A temperature control structure for an aluminum alloy intelligent integrated energy station

Abstract

The application provides a temperature control structure for an aluminum alloy intelligent integrated energy station, and belongs to the technical field of comprehensive intelligent energy stations. The temperature control structure comprises an aluminum alloy box body, box doors movably arranged on the two sides of the aluminum alloy box body, heat absorption assemblies arranged on the inner sides of the aluminum alloy box body, and a cooling assembly arranged on one side of the heat absorption assemblies. The heat absorption assemblies comprise heat absorption channels fixed to the inner side walls of the aluminum alloy box body, and pump bodies arranged on the four upper connection channels. The cooling assembly comprises two supports fixed to the upper end of the aluminum alloy box body, and barrier discs one and two fixed to the inner sides of the two ends of a long tank. The inner sides of the long tank are respectively isolated into a discharge chamber, a heat transfer chamber and a liquid inlet chamber through the barrier discs one and two. The application solves the problem that the existing integrated energy station cooling is mostly realized by opening holes and cooperating with fan blowing. Although this cooling method can achieve a certain cooling effect, dust and the like can enter the shell interior, thereby affecting the service life and operation stability of the equipment.

Description

Technical Field

[0001] This invention belongs to the field of integrated smart energy station technology, specifically relating to a temperature control structure for an aluminum alloy smart integrated energy station. Background Technology

[0002] Integrated smart energy stations are modular energy facilities that integrate multiple functions such as substations, energy storage stations, data center stations, and cold and heat source equipment. They are widely used in industrial parks, commercial complexes, data centers, and other scenarios to provide integrated energy services for power supply, heating, and cooling. With the promotion of the "multi-station integration" concept and the rapid development of smart energy technologies, integrated energy stations are playing an increasingly important role in urban energy systems.

[0003] Integrated energy stations centrally house multiple heat-generating devices such as substations, energy storage stations, and data centers within a casing. These devices generate Joule heat during operation. Existing integrated energy stations mostly achieve cooling by opening vents and using fans. While this cooling method can achieve a certain cooling effect, it allows dust and other contaminants to enter the casing, thereby affecting the lifespan and operational stability of the equipment. Summary of the Invention

[0004] This invention provides a temperature control structure for an aluminum alloy smart integrated energy station. Its purpose is to solve the problem that most existing integrated energy stations achieve cooling by opening holes and using fans. Although this cooling method can achieve a certain cooling effect, dust and other particles can enter the casing, which in turn affects the lifespan and operational stability of the equipment.

[0005] This invention provides a temperature control structure for an aluminum alloy smart integrated energy station, comprising an aluminum alloy box body, with doors movably installed on both sides of the aluminum alloy box body, heat absorption components installed on both sides of the inner side of the aluminum alloy box body, and a cooling component installed on one side of the heat absorption components.

[0006] The heat absorption assembly includes a heat absorption channel fixed to the inner side wall of the aluminum alloy housing. The heat absorption channel has a serpentine structure. The output end of the heat absorption channel extends out of the aluminum alloy housing and is connected to the first connecting channel. One end of the first connecting channel is connected to the second connecting channel. The input end of the heat absorption channel extends out of the aluminum alloy housing and is connected to the third connecting channel. One end of the third connecting channel is connected to the fourth connecting channel. A pump body is installed on the fourth connecting channel.

[0007] The cooling component includes two brackets fixed to the upper end of the aluminum alloy box. The upper end of the brackets is fixed to a long tank. The inner sides of both ends of the long tank are fixed to a first barrier disk and a second barrier disk. The inner side of the long tank is isolated into a discharge chamber, a heat transfer chamber and a liquid inlet chamber by the first barrier disk and the second barrier disk.

[0008] One side of the long tank is fixedly connected to a discharge connector 1, which is connected to the discharge chamber. The other side of the long tank is fixedly connected to a liquid inlet connector 1, into which cold liquid is introduced. The discharge connector 1 is used to discharge the fluid after heat absorption. The liquid inlet connector 1 is connected to the liquid inlet chamber. The upper end of the long tank is fixedly connected to a discharge connector 2 and a liquid inlet connector 2. The liquid inlet connector 2 is connected to the other end of the connecting channel 2. The discharge connector 2 is connected to the other end of the connecting channel 4. The discharge connector 2 and the liquid inlet connector 2 are each connected to both sides of the heat transfer chamber.

