Radiant cooling metal panel skid-mounted building

Abstract

The present application relates to a kind of pry installation construction field, specifically to a kind of radiation refrigeration metal plate pry installation construction.It includes load-bearing seat, the upper end of load-bearing seat four corners are all fixed with riser, the upper end of riser is fixedly connected by support frame, combination wall is installed between adjacent two risers, and combination wall includes outer assembly, middle layer and inner layer.Radiation refrigeration metal plate is respectively used in the upper end of the pry installation construction and the outer side of combination wall, and radiation refrigeration metal plate can be in the form of infrared electromagnetic wave to radiate energy outward to achieve the effect of refrigeration cooling to inside, so as to ensure the temperature suitability in the pry installation construction.

Description

Technical Field

[0001] This invention relates to the field of skid-mounted buildings, specifically to a skid-mounted building with radiant cooling metal panels. Background Technology

[0002] Radiation cooling metal plates are composites of radiation cooling films and metal substrates through a special process. They radiate energy outward in the form of infrared electromagnetic waves to achieve the effect of internal cooling.

[0003] The patent, CN213110761U (Radiation-Cooled Metal Plate Container), applies radiation-cooled metal plates to cold chain containers, reducing the energy consumption of mechanical refrigeration and using photovoltaic panels to generate electricity, further reducing the external energy consumption of mechanical refrigeration.

[0004] Existing skid-mounted building exterior walls are mostly composed of metal sandwich panels or profiled metal composite walls. Metal exterior walls have high thermal conductivity; even if the core material uses building materials with low thermal conductivity, the rigid contact between the exterior wall panels and the core material still significantly reduces the insulation function of the building envelope. This deficiency in the insulation performance of skid-mounted building envelopes necessitates increased heating and cooling energy consumption during building use to ensure suitable indoor temperatures.

[0005] Installing radiant cooling metal panels into the exterior walls of skid-mounted buildings can help save energy, reduce emissions, and lower energy consumption. Summary of the Invention

[0006] The technical problem to be solved by this invention is a radiant cooling metal panel skid-mounted building that is easy to assemble and has good sealing performance. This radiant cooling metal panel skid-mounted building can improve construction efficiency, reduce construction costs, and ensure suitable temperature inside the skid-mounted building.

[0007] To achieve the above objectives, the technical solution provided by this invention is as follows:

[0008] A radiant cooling metal panel skid-mounted building includes a load-bearing base. Four vertical pipes are fixed to the upper corners of the base. The upper ends of the vertical pipes are fixedly connected via support frames. A composite wall is installed between adjacent vertical pipes. The composite wall includes an outer layer, a middle layer, and an inner layer. The outer layer is fixed within the support frames. The outer layer includes two mounting brackets, which are fixedly connected. Each mounting bracket has a slot on its opposite side. A radiant cooling metal panel extends through the slot into the mounting bracket. A connecting device is provided within the mounting bracket to clamp the radiant cooling metal panel portion within the mounting bracket. The connecting device includes a telescopic plate. Both ends of the telescopic plate are fixed with clamping components. The radiant cooling metal plate inside the mounting frame is located between the two clamping components. The clamping components are slidably connected to the power storage component. The power storage component is fixed inside the mounting frame. The upper and lower sides of the mounting frame are fixed with fulcrum adjustment components. The fulcrum adjustment components are hinged to the connecting rod. The connecting rod is hinged to the clamping component on one side. When the radiant cooling metal plate pushes the power storage component to store power through the telescopic plate, the fulcrum of the fulcrum adjustment component can change. During the process of the power storage component pushing the radiant cooling metal plate to move outward of the mounting frame through the telescopic plate, the two clamping components can move relative to each other and clamp the radiant cooling metal plate.

[0009] Specifically, the middle layer is a core material, and the inner layer is a profiled metal sheet.

