Production device and method for efficient radiation refrigeration film

Abstract

The invention belongs to the technical field of refrigeration film production, and particularly discloses an efficient radiation refrigeration film production device and method.The efficient radiation refrigeration film production device comprises a conveying cover, a vacuum generator is arranged at the position, close to the edge of one side, of the top of the conveying cover, a sliding way penetrating into the conveying cover is formed in the front side of the conveying cover, and a driving assembly is arranged in the sliding way; a consignment assembly is arranged in the conveying cover, and a feedback control assembly is arranged at the position, located on one side of the sliding way, in the conveying cover; according to the radiation refrigeration film conveying device, a radiation refrigeration film needing to be conveyed is placed in the conveying cover, the radiation refrigeration film is pressed in the flat notch through the cleaning roller, when the radiation refrigeration film is conveyed, the cleaning roller can be driven by the driving assembly to conduct cleaning, and meanwhile the consignment assembly is driven to do reciprocating motion; and the feedback control assembly can be triggered before conveying, so that the radiation refrigeration films are adsorbed and fixed by the consignment assembly, and conveying is more stable.

Description

Technical Field

[0001] The present invention relates to the technical field of refrigeration film production, and in particular to a production device and method for a high-efficiency radiation refrigeration film. Background Art

[0002] Radiative cooling refers to a novel refrigeration technology that transfers heat from a heat source to a cold source in outer space through the atmospheric window of infrared radiation (the atmosphere has a high transmittance for thermal radiation in the 8-13 μm wavelength range, with an average transmittance of 85%). Traditional refrigeration technologies typically consume energy and resources to remove heat, while radiative cooling passively enhances the Earth's natural cooling process. Radiative cooling offers the advantages of zero energy consumption, zero pollution, and no moving parts. It has positive implications for energy conservation and environmental protection, and can be widely used to cool buildings and objects, including factories, cool storage facilities, automobiles, solar photovoltaic equipment, electronic equipment, cryogenic storage tanks, and outdoor equipment.

[0003] Currently, when producing radiant cooling film, the produced radiant cooling film needs to be transported to a cutting device using rollers to be cut into small pieces for subsequent lamination with glass of the same size. However, during the process of being transported to the cutting device, the tension applied to the radiant cooling film by the two sides of the roller is different, which can easily cause the edges of the radiant cooling film to be flanging, resulting in an uneven cut surface during subsequent cutting. In addition, the flanging at the edges of the radiant cooling film affects the flatness of the subsequent lamination. Summary of the Invention

[0004] In order to solve the problems existing in the prior art, the present invention provides a production device and method for a high-efficiency radiation refrigeration film.

[0005] To achieve the above objectives, the present invention adopts the following technical solution: a production device for a high-efficiency radiant refrigeration film, comprising a conveyor hood, a vacuum generator disposed at the top of the conveyor hood near one edge, a slideway extending through the front side of the conveyor hood, a drive assembly disposed within the slideway, a shipping assembly disposed within the conveyor hood, and a feedback control assembly disposed within the conveyor hood on one side of the slideway;

[0006] A transmission cavity is provided on the inner top surface of the slideway, a driven gear is rotatably provided between the inner walls of the transmission cavity, a cleaning roller is rotatably provided between the front and rear inner walls of the conveying cover, and one end of the cleaning roller is fixed to one side of the driven gear.

[0007] Preferably, the driving assembly includes a slide bar, which is slidably connected to the inside of the slide, and the bottom of the slide bar is sealed with the inner bottom surface of the slide, and a rack is provided on the top of the slide bar, and the rack and the driven gear are meshed with each other. A bracket is fixed near the bottom edge of the front side of the conveying cover, and a driving gear is rotatably provided on the front side of the bracket, and a rocker arm is rotatably provided on the rear side of the bracket, one end of the rocker arm is connected to the rear side of the driving gear, and the front side of the slide bar extends to the front side of the conveying cover, and a waist-shaped frame is fixed to the front side of the slide bar at the middle, and a slider is slidably provided between the inner walls of both sides of the waist-shaped frame, and the other end of the rocker arm is rotatably connected to the front side of the slider.

[0008] Preferably, the shipping assembly includes a pallet, which is located on the inner side of the conveying cover, the front side of the pallet and the rear side of the slide are fixed to each other, the rear side of the pallet is slidably fitted with the rear inner wall of the conveying cover, the top of the pallet is provided with a flat recess extending to both sides, the interior of the pallet is provided with an air cavity, the inner bottom surface of the flat recess is provided with multiple through openings extending to the interior of the air cavity at equal distances, and support filters are provided between the inner walls of the multiple through openings near the top edge.