[0009] Both the first and second barrier disks have multiple openings. The openings on the first and second barrier disks are connected by multiple heat transfer channels. An assembly space is reserved in the middle of the heat transfer channels. A rotating column is installed in the assembly space. The rotating column is screwed between the first and second barrier disks. One side of the rotating column extends out of the second barrier disk and is embedded in the liquid inlet chamber. Multiple propeller blades are fixed to the outer circumference of the rotating column in the liquid inlet chamber. Multiple disturbance plates are fixed to the outer circumference of the rotating column in the assembly space.

[0010] Furthermore, the aluminum alloy enclosure is designed using a combination of aluminum alloy honeycomb panels.

[0011] Furthermore, the rotating column has a pre-reserved cleaning chamber with its opening facing the liquid inlet chamber. The rotating column has multiple cleaning ports that connect to the cleaning chamber. The rotating column in the liquid inlet chamber has multiple movable ports on one side. Each movable port has a movable rod that can be movably installed in it. The movable rods are all fixed to the outer circumference of the movable channel. A plug is fixed to one side of the movable channel.

[0012] Furthermore, the radius of the plug is equal to the radius of the inner circumference of the liquid inlet connector. A traction unit for controlling the movement of the plug is installed on one side of the plug. A baffle block is fixed in the decontamination chamber. Multiple liquid inlets are reserved through the baffle block. The liquid inlets are blocked by the movable channel. A switch is installed at the lower end of the heat transfer chamber.

[0013] Furthermore, a leak-proof strip is fixed around one side of the active channel near the liquid inlet, and the leak-proof strip is made of silicone.

[0014] Furthermore, multiple leak-proof rings are fixed to the outer circumference of the plug, and the leak-proof rings are made of silicone.

[0015] Furthermore, the traction unit includes a ring-shaped opening reserved on the outer circumference of the moving channel. A rotating ring is screwed onto the ring-shaped opening, and a connecting rod is fixed to the rotating ring. One side of the connecting rod is fixed to a movable column. The movable column is controlled to move back and forth by a linear push rod. The linear push rod is fixed to a support frame, and the support frame is fixed to the outside of the long tank.

[0016] Furthermore, a temperature sensor is installed at the upper part of the aluminum alloy casing.

[0017] Furthermore, a protective plate is detachably installed on the outside of the heat absorption channel via bolts, and multiple through holes are evenly reserved on the protective plate.

[0018] The beneficial effects of this invention are as follows:

[0019] 1. When the internal device of the aluminum alloy enclosure generates Joule heat and moisture, the internal temperature rises. The heat-absorbing component absorbs heat from the internal components and then transports the fluid containing the Joule heat to the cooling component. The cooling component cools the fluid, and the cooled fluid is then transported back to the heat-absorbing component, forming a closed-loop cooling system. This system achieves temperature control of the energy station, replacing the traditional open-hole cooling method. While ensuring that the energy station can cool itself, it also prevents dust and other contaminants from entering the aluminum alloy enclosure during the cooling process, thus ensuring the lifespan and operational stability of the internal equipment.

[0020] 2. In this invention, an assembly space is installed in the middle of the heat transfer channel. A rotating column is installed in the assembly space. The rotating column is screwed between the first barrier disk and the second barrier disk. One side of the rotating column extends out of the second barrier disk and is embedded in the liquid inlet chamber. Multiple propeller blades are fixedly connected to the outer circumferential surface of the rotating column in the liquid inlet chamber. Multiple disturbance plates are fixedly connected to the outer circumferential surface of the rotating column in the assembly space.

[0021] When fluid A moves into the inlet chamber through the inlet connector, it drives the propeller blades to rotate. The propeller blades pull the rotating column to rotate, and the rotating turbulence plate pulls the fluid B in the heat transfer chamber to move, so that the two fluids inside and outside the heat transfer channel can exchange, thereby achieving the purpose of balancing heat conduction and enhancing the function of heat conduction.

[0022] The rotating column has a pre-installed cleaning chamber with its opening facing the liquid inlet chamber. Multiple cleaning ports connected to the cleaning chamber are pre-installed on the rotating column. A movable channel is movably installed in the liquid inlet chamber, with a plug fixed to one side of the channel. The plug and the liquid inlet connector are compatible. A traction unit for controlling the movement of the plug is installed on one side of the plug. A baffle block is fixed to the cleaning chamber, through which multiple liquid inlets are pre-installed. The liquid inlets are blocked by the movable channel. A switch is installed at the lower end of the heat transfer chamber. When removing dirt from the heat transfer channel, simply operate the traction unit to move the plug into the liquid inlet connector. At this point, the blockage of the liquid inlet is released, and detergent is fed into the liquid inlet connector. The detergent flows from the liquid inlet connector into the plug and the movable channel, but not into the liquid inlet chamber. The detergent moves through the liquid inlets to the cleaning chamber and is finally ejected from each cleaning port, thus removing dirt from the heat transfer channel from the inside out, significantly improving the cleaning function.