[0010] Specifically, a lower cement fiberboard is fixed inside the upper end of the load-bearing seat, and an installation component is fixed at the lower end of the combined wall. The installation component includes an outer vertical part and an inner vertical part. The lower ends of the outer vertical part and the lower ends of the inner vertical part are fixedly connected by a lower horizontal part. The outer vertical part, the inner vertical part, and the lower horizontal part form a U-shaped cavity. The lower end of the combined wall is fixed in the U-shaped cavity. An upper horizontal part is fixed at the upper end of the inner vertical part. The upper horizontal part and the lower cement fiberboard are sealed and connected by a lower sealing strip. The combined wall is fixedly and sealed to the riser.

[0011] Specifically, an upper cement fiberboard is fixed to the lower end of the support frame, and two adjacent vertical pipes are fixedly connected by horizontal pipes. The upper end of the combined wall is fixedly connected to the horizontal pipes, and the upper end of the combined wall contacts the lower end of the upper cement fiberboard. The combined wall and the upper cement fiberboard are sealed together by an upper sealing strip. A partition is fixed on the support frame above the upper cement fiberboard. The partition is located below the outer layer component inside the support frame. Waterproof material is filled between the partition and the outer layer component inside the support frame. Core material is filled between the upper cement fiberboard and the partition.

[0012] Specifically, the radiant cooling metal plate inside the support frame has a water inlet, and the load-bearing seat has a water outlet. The water inlet and the water outlet are connected by a connecting pipe.

[0013] Specifically, the clamping member includes a pressure plate fixedly connected to the telescopic plate, a pressure strip fixed on the pressure plate, the pressure strip contacting the radiant cooling metal plate, and a connecting rod hinged to the pressure plate.

[0014] Specifically, the power storage component includes a push rod that is slidably connected to a telescopic plate. The push rod is slidably inserted into an air cylinder. A piston is fixed at one end of the push rod inside the air cylinder. The air cylinder is fixedly connected to a pressure box, which is fixed inside a mounting frame. The pressure box is connected to an air pipe, one end of which extends to the outside of the mounting frame. A valve is installed on the air pipe outside the mounting frame.

[0015] Specifically, the fulcrum adjustment assembly includes a mounting block fixedly connected to the mounting frame. An inverted L-shaped guide groove is formed within the mounting block. A connecting groove is formed on the side of the mounting block facing the energy storage assembly. The guide groove includes a straight section and a vertical section. A slot is formed on the groove wall of the vertical section near the radiative cooling metal plate and away from the energy storage assembly. A blind hole corresponding to the slot is formed on the mounting block. A spring is fixed inside the blind hole, and a top post is slidably connected inside the blind hole. An electromagnet is fixed on the side of the mounting block near the radiative cooling metal plate. A moving block is slidably connected within the straight section. A permanent magnet is embedded and fixed on the side of the moving block facing the electromagnet. A contact switch corresponding to the moving block is provided on one side of the connecting groove. A connecting rod passes through the connecting groove and is located in a mounting groove on the moving block. The connecting rod portion in the mounting groove is rotatably connected to the moving block. A limit block is fixed on the moving block outside the connecting rod. The distance between the ends of the two connecting rods near the energy storage device is less than the distance between the ends of the two connecting rods away from the energy storage device.

[0016] Specifically, the core material is any one of rock wool, glass wool, and foam glass.

[0017] Specifically, the upper end of the support frame is fixed with a lifting lug.

[0018] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0019] 1. Radiation cooling metal plates are used on the upper part of the skid-mounted building and on the outer side of the composite wall. The radiation cooling metal plates can radiate energy outward in the form of infrared electromagnetic waves to achieve the effect of cooling and reducing the temperature inside, thus ensuring the temperature inside the skid-mounted building is suitable.

[0020] 2. The radiant cooling metal panels are easy to install, which can improve the construction efficiency of this skid-mounted building. The connection structure of the radiant cooling metal panels is stable and has good sealing performance. Attached Figure Description

[0021] Figure 1 This is a schematic diagram of the present invention.