[0009] Preferably, a bending flow channel is opened inside the slide bar, one end of the bending flow channel passes through the inside of the air cavity, and the other end of the bending flow channel passes through the bottom of the slide bar. An air inlet is opened on the inner bottom surface of the slide, and one end of the air inlet passes through the front side of the conveying cover, and the bending flow channel is relatively connected to the air inlet.

[0010] Preferably, protrusions are fixed on the top of the support plate near the two corners on one side, and an inner cavity is opened inside the two protrusions. Damping plates are slidably arranged between the inner walls of the two inner cavities, and push rods are fixed to the bottom of the two damping plates. The bottoms of the two push rods slide through to the bottom of the protrusions, and pressure plates are fixed to the bottom of the two push rods. One end of the two pressure plates extends to the inner side of the flat recess, and a sponge pressing plate is provided at the bottom of the two push rods near the edge of one end.

[0011] Preferably, a throttling hole penetrating into the air cavity is provided on the inner wall of one side of the two inner cavities near the edge of the inner bottom surface, a U-shaped groove is provided on the inside of the support plate near the edge of one side, a U-shaped frame is provided inside the U-shaped groove, both ends of the U-shaped frame slide through to the top of the support plate and are fixed to the bottom of the pressure plate.

[0012] Preferably, the feedback control component includes a cylindrical block, a cylindrical cavity is opened on the side of the interior of the conveying cover close to the slide, the cylindrical block is slidably connected between the inner walls of the cylindrical cavity, a side opening is opened on the rear side of the cylindrical cavity and penetrates into the interior of the conveying cover, a bending dial plate is slidably provided inside the side opening, one end of the bending dial plate is fixed on the outer surface of the cylindrical block, the other end of the bending dial plate is located inside the conveying cover and opposite to the top of the pressure plate, a return spring is fixed on one side of the cylindrical block, one end of the return spring is fixed on the inner wall of the cylindrical cavity, a receiving groove is opened on the inner wall of one side of the slide, a connecting rod is fixed on the other side of the cylindrical block, one end of the connecting rod slides through the interior of the receiving groove, and one end of the connecting rod is fixed with a limiting block.

[0013] Preferably, a reciprocating cavity is provided inside the conveying cover near the bottom of the slide, a reciprocating block is slidably provided between the inner walls of the reciprocating cavity, a pin is fixed on the top of the reciprocating block and passes through the inside of the slide, and the top of the pin fits into the bottom of the limit block.

[0014] Preferably, a buffer chamber is provided inside the reciprocating block near the bottom edge, a through hole is provided on the top of the ejector pin and penetrates into the buffer chamber, a plurality of filter ports are equidistantly provided on the inner wall of the buffer chamber and penetrate to the outside, a lifting spring is fixed between the bottom of the reciprocating block and the inner bottom surface of the reciprocating chamber, an air intake duct is provided inside the conveying hood, one end of the air intake duct penetrates into the interior of the reciprocating chamber and fits against the outer surface of the reciprocating block near the top edge, and the other end of the air intake duct is communicated with the vacuum generator.

[0015] The present invention also provides a method for producing a high-efficiency radiation cooling film, which is applied to a production device for a high-efficiency radiation cooling film. The method for producing a high-efficiency radiation cooling film comprises the following steps:

[0016] Step S1: The radiant cooling film to be transported is placed inside the transport cover and pressed against the inside of the flat recess by a cleaning roller. When the radiant cooling film is transported, the driving component drives the cleaning roller to clean it and simultaneously drives the transport component to reciprocate, thereby intermittently transporting the radiant cooling film to one side at equal distances. Before transporting, the feedback control component is triggered to cause the transport component to adsorb and fix the radiant cooling film, making transport more stable.

[0017] Step S2: When the drive assembly is working, the swing arm rotates, driving the slider to slide back and forth up and down inside the waist-shaped frame, thereby driving the waist-shaped frame to slide back and forth horizontally, causing the slider to slide back and forth inside the slideway. When the slider slides to one side of the slideway, it triggers the feedback control assembly to operate. When it slides to the other side of the slideway, it releases the adsorption of the consignment assembly on the radiant cooling film. At the same time, when the slider slides, it drives the driven gear to rotate through the rack, thereby driving the cleaning roller to clean the transported radiant cooling film.

