated cabinet with adjustable heat dissipation function, comprising an energy storage cabinet body (1), characterized in that: The energy storage cabinet (1) is provided with two sets of mounting frames (11) inside. The inner walls of the two sets of mounting frames (11) are provided with multiple sets of corrugated support plates (14). Energy storage battery modules are installed between the multiple sets of corrugated support plates (14). The inner walls of the mounting frames (11) are provided with heat dissipation components to cool down the energy storage battery modules. The top of the energy storage cabinet (1) is provided with an exhaust port (15). The lower positions of both sides of the energy storage cabinet (1) are provided with air inlets, and the inner walls of the air inlets are provided with vibration components. The rear surface of the energy storage cabinet (1) is provided with a drive component. The drive assembly includes a connecting block (31), which is fixedly connected to the middle position of a set of delivery pipes (25). A first moving block (32) is slidably provided on the inner wall of the connecting block (31). A first metal block is connected to the outer wall of the first moving block (32) at the cavity position of the connecting block (31), and a second metal block is connected to the inner wall of the cavity through an mounting plate. The connecting block (31) is connected to the outer wall of the energy storage cabinet (1), and a wireless control module is installed inside the cavity. The vibration assembly includes a fixed cover (41) fixedly connected to the inner wall of the air inlet. A filter screen (43) is slidably provided on the inner wall of the fixed cover (41). Multiple rotating plates (42) are rotatably connected to the inner wall of the fixed cover (41) on one side of the filter screen (43). A controller for driving the rotating plates (42) to rotate is provided on the outer wall of the fixed cover (41). A collection box is installed at the bottom of the fixed cover (41). A bending groove (411) communicating with the collection box is opened at the bottom of the inner wall of the fixed cover (41). The top of the filter screen (43) extends to the outside of the fixed cover (41) via a shaft and is rotatably connected to a transmission rod (44). Support blocks (45) are rotatably connected to both outer walls of the energy storage cabinet (1). The center of the lower surface of the transmission rod (44) is connected to the outer wall of the support block (45). The end of the transmission rod (44) away from the filter screen (43) extends to the lower surface of the turntable (46) and contacts the turntable (46). After the cooling water enters the delivery pipe (25), it will flow through the connecting block (31). The inner wall of the connecting block (31) is provided with a first moving block (32). When the cooling water enters the connecting block (31), the first moving block (32) will be driven to move under the impact of the cooling water, and then the first metal block will be moved synchronously. When the first metal block comes into contact with the second metal block, it can be powered on.

2. The energy storage integrated cabinet with adjustable heat dissipation function according to claim 1, characterized in that: The heat dissipation assembly includes multiple sets of first cooling water pipes (21) installed on the inner wall of the mounting frame (11). The upper center of the multiple sets of first cooling water pipes (21) is connected to a heat dissipation water pipe (22). The heat dissipation water pipe (22) is located on the outer side of the rear side of the energy storage cabinet (1). Multiple sets of heat dissipation fins (23) are sleeved on the outer wall of the heat dissipation water pipe (22). The heat dissipation water pipe (22) is arranged in an "S" shape. The bottom end of the heat dissipation water pipe (22) is connected to a first water tank fixed on the rear surface of the outer wall of the energy storage cabinet (1). The bottom end of the first cooling water pipe (21) is connected to the first water tank.

3. The energy storage integrated cabinet with adjustable heat dissipation function according to claim 1, characterized in that: The inner wall of the mounting frame (11) is provided with two sets of second cooling water pipes (24), which are staggered with the first cooling water pipe (21). The rear surface of the outer wall of the energy storage cabinet (1) is connected to a second water tank, which is located above the first water tank. The top ends of the two sets of second cooling water pipes (24) are connected to the outer walls on both sides of the second water tank. The bottom ends of the two sets of second cooling water pipes (24) are connected to a conveying pipe (25) located on the rear side of the outer wall of the energy storage cabinet (1). The top end of the conveying pipe (25) is connected to the top end of the second water tank.

4. The energy storage integrated cabinet with adjustable heat dissipation function according to claim 1, characterized in that: The upper surface of the first moving block (32) is connected to the second moving block (33) via a telescopic rod. The outer wall of the second moving block (33) extends to the cavity of the connecting block (31) and is connected to an electromagnetic coil (35). An iron core (34) is fixedly connected to the upper surface of the mounting plate. The electromagnetic coil (35) is sleeved on the outer wall of the iron core (34). The inner wall of the connecting block (31) is provided with a slot. The outer walls of the first moving block (32) and the second moving block (33) are both fixedly connected with baffles that match the slots.

5. The energy storage integrated cabinet with adjustable heat dissipation function according to claim 3, characterized in that: The outer wall of the conveying pipe (25) is connected to a fixed block (48) via a branch pipe. The fixed block (48) is located below the connecting block (31). An impeller (47) is installed on the inner wall of the fixed block (48). A turntable (46) extending to the outside of the fixed block (48) is connected to the center of the impeller (47) via a fixed shaft. Two sets of pressure blocks (461) are symmetrically arranged on the lower surface of the turntable (46).

6. The energy storage integrated cabinet with adjustable heat dissipation function according to claim 1, characterized in that: Two sets of protective covers (26) are installed on both sides of the outer wall of the energy storage cabinet (1). A cooling fan is installed inside each of the protective covers (26). Multiple sets of flow guides (13) are connected to the outer wall of one side of the mounting frame (11) at the corresponding position of the corrugated support plate (14). A flow guide block (12) is connected to the outer wall of the other side of the mounting frame (11) above the corrugated support plate (14). A fan is installed at the bottom of the inner wall of the energy storage cabinet (1) between the two sets of mounting frames (11).

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