Modular energy storage all-in-one machine

Abstract

This invention discloses a modular energy storage integrated machine, relating to the field of energy storage equipment technology. It includes a base, with a housing fixedly mounted on the top of the base. The base and housing are connected by segmental welding. Equipment cavities are opened on both sides of the base's interior, and a connecting cavity connecting the two equipment cavities is opened on the rear side of the base. When the integrated machine is in use, during single-cavity cooling operations, a driving component drives a synchronous adjustment component for adjustment. This synchronous adjustment component then drives the connecting adjustment component to adjust accordingly, thereby causing a sealing plate to intermittently block the connecting slot. This allows the cold airflow to preferentially cool the target equipment cavity, enabling continuous cooling within the equipment cavity. The cold airflow is only transferred to the other equipment cavity when the connecting slot is open. This allows the cold airflow to effectively remain in the target equipment cavity for cooling while intermittently cooling the other equipment cavity, greatly improving the preferential cooling effect within the target equipment cavity.

Description

Technical Field

[0001] This invention relates to the field of energy storage equipment technology, specifically a modular integrated energy storage unit. Background Technology

[0002] Modular energy storage units, as the core equipment of energy storage systems, are widely used in industrial and commercial energy storage, grid peak shaving, and microgrid support scenarios due to their advantages such as high integration, flexible deployment, and convenient operation and maintenance.

[0003] Modular energy storage units generate a lot of heat during use. To meet the needs of heat dissipation, zoned protection and operation and maintenance of energy storage equipment, existing modular energy storage units mostly adopt a heat dissipation architecture with dual equipment chambers and dual independent air conditioners to ensure equipment structural stability, convenient transportation and basic heat dissipation and protection performance. In actual operation, the heat dissipation requirements of the two equipment cavities are not completely consistent. Therefore, cooling is usually performed on one cavity and the cold air is transferred to the other cavity through the connecting area to complete the cooling of both cavities. However, because the two cavities are connected, the cold air in the cavity that requires high-intensity cooling will be directly transferred to the other cavity, which greatly reduces the cooling efficiency of the target cavity and makes it impossible to complete the cooling process quickly and effectively. Therefore, this invention provides a modular energy storage integrated machine to solve the above-mentioned problems. Summary of the Invention

[0004] The purpose of this invention is to provide a modular energy storage unit to solve the problems mentioned in the background art.

[0005] To achieve the above objectives, the present invention provides the following technical solution: A modular energy storage unit includes a base, a housing fixedly mounted on the top of the base, and the base and housing connected by segment welding. Equipment cavities are opened on both sides of the interior of the base, and a connecting cavity connecting the two equipment cavities is opened on the rear side of the base. Frames are installed on the inner sides of the two equipment cavities, and the frames are connected to the housing by segment welding. Lifting components are installed at the bottom of the base. Control cavities are opened on both sides of the bottom inner side of the housing, and a data controller and a switch controller are installed inside the control cavities. Doors are movably installed on both sides of the front end of the housing. Air conditioners are installed on the door panels, and the air vents of the air conditioners face the inside of the equipment cavity. A guide plate is fixedly installed at the air vent position of the air conditioner. A sealing strip is fixedly installed on the end of the guide plate away from the air conditioner. A transmission plate is fixedly installed on the frame inside the equipment cavity near the guide plate. The inside of the transmission plate is hollow. A transmission port is opened on the side of the transmission plate near the air conditioner. The transmission port and the inside of the transmission plate are interconnected, and the position of the sealing strip corresponds to the position of the transmission port on the transmission plate. The bottom of the door panel is fitted with louvers at intervals, and a filter plate is installed on the side of the louvers near the control cavity via bolts.

[0006] As a further embodiment of the present invention, a plurality of cooling plates are fixedly installed at intervals on both sides of the frame, and the interior of the cooling plates is hollow. The hollow areas inside the cooling plates are interconnected through the frame and the transmission plate. A cooling groove is provided on the side of the cooling plate near the equipment cavity. A cooling adjustment component is installed inside the cooling plate. The end of the cooling adjustment component away from the inside of the cooling plate extends to the outside of the cooling plate. A driving component is installed below the bottom plate of the equipment cavity. The driving component and the cooling adjustment component are movably connected to each other. Each of the two device cavities is equipped with a partition on one side close to each other. There is an adjustable gap between the two partitions, and the gap area between the two partitions corresponds to the position of the connecting cavity. A connecting adjustment component is fixedly installed on the inner side of the connecting cavity. A synchronous adjustment component is installed between the two partitions. The synchronous adjustment component and the connecting adjustment component are movably connected to each other, and the synchronous adjustment component and the driving component are fixedly connected to each other. The cooling adjustment component includes two extrusion plates that can be raised and lowered within the cooling plate. The two extrusion plates are movably installed within the cooling plate at their opposite ends via a reset component. The cooling grooves are located on the cooling plate at positions corresponding to the opposite sides of the two extrusion plates. Several flow holes are spaced apart on the sidewall of the cooling plate on the opposite sides of the two cooling grooves. The positions of the flow holes correspond to the gap areas between two adjacent pieces of equipment within the equipment cavity. An auxiliary rubber plate is inclined and fixedly installed on the opposite side of the two cooling grooves on the cooling plate, with the auxiliary rubber plate inclined towards the side closer to the inside of the cooling plate.