[0022] Figure 2 for Figure 1 A magnified view of region A in the middle.

[0023] Figure 3 This is a schematic diagram showing the connection between the upper part of the composite wall and the horizontal pipe.

[0024] Figure 4 This is a schematic diagram showing the connection between the load-bearing base and the lower end of the composite wall.

[0025] Figure 5 This is a schematic diagram of a load-bearing base.

[0026] Figure 6 This is a schematic diagram of the support frame.

[0027] Figure 7 This is a schematic diagram of the internal structure of the mounting bracket.

[0028] Figure 8 This is a schematic diagram of the moving block.

[0029] Figure 9 This is a schematic diagram showing the sliding connection between the telescopic plate and the push rod.

[0030] Figure 10 This is a cross-sectional view of the mounting block.

[0031] Figure 11 for Figure 10 A magnified view of region B in the middle.

[0032] Figure 12 This is a schematic diagram showing the moving block located in the slot.

[0033] Figure 13 for Figure 12 A magnified view of region C in the middle.

[0034] The names of the components in the attached diagram are:

[0035] 1. Load-bearing base; 2. Riser; 3. Horizontal pipe; 4. Mounting bracket; 5. Lifting lug; 6. Support frame; 7. Radiant cooling metal plate; 8. Outlet; 9. Inlet; 10. Connecting pipe; 11. Partition; 12. Upper cement fiberboard; 121. Upper sealing strip; 13. Corrugated metal plate; 14. Core material; 15. Outer vertical section; 151. Lower horizontal section; 152. Inner vertical section; 153. Upper horizontal section; 154. Lower sealing strip; 1 6. Cement fiberboard; 17. Electromagnet; 18. Connecting slot; 19. Mounting block; 20. Air cylinder; 21. Air pipe; 22. Connecting rod; 23. Pressure strip; 24. Pressure plate; 25. Telescopic plate; 26. Spring; 27. Top column; 28. Mounting slot; 29. ​​Limiting block; 30. Permanent magnet; 31. Contact switch; 32. Moving block; 33. Piston; 333. Pressure box; 34. Push rod; 35. Slot; 36. Guide slot. Detailed Implementation

[0036] like Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figure 5 and Figure 6As shown, a radiant cooling metal panel skid-mounted building includes a load-bearing base 1, with risers 2 fixed at each of the four corners of the upper end of the load-bearing base 1. The upper ends of the risers 2 are fixedly connected via support frames 6. Lifting lugs 5 are fixed to the upper end of the support frames 6. A composite wall is installed between adjacent risers 2. The composite wall is fixedly and sealed to the risers 2. The composite wall includes an outer layer, a middle layer, and an inner layer. The middle layer is a core material 14. The inner layer is a profiled metal sheet 13. The core material 14 can be any one of rock wool, glass wool, and foam glass.

[0037] The upper end of the load-bearing seat 1 is fixed with a lower cement fiberboard 16.

[0038] The lower end of the composite wall is fixed with mounting parts.

[0039] The mounting component includes an outer vertical section 15 and an inner vertical section 152. The lower ends of the outer vertical section 15 and the inner vertical section 152 are fixedly connected by a lower horizontal section 151. The outer vertical section 15, the inner vertical section 152, and the lower horizontal section 151 form a U-shaped cavity, and the lower end of the combined wall is fixed in the U-shaped cavity. An upper horizontal section 153 is fixed to the upper end of the inner vertical section 152, and the upper horizontal section 153 and the lower cement fiberboard 16 are sealed and connected by a lower sealing strip 154.