[0023] Other features and advantages of the invention will be set forth in the following description, and will be apparent in part from the description, or may be learned by practicing the invention. The objects and other advantages of the invention may be realized and obtained by means of the structures particularly pointed out in the description and the drawings. Attached Figure Description

[0024] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used together with the embodiments of the invention to explain the invention and do not constitute a limitation thereof. In the drawings:

[0025] Figure 1 This is a first-view three-dimensional structural diagram of an embodiment of the present invention;

[0026] Figure 2 This is a schematic diagram of the three-dimensional structure from a second perspective of an embodiment of the present invention;

[0027] Figure 3 This is a schematic diagram of the inner structure of the protective plate according to an embodiment of the present invention;

[0028] Figure 4 This is a first-view structural diagram of the cooling component according to an embodiment of the present invention;

[0029] Figure 5 This is a schematic diagram of the cooling component structure from a second perspective according to an embodiment of the present invention;

[0030] Figure 6 This is an embodiment of the present invention. Figure 5 A schematic diagram of the cross-sectional structure;

[0031] Figure 7 This is an embodiment of the present invention. Figure 6 A magnified structural diagram at point M;

[0032] Figure 8 This is a schematic diagram of the internal structure of the long tank according to an embodiment of the present invention from a first-view perspective;

[0033] Figure 9 This is an embodiment of the present invention. Figure 8 A magnified structural diagram at point N;

[0034] Figure 10 This is a schematic diagram of the internal structure of the long tank in an embodiment of the present invention from a second perspective;

[0035] Figure 11 This is a schematic diagram of the active channel structure according to an embodiment of the present invention;

[0036] Figure 12 This is a schematic diagram of the barrier block structure according to an embodiment of the present invention;

[0037] Figure 13 This is a schematic diagram of the rotating column structure according to an embodiment of the present invention;

[0038] Attached reference numerals: 1. Aluminum alloy housing; 2. Housing door; 3. Heat absorption component; 4. Cooling component; 5. Protective plate; 31. Heat absorption channel; 32. Connecting channel one; 33. Connecting channel two; 34. Connecting channel three; 35. Connecting channel four; 36. Pump body; 41. Long tank; 42. Support; 43. Discharge connector one; 44. Liquid inlet connector one; 45. Discharge connector two; 46. Liquid inlet connector two; 48. Linear push rod; 49. Discharge chamber; 410. Barrier disc one; 412. Barrier disc two ; 414, Heat transfer channel; 416, Heat transfer chamber; 417, Liquid inlet chamber; 418, Propeller blade; 419, Rotating column; 420, Disturbance plate; 421, Cleaning chamber; 422, Plug; 423, Leak-proof ring; 424, Leak-proof strip; 425, Movable port; 426, Variable rod; 427, Movable channel; 428, Rotating ring; 429, Connecting rod; 430, Movable column; 431, Support frame; 432, Barrier block; 433, Liquid inlet; 434, Cleaning port; 435, Switch. Detailed Implementation

[0039] To make the objectives, technical solutions, and advantages of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. The same reference numerals in the drawings represent the same components. It should be noted that the described embodiments are only some, not all, of the embodiments of the present invention. All other embodiments obtained by those skilled in the art based on the described embodiments of the present invention without creative effort are within the scope of protection of the present invention.

[0040] Reference Figures 1 to 3 This invention proposes a temperature control structure for an aluminum alloy smart integrated energy station, comprising an aluminum alloy housing 1. A fan (not shown in the figure) is installed in the center of the upper part of the aluminum alloy housing 1 to accelerate the airflow inside the aluminum alloy housing 1, thereby enhancing the cooling effect. Housing doors 2 are movably installed on both sides of the aluminum alloy housing 1. Heat absorption components 3 are installed on both sides of the inner side of the aluminum alloy housing 1, and a cooling component 4 is installed on one side of the heat absorption component 3.