[0007] As a further embodiment of the present invention, side plates are fixedly installed on both sides of one of the extrusion plates in the cooling plate, and clamping plates are fixedly installed on both sides of the other extrusion plate in the cooling plate. The side plates and clamping plates are located on one side close to each other of the two extrusion plates. A slot is provided on the side wall of the side plate corresponding to the position of the clamping plate, and the clamping plate is inserted into the slot.

[0008] As a further embodiment of the present invention, each of the two extrusion plates is provided with a pressure groove on one side close to each other. The pressure groove is a strip-shaped arc groove with arc-shaped ends. A rotating block is movably installed inside the two pressure grooves. The rotating block is a strip-shaped arc block with arc-shaped ends. A driven gear is installed on the side of the cooling plate away from the equipment cavity. The driven gear slides through the cooling plate and the rotating block and is fixedly connected to each other. The driven gear and the driving component mesh with each other.

[0009] As a further embodiment of the present invention, the driving component includes a driving motor, which is installed in the control cavity. A driving disk is fixedly installed on the output shaft of the driving motor. The driving disk is a wave-shaped arc plate. A bottom tray is installed on the inner side of the driving disk. A reset spring is fixedly installed on the top of the bottom tray. The end of the reset spring away from the bottom tray is fixedly installed on the bottom of the upper plate of the equipment cavity. Support plates are fixedly installed on both sides of the bottom tray. An adjusting strip is fixedly installed on the top of the end of the support plate away from the bottom tray. A driving rack is provided on the side wall of the adjusting strip corresponding to the position of the driven gear. The driven gear and the driving rack mesh with each other.

[0010] As a further embodiment of the present invention, a limiting groove is formed on the side wall of the adjusting strip. The limiting groove is a strip-shaped groove. Several limiting blocks are fixedly installed at intervals inside the limiting groove. The limiting blocks are "T"-shaped blocks. The limiting blocks are fixedly installed on the outer wall of the cooling plate. A limiting rod is movably installed on the support plate. The top end of the limiting rod is fixedly installed on the bottom of the upper plate of the equipment cavity.

[0011] As a further embodiment of the present invention, the connecting adjustment component includes an isolation plate, a connecting groove is provided at intervals on the side wall of the isolation plate, a receiving groove is provided at the top of the inner side of the connecting groove, the receiving groove and the connecting groove are connected to each other, a closing plate is slidably installed in the connecting groove, and a sliding groove is provided at intervals on the side wall of the isolation plate.

[0012] As a further embodiment of the present invention, auxiliary adjustment plates are movably installed on both sides of the area between the two partitions near the partition plate. The auxiliary adjustment plates are "L"-shaped plates and are rotatably installed on the partition plate. A connecting strip is obliquely and fixedly installed at the corner end of the two auxiliary adjustment plates that are close to each other. A movable block is movably installed at the end of the two connecting strips that are close to each other away from the auxiliary adjustment plates. A slider is slidably installed inside the slide groove. The slider and the closing plate are fixedly connected to each other. A toggle spring is fixedly installed on the side of the slider that is close to the movable block.

[0013] As a further embodiment of the present invention, the synchronous adjustment component is installed between the two partitions at the position corresponding to the auxiliary adjustment plate, and the end of the synchronous adjustment component away from the auxiliary adjustment plate is fixedly connected to the adjustment bar.

[0014] Compared with the prior art, the beneficial effects of the present invention are: 1. When the integrated machine of the present invention is used, during single-cavity cooling operation, the driving component drives the synchronous adjustment component to adjust, which in turn drives the connecting adjustment component to adjust accordingly. This causes the sealing plate to intermittently block the connecting slot, allowing the cold airflow to preferentially cool the target equipment cavity. The cold airflow can continuously cool within the equipment cavity, and the cold airflow is only transferred to another equipment cavity when the connecting slot is open. This allows the cold airflow to effectively remain in the target equipment cavity for cooling, while intermittently cooling another equipment cavity, greatly improving the preferential cooling effect within the target equipment cavity.

[0015] 2. When the integrated machine of the present invention is in use, the driving component drives the cooling adjustment component to adjust, so that the extrusion plate will be adjusted within the cooling plate. This allows the cold airflow to switch between smooth transmission and pressure transmission. When the cold airflow is in smooth transmission, the connecting slot is blocked by the sealing plate. At this time, the cold airflow can effectively cool the target equipment cavity through smooth transmission. When the cold airflow is in pressure transmission, the connecting slot is opened. During pressure transmission, the airflow pressure can also facilitate the cold airflow to be transmitted to another equipment cavity through the connecting slot. Thus, it can not only effectively cool the target equipment cavity, but also carry the cold airflow into another equipment cavity for cooling with the help of airflow pressure, greatly improving the cooling effect of the cold airflow on the equipment cavity.