[0018] Step S3: When the shipping component is working, the radiant cooling film is attached to the inside of the flat recess on the top of the pallet. When the slider slides to one side of the slide, the feedback control component is triggered. Under the action of the negative pressure adsorption force generated by the vacuum generator, the air inside the air cavity can be sucked into the through hole through the bent flow channel, and then enter the buffer cavity through the through hole, and finally enter the vacuum generator through the filter port and the air intake channel. At this time, the inside of the air cavity is in a vacuum adsorption state, and the bottom of the radiant cooling film can be adsorbed and fixed;

[0019] Step S4: When the feedback control component is working, when the limit block is pushed into the storage groove, the cylindrical block will be pushed into the cylindrical cavity through the connecting rod. During the pushing process, the bending plate will be driven to slide toward the side of the cylindrical cavity. Since the end of the bending plate extending to the inside of the conveying cover is longer, when the slide bar pushes the limit block into the storage groove, one end of the bending plate can still extend to the top of the pressure plate, pressing the pressure plate downward, and the negative pressure adsorption force generated by the auxiliary vacuum generator will adsorb the damping plate downward.

[0020] Compared with the prior art, the present invention has the following beneficial effects:

[0021] 1. The present invention places the radiant cooling film to be transported inside the conveying cover and presses the radiant cooling film against the inside of the flat recess via a cleaning roller. During the transport of the radiant cooling film, the driving assembly drives the cleaning roller to clean it, while simultaneously driving the transport assembly to reciprocate, thereby intermittently transporting the radiant cooling film to one side at equal intervals. Before transport, the feedback control assembly is triggered to cause the transport assembly to adsorb and secure the radiant cooling film, making transport more stable.

[0022] 2. In the present invention, when the drive assembly is in operation, an external power source drives the driving gear to rotate. The rotation of the driving gear drives the swing arm to rotate. When the swing arm rotates, it drives the slider to slide back and forth up and down inside the waist-shaped frame, thereby driving the waist-shaped frame to slide back and forth horizontally, so that it drives the slide bar to slide back and forth inside the slideway. When the slide bar slides to one side of the slideway, it triggers the feedback control assembly to operate. When it slides to the other side of the slideway, it releases the adsorption of the consignment assembly on the radiant cooling film. At the same time, when the slide bar slides, it drives the driven gear to rotate through the rack, thereby driving the cleaning roller to clean the transported radiant cooling film.

[0023] 3. In the present invention, when the consignment assembly is working, the radiant cooling film is attached to the inside of the flat recess on the top of the support plate. When the slide slides to one side of the slide, the feedback control assembly will be triggered, and one end of the slide will push the limit block to the inside of the storage groove. At this time, the limit block releases the constraint on the ejector pin, and under the elastic force of the jacking spring, the reciprocating block will be pushed to the top of the reciprocating cavity, so that the filter port is opposite to the air intake duct. At this time, the top of the ejector pin extends to the bottom end of the bent flow channel. Under the action of the negative pressure adsorption force generated by the vacuum generator, the air inside the air cavity can be sucked into the through hole through the bent flow channel, and then enter the buffer cavity through the through hole, and finally enter the vacuum generator from the filter port and the air intake duct. At this time, the inside of the air cavity is in a vacuum adsorption state, and the bottom of the radiant cooling film can be adsorbed and fixed.

[0024] 4. In the present invention, when the feedback control component is working, when the limit block is pushed into the storage groove, the cylindrical block will be pushed into the cylindrical cavity through the connecting rod. During the pushing process, the bending plate will be driven to slide toward one side of the cylindrical cavity. Since the end of the bending plate extending to the inside of the conveying cover is longer, when the slide bar pushes the limit block into the storage groove, one end of the bending plate can still extend to the top of the pressure plate, pressing the pressure plate downward, and the negative pressure adsorption force generated by the auxiliary vacuum generator will adsorb the damping plate downward. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 This is a schematic diagram of the main perspective structure of a production device for a high-efficiency radiative cooling film proposed by the present invention;

[0026] Figure 2 This is a schematic diagram of the front side cross-sectional structure of a production device for a high-efficiency radiative cooling film proposed by the present invention;

[0027] Figure 3 This is a schematic diagram of a side cross-sectional perspective structure of a production device for a high-efficiency radiative cooling film proposed by the present invention;

[0028] Figure 4 This is a schematic diagram of the cross-sectional perspective structure from another side of a production device for a high-efficiency radiative cooling film proposed by the present invention;

[0029] Figure 5 This is a schematic diagram of the bottom cross-sectional structure of a production device for a high-efficiency radiative cooling film proposed by the present invention;

[0030] Figure 6 For the present invention Figure 2 A partial enlarged view of point A in the middle;

[0031] Figure 7 For the present invention Figure 3 A partial enlarged view of point B in the middle;

[0032] Figure 8For the present invention Figure 4 A magnified partial view of point C in the middle.