[0041] When the internal devices of the aluminum alloy enclosure 1 generate Joule heat and moisture, causing the internal temperature to rise, the heat-absorbing component 3 absorbs heat from the internal components. The heat-absorbing component 3 then transports the fluid containing the Joule heat to the cooling component 4, where it is cooled. The cooled fluid is then transported back to the heat-absorbing component 3, forming a closed-loop cooling system. This system achieves temperature control of the energy station, replacing the traditional open-hole cooling method. While ensuring that the energy station can cool itself, it also prevents dust and other contaminants from entering the aluminum alloy enclosure 1 during the cooling process, thus ensuring the lifespan and operational stability of the internal equipment.

[0042] The aluminum alloy enclosure 1 is designed with aluminum alloy honeycomb panels to improve thermal insulation and vibration resistance.

[0043] Reference Figures 1 to 3 The heat absorption component 3 includes a heat absorption channel 31 fixed to the inner side wall of the aluminum alloy housing 1. The heat absorption channel 31 has a serpentine structure. The output end of the heat absorption channel 31 extends out of the aluminum alloy housing 1 and is connected to the first connecting channel 32. One end of the first connecting channel 32 is connected to the second connecting channel 33. The input end of the heat absorption channel 31 extends out of the aluminum alloy housing 1 and is connected to the third connecting channel 34. One end of the third connecting channel 34 is connected to the fourth connecting channel 35. A pump body 36 is installed on the fourth connecting channel 35.

[0044] The heat absorption channel 31 absorbs the Joule heat generated in the aluminum alloy housing 1 and transfers it to the fluid in the heat absorption channel 31. The fluid is pumped to the cooling component 4 by the pump body 36. The cooling component 4 performs cooling treatment on the hot fluid. After cooling, the fluid is pumped back to the heat absorption channel 31 by the pump body 36 to perform heat absorption, thereby realizing the temperature control function.

[0045] Reference Figures 1 to 13 The cooling component 4 includes two brackets 42 fixed to the upper end of the aluminum alloy box 1. The upper end of the brackets 42 is fixed to the long tank 41. The inner sides of both ends of the long tank 41 are fixed to the first barrier disk 410 and the second barrier disk 412. The inner side of the long tank 41 is isolated into a discharge chamber 49, a heat transfer chamber 416 and a liquid inlet chamber 417 by the first barrier disk 410 and the second barrier disk 412, respectively.

[0046] Among them, one side of the long tank 41 is fixedly connected to the discharge connector 43, which is connected to the discharge chamber 49. The other side of the long tank 41 is fixedly connected to the liquid inlet connector 44, into which cold liquid is introduced. The discharge connector 43 is used to discharge the fluid after heat absorption. The liquid inlet connector 44 is connected to the liquid inlet chamber 417. The upper end of the long tank 41 is fixedly connected to the discharge connector 45 and the liquid inlet connector 46. The liquid inlet connector 46 is connected to the other end of the connecting channel 33. The discharge connector 45 is connected to the other end of the connecting channel 35. The discharge connector 45 and the liquid inlet connector 46 are each connected to both sides of the heat transfer chamber 416.

[0047] Both the first barrier disk 410 and the second barrier disk 412 have multiple openings. The openings on the first barrier disk 410 and the second barrier disk 412 are connected by multiple heat transfer channels 414, and each heat transfer channel 414 is a coiled structure.

[0048] During cooling, fluid A flows into inlet chamber 417 through inlet connector 1 44, moves to outlet chamber 49 through each heat transfer channel 414, and is finally discharged through outlet connector 1 43; fluid B moves to heat transfer chamber 416 through outlet connector 2 45 and is finally discharged through inlet connector 2 46; heat conduction is performed between fluid A in heat transfer channel 414 and fluid B in heat transfer chamber 416, and heat conduction is achieved using heat transfer channel 414.

[0049] In the middle of the heat transfer channel 414, an assembly space is reserved. A rotating column 419 is installed in the assembly space. The rotating column 419 is screwed between the first barrier disk 410 and the second barrier disk 412. One side of the rotating column 419 extends out of the second barrier disk 412 and is embedded in the liquid inlet chamber 417. Multiple propeller blades 418 are fixedly connected to the outer circumferential surface of the rotating column 419 in the liquid inlet chamber 417. Multiple disturbance plates 420 are fixedly connected to the outer circumferential surface of the rotating column 419 in the assembly space.

[0050] The rotating column 419 and the barrier disk 412 are sealed without gaps to prevent the fluid in the liquid inlet chamber 417 and the fluid in the heat transfer chamber 416 from mixing with each other.