[0016] 3. When the integrated machine of the present invention is used, when the cold air is performing pressure transmission operation, the cold air can be effectively transmitted between two adjacent energy storage devices through air pressure, which can not only improve the cooling effect, but also effectively improve the cooling treatment effect between the two adjacent energy storage devices.

[0017] 4. When the integrated machine of the present invention is in use, when the cold air is performing pressure transmission, the transmission speed of the cold air is increased through the pressure transmission of the cold air, which not only improves the cooling effect between two adjacent energy storage devices, but also effectively cleans the dust attached to the energy storage devices.

[0018] 5. When the integrated machine of the present invention is used, the auxiliary adjustment plate and the toggle spring are used to adjust the closing plate so that the closing plate can be opened and closed quickly, thereby effectively opening the connecting slot briefly, ensuring that the cold airflow can be stored in the target equipment cavity for a longer period of time, and improving the cooling effect of the target equipment cavity. Attached Figure Description

[0019] Figure 1 This is a schematic diagram of the overall structure of a modular energy storage integrated machine.

[0020] Figure 2 This is a partial structural diagram of the housing in a modular energy storage unit.

[0021] Figure 3 This is a partial structural diagram of the frame in a modular energy storage integrated machine.

[0022] Figure 4 This is a partial structural diagram of the drive component in a modular energy storage integrated machine.

[0023] Figure 5 for Figure 4 A magnified schematic diagram of the structure at point A in the middle.

[0024] Figure 6 This is a partial cross-sectional view of the cooling plate in a modular energy storage unit.

[0025] Figure 7 This is a schematic diagram of a partial separation structure of two extrusion plates in a modular energy storage integrated machine.

[0026] Figure 8 This is a partial structural diagram of the connecting cavity in a modular energy storage unit.

[0027] Figure 9 This is a partial cross-sectional view of the isolation plate in a modular energy storage unit.

[0028] Figure 10 This is a schematic diagram of a partially disassembled auxiliary control plate in a modular energy storage integrated machine.

[0029] Figure 11 This is a partial cross-sectional view of the main control block in a modular energy storage unit.

[0030] In the diagram: 1. Base; 2. Housing; 3. Door panel; 4. Air conditioner; 5. Air guide plate; 6. Sealing strip; 7. Equipment cavity; 8. Control cavity; 9. Louver; 10. Filter plate; 11. Frame; 12. Transmission plate; 13. Transmission port; 14. Connecting cavity; 15. Isolation plate; 16. Cooling plate; 17. Adjusting strip; 18. Limiting groove; 19. Limiting block; 20. Support plate; 21. Drive motor; 22. Drive disc; 23. Bottom tray; 24. Limiting rod; 25. Reset spring element; 26. Driven gear; 27. Drive rack; 28. Lowering... 29. Temperature bath; 30. Flow hole; 31. Auxiliary rubber plate; 32. Extrusion plate; 33. Rotating block; 34. Pressure groove; 35. Side plate; 36. Slot; 37. Slot plate; 38. Support plate; 39. Control bar; 40. Connecting groove; 41. Sealing groove; 42. Sliding groove; 43. Pushing block; 44. Main control block; 45. Adjusting groove; 46. Damping block; 47. Auxiliary adjustment groove; 48. Adjusting plate; 49. Auxiliary adjustment plate; 50. Connecting bar; 51. Sliding block; 52. Movable block; 53. Actuating spring; 54. Auxiliary groove; 55. Auxiliary spring. Detailed Implementation

[0031] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0032] Please see Figures 1-11 In this embodiment of the invention, a modular energy storage unit includes a base 1, a housing 2 fixedly installed on the top of the base 1, and the base 1 and the housing 2 are connected by segment welding. Equipment cavities 7 are opened on both sides of the interior of the base 1, and the two equipment cavities 7 are interconnected. The rear ends of the two equipment cavities 7 are also interconnected. A connecting cavity 14 is opened on the rear side of the base 1 corresponding to the connecting area of ​​the two equipment cavities 7. A frame 11 is installed on the inner side of the two equipment cavities 7, and the frame 11 and the housing 2 are connected by segment welding. A lifting component is installed at the bottom of the base 1. The lifting component can adopt a container lifting structure. The equipment can be transferred through the lifting component. Control cavities 8 are opened on both sides of the bottom of the inner side of the housing 2. A data controller and a switch controller are installed inside the control cavity 8. Door panels 3 are movably installed on both sides of the front end of the housing 2. Air conditioners 4 are installed on the door panels 3. The exhaust vent of the air conditioner 4 faces into the equipment cavity 7. A guide plate 5 is fixedly installed at the exhaust vent of the air conditioner 4. A sealing strip 6 is fixedly installed on the end of the guide plate 5 away from the air conditioner 4. A transmission plate 12 is fixedly installed on the side of the frame 11 inside the equipment cavity 7 near the guide plate 5. The inside of the transmission plate 12 is hollow. A transmission port 13 is opened on the side of the transmission plate 12 near the air conditioner 4. The transmission port 13 and the inside of the transmission plate 12 are interconnected. The position of the sealing strip 6 corresponds to the position of the transmission port 13 on the transmission plate 12. The bottom of the door panel 3 is equipped with louvers 9 at intervals, and a filter plate 10 is installed on the side of the louvers 9 near the control cavity 8 by bolts. The air conditioners 4 on the two door panels 3 can be turned on simultaneously during operation to cool the equipment in the equipment cavity 7. Depending on the operation requirements, the air conditioner 4 on one of the door panels 3 can be turned on to cool one of the equipment cavities 7 and transfer the cold air to the other equipment cavity 7 through the connecting cavity 14 to complete the cooling. When the temperature is high, such as in summer, the air conditioners 4 on both door panels 3 can be turned on to complete the cooling.