[0033] Figure: 1, conveying cover; 2, vacuum generator; 3, slide; 4, bracket; 5, driving gear; 6, rocker; 7, waist-shaped frame; 8, slider; 9, slide bar; 10, rack; 11, transmission cavity; 12, driven gear; 13, bending flow channel; 14, air inlet; 15, air suction duct; 16, cleaning roller; 17, support plate; 18, side port; 19, bending plate; 20, air cavity; 21, through port; 22, support filter; 23, U-shaped Groove; 24, U-shaped frame; 25, sponge pressing piece; 26, flat concave mouth; 27, cylindrical cavity; 28, cylindrical block; 29, return spring; 30, connecting rod; 31, storage groove; 32, limit block; 33, reciprocating cavity; 34, reciprocating block; 35, buffer cavity; 36, lifting spring; 37, filter port; 38, ejector pin; 39, through hole; 40, protrusion; 41, inner cavity; 42, damping plate; 43, throttling hole; 44, push rod; 45, pressure plate. DETAILED DESCRIPTION

[0034] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the implementation regulations described are only part of the embodiments of the present invention, not all of the embodiments. All other embodiments obtained by ordinary technicians in this field based on the embodiments of the present invention without making any creative efforts shall fall within the scope of protection of the present invention.

[0035] See also Figure 1-8 The present invention provides a technical solution: a production device for a high-efficiency radiant refrigeration film, comprising a conveyor hood 1, a vacuum generator 2 being provided at the top of the conveyor hood 1 near one side edge, a slide 3 penetrating the interior of the conveyor hood 1 being provided on the front side thereof, a drive assembly being provided inside the slide 3, a shipping assembly being provided inside the conveyor hood 1, and a feedback control assembly being provided inside the conveyor hood 1 on one side of the slide 3;

[0036] A transmission chamber 11 is provided on the inner top surface of the slide 3, and a driven gear 12 is rotatably provided between the inner walls of the transmission chamber 11. A cleaning roller 16 is rotatably provided between the front and rear inner walls of the conveying cover 1, and one end of the cleaning roller 16 is fixed to one side of the driven gear 12.

[0037] The effect achieved is that the radiation cooling film to be transported is placed inside the conveying cover 1, and the radiation cooling film is pressed inside the flat recess 26 through the cleaning roller 16. When the radiation cooling film is transported, the driving component can drive the cleaning roller 16 to clean it, and at the same time drive the consignment component to reciprocate, so that the radiation cooling film can be intermittently transported to one side at equal distances. Before transportation, the feedback control component will be triggered to allow the consignment component to adsorb and fix the radiation cooling film, making the transportation more stable.

[0038] like Figure 1 、 Figure 2 and Figure 3 As shown, the driving assembly includes a slide bar 9, which is slidably connected to the inside of the slide 3, and the bottom of the slide bar 9 is sealed with the inner bottom surface of the slide 3, and a rack 10 is provided on the top of the slide bar 9, which meshes with the driven gear 12. A bracket 4 is fixed near the bottom edge of the front side of the conveying cover 1, and a driving gear 5 is rotatably provided on the front side of the bracket 4. A rocker bar 6 is rotatably provided on the rear side of the bracket 4, and one end of the rocker bar 6 is connected to the rear side of the driving gear 5. The front side of the slide bar 9 extends to the front side of the conveying cover 1, and a waist-shaped frame 7 is fixed in the middle of the front side of the slide bar 9. A slider 8 is slidably provided between the inner walls on both sides of the waist-shaped frame 7, and the other end of the rocker bar 6 is rotatably connected to the front side of the slider 8.

[0039] The effect achieved is that the driving gear 5 is driven to rotate by an external power facility, and the rotation of the driving gear 5 will drive the rocker arm 6 to rotate. When the rocker arm 6 rotates, it will drive the slider 8 to slide back and forth up and down inside the waist-shaped frame 7, and then drive the waist-shaped frame 7 to slide horizontally back and forth, so that it drives the slide bar 9 to slide back and forth inside the slide 3. When the slide bar 9 slides to one side of the slide 3, it will trigger the feedback control component to work. When it slides to the other side of the slide 3, it will release the adsorption of the consignment component on the radiation refrigeration film. At the same time, when the slide bar 9 slides, it will drive the driven gear 12 to rotate through the rack 10, and then drive the cleaning roller 16 to clean the transported radiation refrigeration film.

