Manufacturing method and manufacturing equipment of temperature change heat insulation fireproof glass

Abstract

The invention discloses a manufacturing method and manufacturing equipment of temperature change heat insulation fireproof glass. The manufacturing equipment comprises a cutting structure, a discharging structure is installed on the cutting structure and used for waste treatment, a cleaning structure is arranged on the right side of the discharging structure and used for cleaning treatment, and a spraying structure is arranged on the right side of the cleaning structure and used for spraying cleaning treatment. An upper discharging structure is arranged on the right side of the spraying structure, a fireproof glass position adjusting structure is installed in the upper discharging structure, a temperature change vanadium oxide composite film spraying structure is arranged on the left side of the fireproof glass position adjusting structure, and a heat insulation glass processing structure is arranged on the front side of the fireproof glass position adjusting structure and used for processing fireproof glass; the cutting structure comprises a supporting seat, a first position adjusting assembly is connected to the supporting seat in a sliding mode, and a first U-shaped plate is installed on the first position adjusting assembly. According to the manufacturing equipment of the temperature change heat insulation fireproof glass, temperature change temperature adjustment can be conducted according to the external illumination temperature, and therefore the better heat insulation effect is achieved.

Description

Technical Field

[0001] This invention relates to the field of fire-resistant glass technology, specifically to a method and equipment for manufacturing temperature-sensitive heat-insulating fire-resistant glass. Background Technology

[0002] Fire-resistant glass primarily functions to control the spread of fire or isolate smoke during fires. It is a special type of glass that maintains its integrity and heat insulation properties during specified fire resistance tests. Its fire-resistant effect is evaluated by its fire resistance performance. It is a special type of glass that maintains its integrity and heat insulation properties during specified fire resistance tests through special processing and treatment. The original glass sheet of fire-resistant glass can be float glass, tempered glass, or composite fire-resistant glass can also be made from monolayer fire-resistant glass. However, existing fire-resistant glass cannot be temperature-controlled as needed when used in summer. Direct sunlight entering the room causes the indoor temperature to rise, resulting in poor heat insulation. Furthermore, the processing of existing fire-resistant glass requires manual surface cleaning and manual grouting, which affects the overall processing effect. At the same time, the grouting process of fire-resistant glass is easily affected by the environment. Due to temperature differences within the grouting cavity between fire-resistant glass pieces, premature condensation can occur, leading to incomplete filling and the formation of air bubbles, which can seriously affect fire resistance performance and quality. Summary of the Invention

[0003] The purpose of this invention is to provide a method and equipment for manufacturing temperature-sensitive heat-insulating fireproof glass to solve the problems mentioned in the background art, which include a cutting structure, a discharge structure installed on the cutting structure for waste treatment, a cleaning structure on the right side of the discharge structure for cleaning treatment, a spray structure on the right side of the cleaning structure for spray cleaning treatment, an upper discharge structure on the right side of the spray structure, a fireproof glass position adjustment structure installed inside the upper discharge structure, a temperature-sensitive vanadium oxide composite film spraying structure on the left side of the fireproof glass position adjustment structure, and a heat-insulating glass processing structure on the front side of the fireproof glass position adjustment structure for processing the fireproof glass. The cutting structure includes a support base, a first position adjustment component slidably connected to the support base, a first U-shaped plate installed on the first position adjustment component, a second position adjustment component installed on the first U-shaped plate, a laser cutting machine body installed on the second position adjustment component, a crushing component located on the right side of the laser cutting machine body installed inside the support base, a laser rangefinder body installed on the upper side of the support base, and a conveyor located on the lower side of the laser rangefinder body installed between the support bases. The first position adjustment component includes a first kinetic energy source, which drives the lead screw to rotate and causes the first slider to slide in the limiting groove, which is opened on both sides of the support base. The crushing assembly includes a first support plate, which extends and retracts to adjust the position of the pre-crushed block via a telescopic structure. The feed inlet on the lower side of the pre-crushed block is located on the support base. A crushing roller is installed inside the feed inlet. A pull-out box is located on the lower side of the crushing roller and is slidably connected to the support base. The unloading structure includes a third position adjustment component, on which a second U-shaped plate is installed. The second U-shaped plate adjusts the position of the first vacuum adsorption moving component by telescopic structure. The first vacuum adsorption moving component includes a second support plate, and a suction cup body is installed on the lower side of the second support plate. The suction cup body is connected to the vacuum machine body through a first gas supply pipe. The fireproof glass position adjustment structure includes a base, a rotating component installed inside the base, an angle adjustment component installed on the upper side of the rotating component, a limit component and a third telescopic rod installed on the angle adjustment component, the third telescopic rod being located between the limit components, a second top plate installed on the upper side of the third telescopic rod, and a second vacuum adsorption moving component installed on the second top plate. The rotating component includes a third power source, which drives the fourth support plate to rotate. A second slide groove is provided on the lower side of the fourth support plate. A support sliding block is slidably connected in the second slide groove, and a base is installed on the lower side of the support sliding block. The angle adjustment assembly includes a support rod, a load-bearing plate is installed on the upper side of the support rod, a fixed rod is rotatably connected to the load-bearing plate through a first rotating rod, a first electric telescopic rod is provided between the support rods, a fourth support plate is installed on the lower side of the first electric telescopic rod, and the upper side of the fixed rod is rotatably connected to the storage box. The limiting component includes a second driving member, a fifth support plate is mounted on the upper side of the second driving member, a second electric telescopic rod and a first telescopic rod are mounted on the fifth support plate, a second electric telescopic rod is arranged between the first telescopic rods, and a limiting plate is mounted on both the first telescopic rod and the second electric telescopic rod; The temperature-sensitive vanadium oxide composite film spraying structure includes a first robotic arm, a second fixing plate is mounted on the first robotic arm, and a spraying component and a drying component are mounted on the second fixing plate. The drying component is located on the upper side of the spraying component. The spraying assembly includes a spray nozzle, which is connected to a temperature-sensitive vanadium oxide composite film spraying solvent tank via a feed pipe. The air drying assembly includes a blower nozzle, which is connected to a first hot air blower via a second air supply pipe; The heat-insulating glass processing structure includes a second robotic arm, on which a connecting rod is mounted, and on which a ring plate is mounted, and on which a first rotating assembly, a second rotating assembly, and a third rotating assembly are mounted. A second rotating assembly is located on one side of the third rotating assembly, and a first rotating assembly is located on one side of the second rotating assembly. An edge-sealing assembly is mounted on the first rotating assembly, a preheating assembly is mounted on the second rotating assembly, and a liquid tank assembly is mounted on the third rotating assembly. The first rotating assembly includes a third fixed plate, on which a fourth kinetic energy source is mounted, and a second rotating rod is rotatably connected to the fourth kinetic energy source. The edge banding assembly includes an edge banding glue gun body, which is connected to a glue storage tank via a glue delivery tube; The preheating component includes an air inlet gun body, which is connected to a second hot air blower via a hot air pipe; The liquid tank assembly includes a fire-retardant liquid tank and nozzle body, which is connected to a fire-retardant liquid storage tank via a fire-retardant liquid pipe.