[0033] Several cooling plates 16 are fixedly installed at intervals on both sides of the frame 11. The interior of the cooling plates 16 is hollow. The hollow areas inside the cooling plates 16 are interconnected through the frame 11 and the transmission plate 12. A cooling groove 28 is opened on the side of the cooling plate 16 near the equipment cavity 7. The cooling groove 28 penetrates the side wall of the cooling plate 16 and is interconnected with the interior of the cooling plate 16. A cooling adjustment component is installed inside the cooling plate 16. The end of the cooling adjustment component away from the interior of the cooling plate 16 extends to the outside of the cooling plate 16. A driving component is installed below the bottom plate of the equipment cavity 7. The driving component and the cooling adjustment component are movably connected to each other. The driving component can drive the cooling adjustment component to adjust within the cooling plate 16, thereby performing adjustable cooling treatment on the inside of the equipment cavity 7. Two equipment cavities 7 are each equipped with a partition on one side close to each other. There is an adjustment gap between the two partitions, and the gap area between the two partitions corresponds to the position of the connecting cavity 14. A connecting adjustment component is fixedly installed on the inner side of the connecting cavity 14. A synchronous adjustment component is installed between the two partitions. The synchronous adjustment component and the connecting adjustment component are movably connected to each other, and the synchronous adjustment component and the driving component are fixedly connected to each other. By driving the adjustment of the driving component, the synchronous adjustment component can be adjusted, thereby controlling the connecting adjustment component to adjust within the connecting cavity 14, so that the rear sides of the two equipment cavities 7 are intermittently connected. This ensures that one of the equipment cavities 7 is cooled first, and also allows the cold airflow to be intermittently transmitted to the other equipment cavity 7 to assist in cooling the other equipment cavity 7. The cooling adjustment component includes two extrusion plates 31 that can be raised and lowered within the cooling plate 16. The two extrusion plates 31 are movably installed within the cooling plate 16 at opposite ends via a reset component. Cooling grooves 28 are formed on the cooling plate 16 at positions corresponding to the opposite sides of the two extrusion plates 31. Several turbulence holes 29 are spaced apart on the sidewall of the cooling plate 16 on the opposite sides of the two cooling grooves 28. The positions of the turbulence holes 29 correspond to the gap area between two adjacent devices within the equipment cavity 7. An auxiliary rubber plate 30 is fixedly installed at an inclination on the side of the two cooling grooves 28 that are close to each other on the cooling plate 16. The auxiliary rubber plate 30 is inclined towards the side closer to the inside of the cooling plate 16. As the two extrusion plates 31 move away from each other, they compress the inclined auxiliary rubber plate 30, causing it to move closer to the cooling tank 28 and block it. Simultaneously, the movement of the extrusion plates 31 compresses the space inside the cooling plate 16, causing the cold airflow from the cooling plate 16 to be expelled into the equipment cavity 7 through the turbulence hole 29. This increases the intensity of the expelled cold airflow, which not only cools the gap between the two devices but also cleans the dust attracted by static electricity.