[0040] like Figure 2 、 Figure 3 、 Figure 4 、 Figure 5 、 Figure 7 and Figure 8As shown, the consignment assembly includes a support plate 17, which is located on the inner side of the conveying cover 1, and the front side of the support plate 17 and the rear side of the slide bar 9 are fixed to each other, and the rear side of the support plate 17 is slidably fitted between the inner wall of the rear side of the conveying cover 1, and a flat recess 26 is provided on the top of the support plate 17 to penetrate to both sides, and an air cavity 20 is provided inside the support plate 17, and a plurality of through-holes 21 are equidistantly provided on the inner bottom surface of the flat recess 26 to penetrate into the interior of the air cavity 20, and a supporting filter 22 is provided between the inner walls of the plurality of through-holes 21 near the top edge, and a bending flow channel 13 is provided inside the slide bar 9, and one end of the bending flow channel 13 penetrates into the interior of the air cavity 20, and the other end of the bending flow channel 13 penetrates to the bottom of the slide bar 9, and an air inlet 14 is provided on the inner bottom surface of the slide 3, and one end of the air inlet 14 penetrates to the front side of the conveying cover 1, and the bending flow channel 13 is relatively conductive with the air inlet 14, and the support plate 17 is provided with a plurality of through-holes 21. A protrusion 40 is fixed at the two corners near one side of the top, and an inner cavity 41 is opened inside the two protrusions 40. A damping plate 42 is slidably set between the inner walls of the two inner cavities 41. A push rod 44 is fixed to the bottom of the two damping plates 42. The bottom of the two push rods 44 slides through to the bottom of the protrusion 40. A pressure plate 45 is fixed to the bottom of the two push rods 44. One end of the two pressure plates 45 extends to the inner side of the flat recess 26. A sponge pressure plate 25 is provided at the bottom of the two push rods 44 near one end edge. A throttling hole 43 that penetrates into the interior of the air cavity 20 is opened on the inner wall of one side of the two inner cavities 41 near the edge of the inner bottom surface. A U-shaped groove 23 is opened inside the interior of the support plate 17 near one edge, and a U-shaped frame 24 is provided inside the U-shaped groove 23. Both ends of the U-shaped frame 24 slide through to the top of the support plate 17 and are fixed to the bottom of the pressure plate 45.

[0041] The effect achieved is that the radiant cooling film is attached to the inside of the flat recess 26 on the top of the support plate 17. When the slide bar 9 slides to one side of the slide 3, the feedback control component will be triggered. At this time, one end of the air inlet 14 is attached to the bottom of the slide bar 9, and one end of the air inlet 14 is closed by the bottom of the slide bar 9. One end of the slide bar 9 will push the limit block 32 to the inside of the storage groove 31. At this time, the limit block 32 releases the constraint on the ejector pin 38. Under the elastic force of the lifting spring 36, the reciprocating block 34 will be pushed to the top of the reciprocating cavity 33, so that the filter port 37 is opposite to the air intake duct 15. At this time, the top of the ejector pin 38 extends to the bottom end of the bending flow channel 13. Under the action of the negative pressure adsorption force generated by the vacuum generator 2, the air inside the air cavity 20 can be sucked into the through hole 39 through the bent flow channel 13, and then enter the buffer cavity 35 through the through hole 39, and finally enter the vacuum generator 2 through the filter port 37 and the air intake duct 15. At this time, the air cavity 20 is in a vacuum adsorption state, and the bottom of the radiation cooling membrane can be adsorbed and fixed. At the same time, the vacuum adsorption force inside the air cavity 20 is also transmitted to the inside of the inner cavity 41 through the throttling hole 43 to adsorb the damping plate 42 downward, thereby driving the push rod 44 and the pressure plate 45 to slide downward, so that the sponge pressing sheet 25 at one end of the pressure plate 45 presses the radiation cooling membrane.