[0040] The lower end of the support frame 6 is fixed with an upper cement fiberboard 12. Adjacent vertical pipes 2 are fixedly connected by horizontal pipes 3, and the upper end of the combined wall is fixedly connected to the horizontal pipes 3. The upper end of the combined wall contacts the lower end of the upper cement fiberboard 12, and the combined wall and the upper cement fiberboard 12 are sealed together by an upper sealing strip 121. A partition 11 is fixed on the support frame 6 above the upper cement fiberboard 12. An outer layer assembly is installed inside the support frame 6, and the partition 11 is located below the outer layer assembly inside the support frame 6. Waterproof material is filled between the partition 11 and the outer layer assembly inside the support frame 6. A core material 14 is filled between the upper cement fiberboard 12 and the partition 11.

[0041] The radiant cooling metal plate 7 inside the support frame 6 has a water inlet 9 and the load-bearing seat 1 has a water outlet 8. The water inlet 9 and the water outlet 8 are connected by a connecting pipe 10.

[0042] like Figure 1 , Figure 7 , Figure 8 , Figure 9 , Figure 10 , Figure 11 , Figure 12 and Figure 13 As shown, the outer component includes two mounting brackets 4, which are fixedly connected. Each mounting bracket 4 has a slot on its opposite side, through which the radiative cooling metal plate 7 extends into the mounting bracket 4. A connecting device is provided inside the mounting bracket 4 to clamp the portion of the radiative cooling metal plate 7 within the mounting bracket 4.

[0043] The connecting device includes a telescopic plate 25, with clamps fixed at both ends. A radiant cooling metal plate 7 within the mounting frame 4 is located between the two clamps. The clamps are slidably connected to the energy storage component, which is fixed within the mounting frame 4. Support adjustment components are fixed on both the upper and lower sides of the mounting frame 4. These components are hinged to a connecting rod 22, which in turn is hinged to a clamp on one side.

[0044] When the radiant cooling metal plate 7 is pushed by the telescopic plate 25 to store energy, the fulcrum of the fulcrum adjustment component can change. During the process of the energy storage component pushing the radiant cooling metal plate 7 to the outside of the mounting frame 4 through the telescopic plate 25, the two clamping members can move relative to each other and clamp the radiant cooling metal plate 7.

[0045] The clamping member includes a pressure plate 24 fixedly connected to the telescopic plate 25, a pressure strip 23 fixed on the pressure plate 24, the pressure strip 23 contacting the radiant cooling metal plate 7, and a connecting rod 22 hinged to the pressure plate 24.

[0046] The power storage assembly includes a push rod 34, which is slidably connected to a telescopic plate 25. The push rod 34 is slidably inserted into an air cylinder 20, and a piston 33 is fixed to one end of the push rod 34 inside the air cylinder 20. The air cylinder 20 is fixedly connected to a pressure box 333, which is fixed inside a mounting frame 4. The pressure box 333 is connected to an air pipe 21, one end of which extends to the outside of the mounting frame 4, and a valve is installed on the air pipe 21 outside the mounting frame 4.

[0047] The fulcrum adjustment assembly includes a mounting block 19 fixedly connected to the mounting frame 4, and an inverted L-shaped guide groove 36 is formed in the mounting block 19. A connecting groove 18 is formed on the side of the mounting block 19 facing the power storage assembly.

[0048] The guide groove 36 includes a straight section and a vertical section. A slot 35 is formed on the wall of the vertical section near the radiative cooling metal plate 7 and away from the energy storage component. A blind hole corresponding to the slot 35 is formed on the mounting block 19. A spring 26 is fixed inside the blind hole, and a top post 27 is slidably connected inside the blind hole. The spring 26 and the top post 27 are fixedly connected. An electromagnet 17 is fixed on the side of the mounting block 19 near the radiative cooling metal plate 7. A moving block 32 is slidably connected in the straight section, and a permanent magnet 30 is embedded and fixed on the side of the moving block 32 facing the electromagnet 17. A contact switch 31 corresponding to the moving block 32 is provided on one side of the connecting groove 18. The contact switch 31 is electrically connected to the electromagnet 17. The connecting rod 22 passes through the connecting groove 18 and is located in the mounting groove 28 on the moving block 32. The part of the connecting rod 22 in the mounting groove 28 is rotatably connected to the moving block 32. A limit block 29 is fixed on the moving block 32 outside the connecting rod 22. The distance between the ends of the two connecting rods 22 that are closer to the energy storage device is less than the distance between the ends of the two connecting rods 22 that are farther away from the energy storage device.