[0034] Within the cooling plate 16, one of the extrusion plates 31 has side plates 34 fixedly installed on both sides, and the other extrusion plate 31 has a clamping plate 36 fixedly installed on both sides. The side plates 34 and clamping plates 36 are located on the side closer to each other of the two extrusion plates 31. A slot 35 is opened on the side wall of the side plate 34 corresponding to the position of the clamping plate 36. The clamping plate 36 is inserted into the slot 35. When the two extrusion plates 31 are closed, the clamping plate 36 is fully inserted into the slot 35 on the side plate 34. When the two extrusion plates 31 move away from each other, the clamping plate 36 will move within the slot 35. By blocking the flow of cold air through the side plates 34 and the clamping plates 36, the cold air can be prevented from being transmitted to the area between the two extrusion plates 31, so that the cold air can only be transmitted to the area on the side farther away from each other of the two extrusion plates 31, thereby effectively ensuring the adjustment of the cold air transmission channel. Two extrusion plates 31 are provided with pressure grooves 33 on one side close to each other. The pressure grooves 33 are strip-shaped arc grooves with arc-shaped ends. Rotating blocks 32 are movably installed inside the two pressure grooves 33. The rotating blocks 32 are strip-shaped arc blocks with arc-shaped ends. In the initial state, the two extrusion plates 31 are closed to each other. The rotating blocks 32 are horizontally installed in the two pressure grooves 33 and are in contact with the inner wall of the pressure grooves 33. When the rotating blocks 32 rotate, they push the extrusion plates 31 through the two ends of the rotating blocks 32, causing the two extrusion plates 31 to separate from each other. When the rotating blocks 32 return to their original position, they drive the two extrusion plates 31 to return to their original position and close through the reset parts on the two extrusion plates 31. A driven gear 26 is installed on the side of the cooling plate 16 away from the equipment cavity 7. The driven gear 26 slides through the cooling plate 16 and the rotating block 32 and is fixedly connected to each other. The driven gear 26 and the driving component mesh with each other. The driving component includes a drive motor 21, which is installed in the control cavity 8. A drive disk 22 is fixedly installed on the output shaft of the drive motor 21. The drive disk 22 is a wave-shaped arc plate with at least two peaks and troughs, and the two peaks or troughs of the drive disk 22 correspond to each other. A bottom tray 23 is installed on the inner side of the drive disk 22. A reset spring member 25 is fixedly installed on the top of the bottom tray 23. The end of the reset spring member 25 away from the bottom tray 23 is fixedly installed on the bottom of the upper plate of the equipment cavity 7. Support plates 20 are fixedly installed on both sides of the bottom tray 23. An adjusting strip 17 is fixedly installed on the top of the end of the support plate 20 away from the bottom tray 23. A drive rack 27 is provided on the side wall of the adjusting strip 17 corresponding to the position of the driven gear 26. The driven gear 26 and the drive rack 27 mesh with each other. The drive motor 21 drives the drive disk 22 to rotate, so that the wave-shaped drive disk 22, together with the reset spring 25, pushes the support plate 20 to adjust its height, thereby driving the adjustment bar 17 to adjust its height. Through the meshing of the driven gear 26 and the drive rack 27, the driven gear 26 is driven to rotate and reset, thereby pushing the two extrusion plates 31 to adjust within the cooling plate 16 through the rotating block 32. A limiting groove 18 is provided on the side wall of the adjusting strip 17. The limiting groove 18 is a strip-shaped groove. Several limiting blocks 19 are fixedly installed at intervals inside the limiting groove 18. The limiting blocks 19 are "T"-shaped blocks. The limiting blocks 19 are fixedly installed on the outer wall of the cooling plate 16. The adjusting strip 17 is limited by several limiting blocks 19 to prevent the adjusting strip 17 from shifting during the adjustment process. A limiting rod 24 is movably installed on the support plate 20. The top end of the limiting rod 24 is fixedly installed on the bottom of the upper plate of the equipment cavity 7. The limiting rod 24 can limit the support plate 20 and prevent the support plate 20 from shifting during the lifting and lowering adjustment of the bottom tray 23 by the drive plate 22.