[0042] like Figure 2 、 Figure 4 、 Figure 6 and Figure 8As shown, the feedback control component includes a cylindrical block 28, a cylindrical cavity 27 is provided on one side of the interior of the conveying cover 1 near the slide 3, the cylindrical block 28 is slidably connected between the inner walls of the cylindrical cavity 27, and a side opening 18 is provided on the rear side of the cylindrical cavity 27 that penetrates into the interior of the conveying cover 1, and a bending dial plate 19 is slidably provided inside the side opening 18, one end of the bending dial plate 19 is fixed on the outer surface of the cylindrical block 28, and the other end of the bending dial plate 19 is located inside the conveying cover 1 and opposite to the top of the pressure plate 45, a return spring 29 is fixed on one side of the cylindrical block 28, one end of the return spring 29 is fixed on the inner wall of the cylindrical cavity 27, a receiving groove 31 is provided on the inner wall of one side of the slide 3, and a connecting rod 30 is fixed on the other side of the cylindrical block 28, one end of the connecting rod 30 slides through the interior of the receiving groove 31, and a limiting block 32 is fixed on one end of the connecting rod 30. A reciprocating chamber 33 is provided inside the cover 1 near the bottom of the slide 3, and a reciprocating block 34 is slidably provided between the inner walls of the reciprocating chamber 33. A pin 38 that penetrates into the interior of the slide 3 is fixed to the top of the reciprocating block 34, and the top of the pin 38 fits with the bottom of the limit block 32. A buffer chamber 35 is provided inside the reciprocating block 34 near the bottom edge, and a through hole 39 that penetrates into the interior of the buffer chamber 35 is provided on the top of the pin 38. A plurality of filter ports 37 that penetrate to the outside are equidistantly provided on the inner wall of the buffer chamber 35. A lifting spring 36 is fixed between the bottom of the reciprocating block 34 and the inner bottom surface of the reciprocating chamber 33. An air intake duct 15 is provided inside the conveying cover 1, and one end of the air intake duct 15 penetrates into the interior of the reciprocating chamber 33 and fits with the outer surface of the reciprocating block 34 near the top edge, and the other end of the air intake duct 15 is communicated with the vacuum generator 2.

[0043] The effect achieved is that when the limit block 32 is pushed into the receiving groove 31, the cylindrical block 28 will be pushed into the cylindrical cavity 27 through the connecting rod 30. During the pushing process, the bending plate 19 will be driven to slide toward the side of the cylindrical cavity 27. Since the end of the bending plate 19 extending to the inside of the conveying cover 1 is longer, when the slide bar 9 pushes the limit block 32 into the receiving groove 31, one end of the bending plate 19 can still extend to the top of the pressure plate 45, pressing the pressure plate 45 downward, and assisting the negative pressure adsorption force generated by the vacuum generator 2 to adsorb the damping plate 42 downward.

[0044] For example, in one embodiment, the present invention further provides a method for producing a high-efficiency radiative cooling film, which is applied to the above-mentioned high-efficiency radiative cooling film production device, comprising the following steps:

[0045] Step S1: The radiant cooling film to be transported is placed inside the transport cover 1, and the radiant cooling film is pressed against the inside of the flat recess 26 by the cleaning roller 16. When the radiant cooling film is transported, the driving component can drive the cleaning roller 16 to clean it, and at the same time drive the consignment component to reciprocate, thereby intermittently transporting the radiant cooling film to one side at equal distances. Before transporting, the feedback control component is also triggered to cause the consignment component to adsorb and fix the radiant cooling film, making the transport more stable.

[0046] Step S2: When the driving component is working, the swing arm 6 rotates to drive the slider 8 to slide back and forth up and down inside the waist-shaped frame 7, thereby driving the waist-shaped frame 7 to slide back and forth horizontally, so that it drives the slider 9 to slide back and forth inside the slide 3. When the slider 9 slides to one side of the slide 3, it triggers the feedback control component to work. When it slides to the other side of the slide 3, it releases the adsorption of the consignment component on the radiant cooling film. At the same time, when the slider 9 slides, it drives the driven gear 12 to rotate through the rack 10, thereby driving the cleaning roller 16 to clean the transported radiant cooling film.

[0047] Step S3: When the shipping assembly is working, the radiant cooling film is attached to the flat recess 26 on the top of the support plate 17. When the slide bar 9 slides to one side of the slideway 3, the feedback control assembly is triggered. Under the action of the negative pressure adsorption force generated by the vacuum generator 2, the air inside the air cavity 20 can be sucked into the through hole 39 through the bent flow channel 13, and then enter the buffer cavity 35 through the through hole 39, and finally enter the vacuum generator 2 through the filter port 37 and the air intake channel 15. At this time, the interior of the air cavity 20 is in a vacuum adsorption state, and the bottom of the radiant cooling film can be adsorbed and fixed;

[0048] Step S4: When the feedback control component is working, when the limit block 32 is pushed into the receiving groove 31, the cylindrical block 28 will be pushed into the cylindrical cavity 27 through the connecting rod 30. During the pushing process, the bending plate 19 will be driven to slide toward the side of the cylindrical cavity 27. Since the end of the bending plate 19 extending to the inside of the conveying cover 1 is longer, when the slide bar 9 pushes the limit block 32 into the receiving groove 31, one end of the bending plate 19 can still extend to the top of the pressure plate 45, pressing the pressure plate 45 downward, and the negative pressure adsorption force generated by the auxiliary vacuum generator 2 will adsorb the damping plate 42 downward.

[0049] Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the scope of protection of the present invention.