[0049] Before installing the radiant cooling metal plate 7, the moving block 32 is located in the straight section of the guide groove 36, and the valve on the gas pipe 21 is closed.

[0050] When installing the radiant cooling metal plate 7, one end of the radiant cooling metal plate 7 passes through the opening of the mounting bracket 4 and enters the mounting bracket 4, so that the radiant cooling metal plate 7 is located between the two pressure strips 23.

[0051] The radiant cooling metal plate 7 is pushed into the mounting bracket 4. When the radiant cooling metal plate 7 comes into contact with the telescopic plate 25, the radiant cooling metal plate 7 can push the telescopic plate 25, the pressure plate 24, the pressure strip 23 and the push rod 34 to move towards the pressure box 333. During the process of the push rod 34 moving towards the pressure box 333, the piston 33 moves towards the pressure box 333 in the air cylinder 20, thereby compressing the gas in the pressure box 333.

[0052] During the movement of the pressure plate 24 toward the pressure box 333, the pressure plate 24 causes the moving block 32 to move toward the contact switch 31 in the straight section of the guide groove 36 via the connecting rod 22.

[0053] When the movable block 32 contacts the contact switch 31, the movable block 32 enters the vertical section of the guide groove 36. Simultaneously, the contact switch 31 closes, energizing the electromagnet 17. The energized electromagnet 17 then magnetically attracts the permanent magnet 30.

[0054] When the electromagnet 17 is energized, as the pressure plate 24 drives the connecting rod 22 to move toward the pressure box 333, the moving block 32 moves toward the electromagnet 17 in the vertical section of the guide groove 36.

[0055] As the moving block 32 moves towards the electromagnet 17 within the vertical section of the guide groove 36, the tilt angle of the connecting rod 22 continuously changes. Simultaneously, the angle between the connecting rod 22 and the moving block 32 continuously changes. Once the connecting rod 22 contacts the limiting block 29 on the moving block 32, the angle between the connecting rod 22 and the moving block 32 no longer changes. During the movement of the moving block 32 towards the electromagnet 17, the moving block 32 can drive the pressure plate 24 and pressure strip 23 on one side of it to move towards the radiative cooling metal plate 7 via the connecting rod 22. The length of the telescopic plate 25 decreases, and the pressure strip 23 clamps the radiative cooling metal plate 7.

[0056] When the electromagnet 17 comes into contact with the permanent magnet 30, the moving block 32 can no longer move within the vertical section of the guide groove 36. Under the action of the compressed gas in the pressure box 333, the compressed gas pushes the pressure plate 24 and pressure bar 23 away from the pressure box 333 through the piston 33, push rod 34 and telescopic plate 25. During the movement of the pressure plate 24 and pressure bar 23 away from the pressure box 333, because the electromagnet 17 maintains magnetic attraction to the permanent magnet 30, the pressure plate 24 can only make the moving block 32 move towards the slot 35 through the connecting rod 22.

[0057] When the moving block 32 enters the slot 35, the moving block 32 causes the top post 27 to fully enter the blind hole and compress the spring 26.

[0058] The moving block 32 is blocked after entering the slot 35. Since the distance between the ends of the two connecting rods 22 near the power storage device is less than the distance between the ends of the two connecting rods 22 away from the power storage device, under the pushing force of the compressed gas in the pressure box 333 through the piston 33 and push rod 34 on the telescopic plate 25, and under the guiding action of the connecting rod 22, the pressure plate 24 tends to move towards the radiant cooling metal plate 7, thereby increasing the pressure of the pressure strip 23 on the radiant cooling metal plate 7, increasing the pressure of the pressure plate 24 on the radiant cooling metal plate 7, and preventing the radiant cooling metal plate 7 from falling out of the mounting bracket 4.