[0035] The connecting adjustment component includes a partition plate 15. A connecting groove 39 is spaced apart on the side wall of the partition plate 15, penetrating the side wall and connecting the two sides of the partition plate 15. A receiving groove 41 is formed at the top inner side of the connecting groove 39, connecting the receiving groove 41 and the connecting groove 39. A sliding groove 42 is spaced apart on the side wall of the partition plate 15, connecting the sliding groove 42 and the area between the two partition plates. A closing plate 40 is slidably installed within the connecting groove 39, and the sliding groove 42 also connects to the connecting groove 39 and the receiving groove 41. The area between the two partition plates is movable on both sides near the end of the partition plate 15. An auxiliary adjustment plate 49 is installed. The auxiliary adjustment plate 49 is an "L" shaped plate. The auxiliary adjustment plate 49 is rotatably installed on the partition. A connecting strip 50 is installed at an angle at the corner end of the two auxiliary adjustment plates 49 that are close to each other. The length of the connecting strip 50 is adapted to the length of the auxiliary adjustment plate 49. A movable block 52 is movably installed at the end of the two connecting strips 50 that are close to each other and away from the auxiliary adjustment plate 49. The movable block 52 can rotate on the two connecting strips 50. A slider 51 is slidably installed inside the slide groove 42. The slider 51 and the closing plate 40 are fixedly connected to each other. A toggle spring 53 is fixedly installed on the side of the slider 51 that is close to the movable block 52. In the initial state, the closing plate 40 blocks the connecting groove 39, and the slider 51 is located at the bottom of the groove 42. At this time, the actuating spring 53 is in a contracted state. The two plates forming an "L" shape on the auxiliary adjustment plate 49 face downward (vertical plate) and the other faces away from the isolation plate 15 (horizontal plate). When the horizontal plate is pushed upward, the auxiliary adjustment plate 49 will rotate upward, so that the horizontal plate originally facing away from the isolation plate 15 will rotate and adjust to the vertical plate facing upward. Correspondingly, it will drive the vertical plate originally facing downward to rotate and adjust to the horizontal plate facing away from the isolation plate 15. During the adjustment process of the auxiliary adjustment plate 49, the connecting bar 50 rotates synchronously. This synchronous rotation of the connecting bar 50 causes the distance between the slider 51 and the movable block 52 to gradually increase and then decrease. Simultaneously, the end of the connecting bar 50 furthest from the auxiliary adjustment plate 49 rotates and moves from a lower position to an upper position (with the original horizontal plate as a reference). During this upward movement, the increased distance between the connecting bar 50 and the slider 51, along with the relative rise of the end of the connecting bar 50 furthest from the auxiliary adjustment plate 49, causes the slider 51 to rise within the groove 42, stretching and actuating the spring element 53. When the distance between the slider 51 and the movable block 52 is adjusted to its maximum... As the auxiliary adjustment plate 49 continues to rotate, the distance between the movable block 52 and the slider 51 will shorten. At this time, the actuating spring 53, which has been stretched to its maximum, will contract and return to its initial state through the pulling force. At this time, the contraction of the actuating spring 53 will drive the movable block 52 to adjust. At this time, the auxiliary adjustment plate 49 will rotate and adjust through the spring force of the actuating spring 53 and the movable block 52, and adjust to a state where one end faces upward and the other end faces away from the isolation plate 15. This will cause the slider 51 to move to the uppermost position in the slide groove 42, thereby causing the sealing plate 40 to move into the storage groove 41, opening the connecting groove 39 and allowing airflow to pass through. Conversely, rotating the auxiliary adjustment plate 49 downwards will cause the slider 51 to move downwards within the slide groove 42. When the slider 51 and the movable block 52 move to the maximum distance, as the auxiliary adjustment plate 49 continues to rotate, the elastic contraction of the spring element 53 and the rotation of the auxiliary adjustment plate 49 will cause the slider 51 to move to the bottom within the slide groove 42, thereby returning the auxiliary adjustment plate 49 to its initial state, and causing the closing plate 40 to block the connecting groove 39. The synchronous adjustment component is installed between the two partitions at the position corresponding to the auxiliary adjustment plate 49. The end of the synchronous adjustment component away from the auxiliary adjustment plate 49 is fixedly connected to the adjustment bar 17. The synchronous adjustment component includes a support plate 37, which is fixedly installed in the gap between two partitions near the side of the partition plate 15. The side walls of the support plate 37 are provided with auxiliary adjustment grooves 47 at intervals corresponding to the positions of the auxiliary adjustment plates 49. An adjustment plate 48 is slidably installed in the auxiliary adjustment grooves 47. The adjustment plate 48 is a "U" shaped plate. The two ends of the adjustment plate 48 are slidably installed in the two auxiliary adjustment grooves 47 respectively, and the end of the adjustment plate 48 near the auxiliary adjustment plate 49 extends into the area between the horizontal plate and the vertical plate on the auxiliary adjustment plate 49. A main control block 44 is fixedly installed on the end of the adjustment plate 48 away from the auxiliary adjustment plate 49. Adjustment grooves 45 are opened on both sides of the main control block 44. The adjustment grooves 45 penetrate the bottom wall of the main control block 44. Pushing blocks 43 are provided at the bottom of the two adjustment grooves 45. Control strips 38 are fixedly installed on the end of the two pushing blocks 43 away from the support plate 37. The end of the control strip 38 away from the pushing block 43 is fixedly installed on the side wall of the adjustment strip 17 at the corresponding position. Auxiliary grooves 54 are provided on both sides of the adjustment groove 45. A damping block 46 is movably installed in the auxiliary groove 54. The side of the damping block 46 away from the auxiliary groove 54 is arc-shaped. An auxiliary spring 55 is fixedly installed on the side of the damping block 46 close to the auxiliary groove 54. The end of the auxiliary spring 55 away from the damping block 46 is fixedly installed on the inner wall of the auxiliary groove 54. Both ends of the pushing block 43 are arc-shaped.

[0036] When the adjusting bar 17 rises, it drives the control bar 38 to rise synchronously, which in turn drives the pushing block 43 to rise. This causes the pushing block 43 to move to a position below the two damping blocks 46 within the adjusting groove 45. As the pushing block 43 continues to rise, it drives the damping blocks 46 upwards, causing the main control block 44 to rise within the auxiliary adjusting groove 47. This causes the adjusting plate 48 to adjust the auxiliary adjusting plate 49, thereby moving the closing plate 40 into the receiving groove 41, opening the connecting groove 39. At this point, the adjusting plate 48 moves to the top of the auxiliary adjusting groove 47. Restricted by the top of the auxiliary adjusting groove 47, the control bar 38, driving the pushing block 43 to continue rising, will squeeze the two damping blocks 46, causing the damping blocks 46 to move into the auxiliary groove 54 until... When the push block 43 moves above the damping block 46, the damping block 46 will be reset by the auxiliary spring 55. When the control bar 38 drives the push block 43 to descend, the descent of the push block 43 will drive the main control block 44 to descend synchronously, and then the adjustment plate 48 will drive the auxiliary adjustment plate 49 to adjust again, so that the closing plate 40 moves into the connecting groove 39 to complete the sealing. At this time, the adjustment plate 48 moves to the bottom of the auxiliary adjustment groove 47. Restricted by the bottom of the auxiliary adjustment groove 47, the control bar 38 drives the push block 43 to continue to descend, which will squeeze the two damping blocks 46, so that the damping blocks 46 move into the auxiliary groove 54 until the push block 43 moves below the damping block 46. The damping block 46 will be reset by the auxiliary spring 55, thus completing the adjustment operation.