[0051] When fluid A moves into inlet chamber 417 through inlet connector 44, it drives propeller blade 418 to rotate. Propeller blade 418 pulls rotating column 419 to rotate. Disturbance plate 420 rotates and pulls fluid B in heat transfer chamber 416 to move, so that the two fluids inside and outside heat transfer channel 414 can exchange, thereby achieving the purpose of balanced heat transfer and enhancing the function of heat conduction.

[0052] The rotating column 419 has a pre-reserved cleaning chamber 421 with its opening facing the liquid inlet chamber 417. The rotating column 419 has multiple cleaning ports 434 that connect to the cleaning chamber 421. The rotating column 419 in the liquid inlet chamber 417 has multiple movable ports 425 on one side. Each movable port 425 has a movable rod 426 that can be movably installed. The movable rods 426 are all fixed to the outer circumferential surface of the movable channel 427. One side of the movable channel 427 is fixed to a plug 422.

[0053] The radius of the plug 422 is equal to the radius of the inner circumference of the liquid inlet connector 44. A traction unit for controlling the movement of the plug 422 is installed on one side of the plug 422. A baffle block 432 is fixed in the decontamination chamber 421. Multiple liquid inlets 433 are reserved through the baffle block 432. The liquid inlets 433 are blocked through the movable channel 427.

[0054] A switch 435 is installed at the lower end of the heat transfer chamber 416;

[0055] To enhance the blocking effect, a leak-proof strip 424 is fixed around one side of the active channel 427 near the liquid inlet 433. The leak-proof strip 424 is made of silicone.

[0056] Multiple leak-proof rings 423 are fixed to the outer circumferential surface of the plug 422. The leak-proof rings 423 are made of silicone to enhance the leak-proof function.

[0057] When it is necessary to remove the stains in the heat transfer channel 414, simply operate the traction unit to move the traction plug 422 into the liquid inlet connector 44. At this time, the blockage of the liquid inlet 433 is removed, and detergent is fed into the liquid inlet connector 44. The detergent flows from the liquid inlet connector 44 to the plug 422 and the movable channel 427, but does not flow into the liquid inlet chamber 417. The detergent moves through the liquid inlet 433 to the decontamination chamber 421 and is finally ejected from each decontamination port 434, thereby removing the stains on the heat transfer channel 414 from the inside out, greatly improving the decontamination function.

[0058] After being soaked in detergent, fluid is injected into the heat transfer chamber 416 through the liquid inlet connector 2 46 until it is full. After it is full, the switch 435 is turned on to release the wastewater and solid stains. This process is repeated several times to achieve the function of cleaning.

[0059] This allows for convenient cleaning of the heat transfer channel 414, ensuring the device maintains strong heat conduction capabilities.

[0060] The traction unit includes a ring-shaped opening reserved on the outer periphery of the movable channel 427. A rotating ring 428 is screwed onto the ring-shaped opening. A connecting rod 429 is fixed to the rotating ring 428. One side of the connecting rod 429 is fixed to a movable column 430. The movable column 430 is controlled to move back and forth by a linear push rod 48. The linear push rod 48 is fixed to a support frame 431. The support frame 431 is fixed to the outside of the long tank 41.

[0061] A temperature sensor (not shown in the figure) is installed at the upper part of the aluminum alloy housing 1. The temperature sensor, the external cold liquid supply device, and the pump body 36 are electrically connected to the external terminal, and all of them are existing technologies, which will not be described in detail here. The linear actuator 48 is electrically connected to the external terminal and is used to control the movement of the linear actuator 48.

[0062] When the temperature sensor detects an increase in the air temperature of the aluminum alloy housing 1, the external terminal processes the temperature signal and then controls the external cold liquid supply device and pump 36 to work. Through the cooperation of the heat absorption component 3 and the cooling component 4, the Joule heat generated in the aluminum alloy housing 1 is absorbed away, thereby achieving cooling.

[0063] A protective plate 5 is detachably installed on the outside of the heat absorption channel 31 via bolts. Multiple through holes are evenly reserved on the protective plate 5, which can protect the heat absorption channel 31 while ensuring that the Joule heat generated inside is absorbed by the heat absorption channel 31.

[0064] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of the invention. Various changes and modifications can be made to the invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the present invention as claimed. The scope of protection of this invention is defined by the appended claims and their equivalents.