[0059] When it is necessary to remove the radiant cooling metal plate 7, open the valve on the gas pipe 21 to discharge the compressed gas in the pressure box 333. The push rod 34 loses its thrust on the telescopic plate 25, and the pressure bar 23 on the radiant cooling metal plate 7 disappears. Under the elastic force of the spring 26, the spring 26 causes the moving block 32, connecting rod 22, pressure plate 24, pressure bar 23, telescopic plate 25, push rod 34, and piston 33 to move towards the pressure box 333 via the top column 27.

[0060] When the moving block 32 exits from the slot 35 and enters the vertical section of the guide groove 36, it changes the direction of the current flow in the electromagnet 17, causing a repulsive force between the electromagnet 17 and the permanent magnet 30. Under the action of the repulsive force between the electromagnet 17 and the permanent magnet 30, the moving block 32 can move towards the contact switch 31 within the vertical section of the guide groove 36. At the same time, the moving block 32 can drive the pressure plate 24 and pressure strip 23 on one side of it to move away from the radiative cooling metal plate 7 via the connecting rod 22, after which the radiative cooling metal plate 7 can be removed from the mounting bracket 4.

[0061] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A radiant cooling metal plate skid-mounted building, comprising a load-bearing base (1), wherein each of the four corners of the upper end of the load-bearing base (1) is fixed with a vertical pipe (2), and the upper end of the vertical pipe (2) is fixedly connected by a support frame (6), characterized in that, A combined wall is installed between two adjacent risers (2). The combined wall includes an outer component, a middle layer, and an inner layer. The outer component is fixed inside the support frame (6). The outer component includes two mounting brackets (4). The two mounting brackets (4) are fixedly connected. A slot is opened on the opposite side of the two mounting brackets (4). The radiant cooling metal plate (7) extends into the mounting bracket (4) after passing through the slot. A connecting device is provided inside the mounting bracket (4). The connecting device clamps part of the radiant cooling metal plate (7) inside the mounting bracket (4). The connecting device includes a telescopic plate (25). Both ends of the telescopic plate (25) are fixed with clamping parts. The radiant cooling metal plate (7) inside the mounting bracket (4) is located between the two clamping parts. The clamping component is slidably connected to the power storage component, which is fixed inside the mounting frame (4). Support adjustment components are fixed on both the upper and lower sides of the mounting frame (4). The support adjustment component is hinged to the connecting rod (22), and the connecting rod (22) is hinged to the clamping component on one side. When the radiant cooling metal plate (7) pushes the power storage component to store power through the telescopic plate (25), the fulcrum of the support adjustment component can change. During the process of the power storage component pushing the radiant cooling metal plate (7) to move outward from the mounting frame (4) through the telescopic plate (25), the two clamping components can move relative to each other and clamp the radiant cooling metal plate (7). The support adjustment component includes a mounting block (19) fixedly connected to the mounting frame (4). An inverted L-shaped guide groove (36) is provided inside the mounting block (19). A connecting groove (18) is provided on the side of the mounting block (19) facing the energy storage component. The guide groove (36) includes a straight section and a vertical section. A slot (35) is provided on the groove wall of the vertical section near the radiative cooling metal plate (7) and away from the energy storage component. A blind hole corresponding to the slot (35) is provided on the mounting block (19). A spring (26) is fixed in the blind hole. A top post (27) is slidably connected in the blind hole. The spring (26) is fixedly connected to the top post (27). An electromagnet (17) is fixed on the side of the mounting block (19) near the radiative cooling metal plate (7). A moving block (32) is slidably connected in the straight section. A permanent magnet (30) is embedded and fixed on the side of the movable block (32) facing the electromagnet (17). A contact switch (31) corresponding to the movable block (32) is provided on one side of the connecting groove (18). The contact switch (31) is electrically connected to the electromagnet (17). The connecting rod (22) passes through the connecting groove (18) and is located in the mounting groove (28) on the movable block (32). The part of the connecting rod (22) in the mounting groove (28) is rotatably connected to the movable block (32). A limit block (29) is fixed on the movable block (32) outside the connecting rod (22). The distance between the ends of the two connecting rods (22) near the power storage device is less than the distance between the ends of the two connecting rods (22) away from the power storage device.