[0037] The working principle of this invention is: When the integrated machine of the present invention is used, the energy storage device is installed on the frame 11 inside the equipment cavity 7, and the two door panels 3 are rotated and closed. The energy storage device is controlled by the relevant control device in the control cavity 8. When cooling is required, the air conditioner 4 on one door panel 3 or the air conditioner 4 on both door panels 3 can be turned on at the same time, so as to cool the energy storage device inside the equipment cavity 7. When performing individual cooling operations, the drive motor 21 for the corresponding cooling area is activated, causing the drive motor 21 to rotate the drive disc 22. This, in conjunction with the reset spring 25 on the bottom tray 23 and limited by the limit rod 24, allows the support plate 20 to be raised and lowered. This, in turn, causes the adjusting bar 17 to be raised and lowered. When the adjusting bar 17 rises, it drives the rotating block 32 to rotate via the drive rack 27 and driven gear 26. The rotation of the rotating block 32 then presses against the two pressing plates 31, causing them to move away from each other. This, in turn, presses against the auxiliary rubber plate 3. The compression of the 0 causes the auxiliary rubber plate 30 to block the cooling groove 28. The compression of the two compression plates 31 compresses the transmission space inside the cooling plate 16, causing the cold air to be compressed and transmitted through the turbulence hole 29 to the connection of the two adjacent energy storage devices. At the same time, the rise of the adjustment bar 17 will also drive the push block 43 to rise through the control bar 38, thereby causing the main control block 44 to move upward through the adjustment plate 48 and drive the auxiliary adjustment plate 49 to rotate and adjust, so that the sealing plate 40 moves into the storage groove 41 and opens the connecting groove 39, allowing the airflow to be transmitted to another device cavity 7 through the connecting groove 39. When the adjusting bar 17 descends, it drives the rotating block 32 to reset and rotate via the drive rack 27 and driven gear 26. This causes the two pressing plates 31 to reset and move via the reset component, thereby opening the cooling groove 28 and expanding the cold airflow transmission space within the cooling plate 16. This reduces the airflow transmission intensity, allowing the airflow to be effectively transmitted to the equipment cavity 7 and cool the energy storage device within the equipment cavity 7. Simultaneously, the control bar 38 drives the pushing block 43 to descend, causing the main control block 44 to drive the adjusting plate 48 to descend. This causes the auxiliary adjusting plate 49 to reset and rotate, thereby moving the sealing plate 40 into the connecting groove 39 and sealing the connecting groove 39. This prevents the cold airflow from being transmitted to another equipment cavity 7, allowing the cold airflow to cool the corresponding area of ​​the equipment cavity 7.

[0038] The above description is only a preferred embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the scope of the technology disclosed in the present invention, based on the technical solution and inventive concept of the present invention, should be covered within the scope of protection of the present invention.

Claims

1. A modular energy storage integrated unit, comprising a base (1), characterized in that: The top of the base (1) is fixedly installed with a box (2). The base (1) and the box (2) are connected by segment welding. Equipment cavities (7) are opened on both sides of the interior of the base (1). A connecting cavity (14) connecting the two equipment cavities (7) is opened on the rear side of the base (1). A frame (11) is installed on the inner side of the two equipment cavities (7). The frame (11) and the box (2) are connected by segment welding. A hoisting component is installed at the bottom of the base (1). A control cavity (8) is opened on both sides of the bottom of the inner side of the box (2). A data controller and a switch controller are installed inside the control cavity (8). Door panels (3) are movably installed on both sides of the front end of the housing (2). An air conditioner (4) is installed on the door panel (3). The air outlet of the air conditioner (4) faces the equipment cavity (7). A guide plate (5) is fixedly installed at the air outlet position of the air conditioner (4). A sealing strip (6) is fixedly installed on the end of the guide plate (5) away from the air conditioner (4). A transmission plate (12) is fixedly installed on the side of the frame (11) inside the equipment cavity (7) near the guide plate (5). The inside of the transmission plate (12) is hollow. A transmission port (13) is opened on the side of the transmission plate (12) near the air conditioner (4). The transmission port (13) and the transmission plate (12) are interconnected. The position of the sealing strip (6) corresponds to the position of the transmission port (13) on the transmission plate (12). The bottom of the door panel (3) is equipped with louvers (9) at intervals, and a filter plate (10) is installed on the side of the louvers (9) near the control cavity (8) by bolts.