Claims

1. A temperature control structure for an aluminum alloy smart integrated energy station, characterized in that, It includes an aluminum alloy enclosure with movable doors on both sides. Heat-absorbing components are installed on both sides of the inner side of the aluminum alloy enclosure, and a cooling component is installed on one side of the heat-absorbing components. The heat absorption assembly includes a heat absorption channel fixed to the inner side wall of the aluminum alloy housing. The heat absorption channel has a serpentine structure. The output end of the heat absorption channel extends out of the aluminum alloy housing and is connected to the first connecting channel. One end of the first connecting channel is connected to the second connecting channel. The input end of the heat absorption channel extends out of the aluminum alloy housing and is connected to the third connecting channel. One end of the third connecting channel is connected to the fourth connecting channel. A pump body is installed on the fourth connecting channel. The cooling component includes two brackets fixed to the upper end of the aluminum alloy box. The upper end of the brackets is fixed to a long tank. The inner sides of both ends of the long tank are fixed to a first barrier disk and a second barrier disk. The inner side of the long tank is isolated into a discharge chamber, a heat transfer chamber and a liquid inlet chamber by the first barrier disk and the second barrier disk. One side of the long tank is fixedly connected to a discharge connector 1, which is connected to the discharge chamber. The other side of the long tank is fixedly connected to a liquid inlet connector 1, into which cold liquid is introduced. The discharge connector 1 is used to discharge the fluid after heat absorption. The liquid inlet connector 1 is connected to the liquid inlet chamber. The upper end of the long tank is fixedly connected to a discharge connector 2 and a liquid inlet connector 2. The liquid inlet connector 2 is connected to the other end of the connecting channel 2. The discharge connector 2 is connected to the other end of the connecting channel 4. The discharge connector 2 and the liquid inlet connector 2 are each connected to both sides of the heat transfer chamber. Both the first and second barrier disks have multiple openings. The openings on the first and second barrier disks are connected by multiple heat transfer channels. An assembly space is reserved in the middle of the heat transfer channels. A rotating column is installed in the assembly space. The rotating column is screwed between the first and second barrier disks. One side of the rotating column extends out of the second barrier disk and is embedded in the liquid inlet chamber. Multiple propeller blades are fixed to the outer circumference of the rotating column in the liquid inlet chamber. Multiple disturbance plates are fixed to the outer circumference of the rotating column in the assembly space.

2. The temperature control structure for an aluminum alloy smart integrated energy station according to claim 1, characterized in that: The aluminum alloy enclosure is designed using a combination of aluminum alloy honeycomb panels.

3. The temperature control structure for an aluminum alloy smart integrated energy station according to claim 1, characterized in that: The rotating column has a pre-reserved cleaning chamber with its opening facing the liquid inlet chamber. The rotating column has multiple cleaning ports that connect to the cleaning chamber. The rotating column in the liquid inlet chamber has multiple movable ports on one side. Each movable port has a movable rod that can be installed in it. The movable rods are all fixed to the outer circumference of the movable channel. One side of the movable channel is fixed to a plug.

4. The temperature control structure for an aluminum alloy smart integrated energy station according to claim 3, characterized in that: The radius of the plug is equal to the radius of the inner circumference of the liquid inlet connector. A traction unit for controlling the movement of the plug is installed on one side of the plug. A baffle block is fixed in the decontamination chamber. Multiple liquid inlets are reserved through the baffle block. The liquid inlets are blocked by the movable channel. A switch is installed at the lower end of the heat transfer chamber.

5. The temperature control structure for an aluminum alloy smart integrated energy station according to claim 4, characterized in that: A leak-proof strip is fixed around the side of the active channel near the liquid inlet. The leak-proof strip is made of silicone.

6. The temperature control structure for an aluminum alloy smart integrated energy station according to claim 5, characterized in that: Multiple leak-proof rings are fixed to the outer circumference of the plug, and the leak-proof rings are made of silicone.

7. A temperature control structure for an aluminum alloy smart integrated energy station according to claim 6, characterized in that: The traction unit includes a ring-shaped opening reserved on the outer circumference of the moving channel. A rotating ring is screwed onto the ring-shaped opening. A connecting rod is fixed to the rotating ring. One side of the connecting rod is fixed to a movable column. The movable column is controlled to move back and forth by a linear push rod. The linear push rod is fixed to a support frame. The support frame is fixed to the outside of the long tank.

8. The temperature control structure for an aluminum alloy smart integrated energy station according to claim 1, characterized in that: A temperature sensor is installed at the top of the aluminum alloy casing.

9. A temperature control structure for an aluminum alloy smart integrated energy station according to claim 1, characterized in that: A protective plate is detachably installed on the outside of the heat absorption channel via bolts, and multiple through holes are evenly reserved on the protective plate.

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