2. The radiant cooling metal panel skid-mounted building according to claim 1, characterized in that, The middle layer is a core material (14), and the inner layer is a profiled metal plate (13).

3. The radiant cooling metal panel skid-mounted building according to claim 1, characterized in that, The upper end of the load-bearing seat (1) is fixed with a lower cement fiberboard (16), and the lower end of the combined wall is fixed with an installation component. The installation component includes an outer vertical part (15) and an inner vertical part (152). The lower ends of the outer vertical part (15) and the inner vertical part (152) are fixedly connected by a lower horizontal part (151). The outer vertical part (15), the inner vertical part (152) and the lower horizontal part (151) form a U-shaped cavity. The lower end of the combined wall is fixed in the U-shaped cavity. The upper end of the inner vertical part (152) is fixed with an upper horizontal part (153). The upper horizontal part (153) and the lower cement fiberboard (16) are sealed and connected by a lower sealing strip (154). The combined wall is fixedly and sealed to the riser (2).

4. The radiant cooling metal panel skid-mounted building according to claim 1, characterized in that, The lower end of the support frame (6) is fixed with an upper cement fiberboard (12). The two adjacent vertical pipes (2) are fixedly connected by a horizontal pipe (3). The upper end of the combined wall is fixedly connected to the horizontal pipe (3). The upper end of the combined wall is in contact with the lower end of the upper cement fiberboard (12). The combined wall and the upper cement fiberboard (12) are sealed together by an upper sealing strip (121). A partition (11) is fixed on the support frame (6) above the upper cement fiberboard (12). The partition (11) is located below the outer component inside the support frame (6). Waterproof material is filled between the partition (11) and the outer component inside the support frame (6). Core material (14) is filled between the upper cement fiberboard (12) and the partition (11).

5. The radiant cooling metal panel skid-mounted building according to claim 1, characterized in that, The support frame (6) has a radiant cooling metal plate (7) with a water inlet (9) and a load-bearing seat (1) with a water outlet (8). The water inlet (9) and the water outlet (8) are connected by a connecting pipe (10).

6. The radiant cooling metal panel skid-mounted building according to claim 1, characterized in that, The clamping member includes a pressure plate (24) fixedly connected to the telescopic plate (25), a pressure strip (23) fixed on the pressure plate (24), the pressure strip (23) contacting the radiative cooling metal plate (7), and a connecting rod (22) hinged to the pressure plate (24).

7. The radiant cooling metal panel skid-mounted building according to claim 1, characterized in that, The power storage component includes a push rod (34), which is slidably connected to a telescopic plate (25). The push rod (34) is slidably inserted into an air cylinder (20). A piston (33) is fixed at one end of the push rod (34) inside the air cylinder (20). The air cylinder (20) is fixedly connected to a pressure box (333). The pressure box (333) is fixed inside a mounting frame (4). The pressure box (333) is connected to an air pipe (21). One end of the air pipe (21) extends to the outside of the mounting frame (4). A valve is installed on the air pipe (21) outside the mounting frame (4).

8. A radiant cooling metal plate skid-mounted building according to claim 2 or 4, characterized in that, The core material (14) is any one of rock wool, glass wool and foam glass.

9. The radiant cooling metal panel skid-mounted building according to claim 1, characterized in that, The upper end of the support frame (6) is fixed with a lifting lug (5).

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