Claims

1. A production device for a high-efficiency radiation cooling film, characterized in that: The invention comprises a conveying cover (1), wherein a vacuum generator (2) is provided at the top of the conveying cover (1) near one side edge, a slideway (3) is provided on the front side of the conveying cover (1) and penetrates into the interior, a driving component is provided inside the slideway (3), a shipping component is provided inside the conveying cover (1), and a feedback control component is provided inside the conveying cover (1) on one side of the slideway (3); A transmission cavity (11) is provided on the inner top surface of the slideway (3), a driven gear (12) is rotatably provided between the inner walls of the transmission cavity (11), a cleaning roller (16) is rotatably provided between the front and rear inner walls of the conveying cover (1), and one end of the cleaning roller (16) is fixed to one side of the driven gear (12).

2. The production device of a high-efficiency radiative cooling film according to claim 1, characterized in that: The driving assembly includes a slide bar (9), which is slidably connected to the inside of the slideway (3), and the bottom of the slide bar (9) is sealed and fitted with the inner bottom surface of the slideway (3); a rack (10) is provided on the top of the slide bar (9), and the rack (10) and the driven gear (12) are meshed with each other; a bracket (4) is fixed on the front side of the conveying cover (1) near the bottom edge; a driving gear (5) is rotatably provided on the front side of the bracket (4); a rocker (6) is rotatably provided on the rear side of the bracket (4); one end of the rocker (6) is connected to the rear side of the driving gear (5); the front side of the slide bar (9) extends to the front side of the conveying cover (1); a waist-shaped frame (7) is fixed in the middle of the front side of the slide bar (9); a slider (8) is slidably provided between the inner walls of the two sides of the waist-shaped frame (7); the other end of the rocker (6) is rotatably connected to the front side of the slider (8).

3. The production device of a high-efficiency radiative cooling film according to claim 2, characterized in that: The transport assembly includes a support plate (17), the support plate (17) is located on the inner side of the conveying cover (1), the front side of the support plate (17) and the rear side of the slide bar (9) are fixed to each other, the rear side of the support plate (17) and the rear inner wall of the conveying cover (1) are slidably fitted, the top of the support plate (17) is provided with a flat recess (26) extending to both sides, the interior of the support plate (17) is provided with an air cavity (20), the inner bottom surface of the flat recess (26) is provided with a plurality of through openings (21) extending to the interior of the air cavity (20) at equal intervals, and a supporting filter (22) is provided between the inner walls of the plurality of through openings (21) near the top edge.

4. The production device of a high-efficiency radiative cooling film according to claim 3, characterized in that: A bending channel (13) is provided inside the slide bar (9), one end of the bending channel (13) penetrates into the interior of the air cavity (20), and the other end of the bending channel (13) penetrates to the bottom of the slide bar (9). An air inlet (14) is provided on the inner bottom surface of the slide bar (3), one end of the air inlet (14) penetrates to the front side of the conveying cover (1), and the bending channel (13) and the air inlet (14) are relatively conductive.

5. The production device of a high-efficiency radiative cooling film according to claim 4, characterized in that: The top of the support plate (17) is fixed with a protrusion (40) near the two corners on one side, and the interior of the two protrusions (40) is provided with an inner cavity (41), and a damping plate (42) is slidably arranged between the inner walls of the two inner cavities (41), and the bottom of the two damping plates (42) is fixed with a push rod (44), and the bottom of the two push rods (44) slides through to the bottom of the protrusion (40), and the bottom of the two push rods (44) is fixed with a pressure plate (45), and one end of the two pressure plates (45) extends to the inner side of the flat recess (26), and the bottom of the two push rods (44) is provided with a sponge pressing plate (25) near the edge of one end.

6. The production device of a high-efficiency radiative cooling film according to claim 5, characterized in that: A throttling hole (43) penetrating into the air cavity (20) is provided on one side inner wall of the two inner cavities (41) near the edge of the inner bottom surface. A U-shaped groove (23) is provided inside the support plate (17) near the edge of one side. A U-shaped frame (24) is provided inside the U-shaped groove (23). Both ends of the U-shaped frame (24) slide through the top of the support plate (17) and are fixed to the bottom of the pressure plate (45).