2. The modular energy storage integrated machine according to claim 1, characterized in that: Several cooling plates (16) are fixedly installed at intervals on both sides of the frame (11), and the interior of the cooling plate (16) is hollow. The hollow area inside the cooling plate (16) is interconnected through the frame (11) and the transmission plate (12). A cooling groove (28) is opened on the side of the cooling plate (16) near the equipment cavity (7). A cooling adjustment component is installed inside the cooling plate (16). The end of the cooling adjustment component away from the interior of the cooling plate (16) extends to the outside of the cooling plate (16). A driving component is installed below the bottom plate of the equipment cavity (7). The driving component and the cooling adjustment component are movably connected to each other. Each of the two device cavities (7) is equipped with a partition on one side close to each other. There is an adjustment gap between the two partitions, and the gap area between the two partitions corresponds to the position of the connecting cavity (14). A connecting adjustment component is fixedly installed on the inner side of the connecting cavity (14). A synchronous adjustment component is installed between the two partitions. The synchronous adjustment component and the connecting adjustment component are movably connected to each other, and the synchronous adjustment component and the driving component are fixedly connected to each other. The cooling adjustment component includes two extrusion plates (31) that can be raised and lowered within the cooling plate (16). The two extrusion plates (31) are movably installed in the cooling plate (16) at opposite ends via a reset component. The cooling groove (28) is opened on the cooling plate (16) at a position corresponding to the opposite side of the two extrusion plates (31). Several turbulence holes (29) are spaced apart on the sidewall of the cooling plate (16) on the opposite side of the two cooling grooves (28). The position of the turbulence holes (29) corresponds to the gap area between two adjacent devices in the equipment cavity (7). An auxiliary rubber plate (30) is fixedly installed on the opposite side of the two cooling grooves (28) on the cooling plate (16). The auxiliary rubber plate (30) is inclined towards the side closer to the cooling plate (16).

3. The modular energy storage integrated machine according to claim 2, characterized in that: One of the extrusion plates (31) in the cooling plate (16) has a side plate (34) fixedly installed on both sides. The other extrusion plate (31) in the cooling plate (16) has a clamping plate (36) fixedly installed on both sides. The side plate (34) and the clamping plate (36) are located on one side close to each other of the two extrusion plates (31). A slot (35) is opened on the side wall of the side plate (34) corresponding to the position of the clamping plate (36). The clamping plate (36) is inserted into the slot (35).

4. A modular energy storage integrated machine according to claim 3, characterized in that: The two extrusion plates (31) are provided with pressure grooves (33) on one side close to each other. The pressure grooves (33) are strip-shaped arc grooves with arc-shaped ends. Rotating blocks (32) are movably installed inside the two pressure grooves (33). The rotating blocks (32) are strip-shaped arc blocks with arc-shaped ends. A driven gear (26) is installed on the side of the cooling plate (16) away from the equipment cavity (7). The driven gear (26) slides through the cooling plate (16) and the rotating block (32) and is fixedly connected to each other. The driven gear (26) and the driving component mesh with each other.

5. A modular energy storage integrated machine according to claim 4, characterized in that: The driving component includes a drive motor (21), which is installed in the control cavity (8). A drive disk (22) is fixedly installed on the output shaft of the drive motor (21). The drive disk (22) is a wave-shaped arc plate. A bottom tray (23) is installed on the inner side of the drive disk (22). A reset spring (25) is fixedly installed on the top of the bottom tray (23). The end of the reset spring (25) away from the bottom tray (23) is fixedly installed on the bottom plate of the equipment cavity (7). Support plates (20) are fixedly installed on both sides of the bottom tray (23). An adjustment strip (17) is fixedly installed on the top of the end of the support plate (20) away from the bottom tray (23). A drive rack (27) is provided on the side wall of the adjustment strip (17) corresponding to the position of the driven gear (26). The driven gear (26) and the drive rack (27) mesh with each other.

6. A modular energy storage integrated machine according to claim 5, characterized in that: The side wall of the adjusting strip (17) is provided with a limiting groove (18), which is a strip-shaped groove. Several limiting blocks (19) are fixedly installed at intervals inside the limiting groove (18). The limiting blocks (19) are "T"-shaped blocks. The limiting blocks (19) are fixedly installed on the outer wall of the cooling plate (16). A limiting rod (24) is movably installed on the support plate (20). The top end of the limiting rod (24) is fixedly installed on the bottom of the upper plate of the equipment cavity (7).

7. A modular energy storage integrated machine according to claim 5, characterized in that: The connecting adjustment component includes an isolation plate (15), a connecting groove (39) is provided at intervals on the side wall of the isolation plate (15), a receiving groove (41) is provided at the top inside the connecting groove (39), the receiving groove (41) and the connecting groove (39) are connected to each other, a closing plate (40) is slidably installed in the connecting groove (39), and a sliding groove (42) is provided at intervals on the side wall of the isolation plate (15).

8. A modular energy storage integrated machine according to claim 7, characterized in that: Auxiliary adjustment plates (49) are movably installed on both sides of the area between the two partitions near the partition plate (15). The auxiliary adjustment plates (49) are "L" shaped plates and are rotatably installed on the partitions. A connecting strip (50) is fixedly installed at the corner end of the two auxiliary adjustment plates (49) close to each other. A movable block (52) is movably installed at the end of the two connecting strips (50) close to each other away from the auxiliary adjustment plates (49). A slider (51) is slidably installed inside the slide groove (42). The slider (51) and the closing plate (40) are fixedly connected to each other. A toggle spring element (53) is fixedly installed on the side of the slider (51) close to the movable block (52).

9. A modular energy storage integrated machine according to claim 8, characterized in that: The synchronous adjustment component is installed between the two partitions at the position corresponding to the auxiliary adjustment plate (49). The end of the synchronous adjustment component away from the auxiliary adjustment plate (49) is fixedly connected to the adjustment bar (17).

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