7. The production device of a high-efficiency radiative cooling film according to claim 6, characterized in that: The feedback control assembly includes a cylindrical block (28), a cylindrical cavity (27) is provided on one side of the interior of the conveying cover (1) close to the slideway (3), the cylindrical block (28) is slidably connected between the inner walls of the cylindrical cavity (27), a side opening (18) penetrating to the interior of the conveying cover (1) is provided on the rear side of the cylindrical cavity (27), a bending plate (19) is slidably provided inside the side opening (18), one end of the bending plate (19) is fixed on the outer surface of the cylindrical block (28), and the bending plate (19) is The other end is located inside the conveying cover (1) and is opposite to the top of the pressure plate (45). A return spring (29) is fixed on one side of the cylindrical block (28). One end of the return spring (29) is fixed on the inner wall of the cylindrical cavity (27). A receiving groove (31) is provided on the inner wall of one side of the slideway (3). A connecting rod (30) is fixed on the other side of the cylindrical block (28). One end of the connecting rod (30) slides through the inside of the receiving groove (31). One end of the connecting rod (30) is fixed to a limiting block (32).

8. The production device of a high-efficiency radiative cooling film according to claim 7, characterized in that: A reciprocating cavity (33) is provided inside the conveying cover (1) near the bottom of the slideway (3), and a reciprocating block (34) is slidably provided between the inner walls of the reciprocating cavity (33). A top pin (38) penetrating into the interior of the slideway (3) is fixed to the top of the reciprocating block (34), and the top of the pin (38) is in contact with the bottom of the limit block (32).

9. The production device of a high-efficiency radiative cooling film according to claim 8, characterized in that: A buffer chamber (35) is provided inside the reciprocating block (34) near the bottom edge, a through hole (39) is provided on the top of the ejector pin (38) and penetrates into the buffer chamber (35), a plurality of filter ports (37) are provided on the inner wall of the buffer chamber (35) at equal intervals and penetrate to the outside, a lifting spring (36) is fixed between the bottom of the reciprocating block (34) and the inner bottom surface of the reciprocating chamber (33), an air intake duct (15) is provided inside the conveying cover (1), one end of the air intake duct (15) penetrates into the interior of the reciprocating chamber (33) and fits with the outer surface of the reciprocating block (34) near the top edge, and the other end of the air intake duct (15) is connected to the vacuum generator (2).

10. A method for producing a high-efficiency radiative cooling film, applied to a production device for a high-efficiency radiative cooling film according to any one of claims 1 to 9, characterized in that: The following steps are involved: Step S1: placing the radiation cooling film to be transported inside the transport cover (1), and pressing the radiation cooling film into the inside of the flat recess (26) through the cleaning roller (16). When the radiation cooling film is transported, the driving component can drive the cleaning roller (16) to clean it, and at the same time drive the consignment component to reciprocate, thereby intermittently transporting the radiation cooling film to one side at equal distances. Before transporting, the feedback control component is also triggered to cause the consignment component to adsorb and fix the radiation cooling film, making the transport more stable. Step S2: When the driving component is working, the swing rod (6) rotates to drive the slider (8) to slide back and forth up and down inside the waist-shaped frame (7), thereby driving the waist-shaped frame (7) to slide back and forth horizontally, so that it drives the slide bar (9) to slide back and forth inside the slideway (3). When the slide bar (9) slides to one side of the slideway (3), it triggers the feedback control component to work. When it slides to the other side of the slideway (3), it releases the adsorption of the consignment component on the radiation cooling film. At the same time, when the slide bar (9) slides, it drives the driven gear (12) to rotate through the rack (10), thereby driving the cleaning roller (16) to clean the transported radiation cooling film. Step S3: When the consignment assembly is working, the radiation cooling film is attached to the inside of the flat recess (26) on the top of the support plate (17). When the slide bar (9) slides to one side of the slideway (3), the feedback control assembly is triggered. Under the action of the negative pressure adsorption force generated by the vacuum generator (2), the air inside the air cavity (20) can be sucked into the inside of the through hole (39) through the bent flow channel (13), and then enter the buffer cavity (35) through the through hole (39), and finally enter the inside of the vacuum generator (2) through the filter port (37) and the air intake channel (15). At this time, the inside of the air cavity (20) is in a vacuum adsorption state, and the bottom of the radiation cooling film can be adsorbed and fixed; Step S4: When the feedback control component is working, when the limit block (32) is pushed into the receiving groove (31), the cylindrical block (28) is pushed into the cylindrical cavity (27) through the connecting rod (30). During the pushing process, the bending plate (19) is driven to slide toward one side of the cylindrical cavity (27). Since the end of the bending plate (19) extending to the inside of the conveying cover (1) is longer, when the slide bar (9) pushes the limit block (32) into the receiving groove (31), one end of the bending plate (19) can still extend to the top of the pressing plate (45), pressing the pressing plate (45) downward, and the negative pressure adsorption force generated by the auxiliary vacuum generator (2) adsorbs the damping plate (42) downward.

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