[0004] Preferably, the cleaning structure includes a pre-cleaning box, in which a soft brush assembly, a first top plate, and a bottom plate are installed. The first top plate and bottom plate are located on the right side of the soft brush assembly. A fourth position adjustment assembly is installed on the first top plate. A vertical cleaning roller is installed on the fourth position adjustment assembly. A first fixing plate is installed on the lower side of the vertical cleaning roller. A first sliding groove is opened on the lower side of the first fixing plate. A second slider is slidably connected in the first sliding groove. The second slider is installed on the bottom plate.

[0005] Preferably, the soft brush assembly includes a first driving member, a connecting plate mounted on the lower side of the first driving member, a third support plate mounted on the lower side of the connecting plate, a motor on the third support plate driving the upper cleaning roller to rotate, and a lower cleaning roller disposed on the lower side of the upper cleaning roller being rotatably connected to the pre-cleaning box.

[0006] By adopting the above technical solution, the cut glass is unloaded by setting up a first vacuum adsorption moving component.

[0007] Preferably, the spray structure includes a spray box, in which a spray assembly is installed, and the spray assembly is connected to a filter assembly through a first water guide channel.

[0008] Preferably, the spray assembly includes a first water supply pipe, which connects to a spray nozzle and a second water supply pipe, and the second water supply pipe connects to a water tank.

[0009] By adopting the above technical solution, a spray system is installed to rinse the surface of the fireproof glass.

[0010] Preferably, the filter assembly includes a filter tube, a second power source is installed on the right side of the filter tube, the second power source drives a spiral roller to rotate, the spiral roller is installed inside the filter tube, the lower side of the filter tube is connected to a second water guide channel, a filter screen is installed on the lower side of the filter tube, and a filter bag is installed inside the filter box.

[0011] By adopting the above technical solution, impurities in wastewater are treated by setting up a filtration component.

[0012] Preferably, the unloading structure includes a processing box, a fifth position adjustment component is slidably connected to the processing box, a fixed box is installed on the lower side of the fifth position adjustment component, and the fixed box adjusts the position of the third vacuum adsorption moving component by telescopic structure.

[0013] By adopting the above technical solution, the processed temperature-sensitive heat-insulating fireproof glass is unloaded by setting up an upper unloading structure.

[0014] Compared with the prior art, the beneficial effects of the present invention are: the manufacturing method and equipment for a temperature-sensitive heat-insulating and fire-resistant glass, (1) The present invention can adjust the temperature according to the external light temperature, thereby achieving a better heat insulation effect; (2) The present invention can automatically clean fireproof glass and then automatically seal and fill it with glue, without the need for manual operation, thus improving the overall processing efficiency. (3) The present invention can preheat the filling cavity between fireproof glass to avoid premature solidification of fireproof adhesive during filling, which would affect product quality. Attached Figure Description

[0015] Figure 1 This is a front view structural diagram of the present invention; Figure 2 This is a schematic diagram of the rear view structure of the present invention; Figure 3 This is a schematic diagram of the right-side structure of the present invention; Figure 4 This is a schematic diagram of the cutting structure of the present invention; Figure 5 This is a schematic diagram of the cleaning structure of the present invention; Figure 6 This is a schematic diagram of the fireproof glass position adjustment structure of the present invention; Figure 7 For the present invention Figure 3 Enlarged structural diagram at point A in the middle; Figure 8 This is a three-dimensional structural diagram of the distribution of the pre-crushed blocks on the first support plate according to the present invention.

[0016] In the diagram: 1. Cutting structure; 11. Support base; 12. First position adjustment component; 121. First power source; 122. Lead screw; 123. First slider; 124. Limiting groove; 13. First U-shaped plate; 14. Second position adjustment component; 15. Laser cutting machine body; 16. Crushing component; 161. First support plate; 162. Pre-crushed block; 163. Feed inlet; 164. Crushing roller; 165. Pull-out box; 17. Laser rangefinder body; 18. Conveyor; 2. Unloading structure; 21. Third position adjustment component; 22. Second U-shaped plate; 23. First vacuum adsorption moving component; 231. Second support plate; 232. Suction cup body; 233. First air supply pipe; 234. Vacuum machine body; 3. Cleaning Structure; 31. Pre-cleaning box; 32. Soft brush assembly; 321. First drive component; 322. Connecting plate; 323. Third support plate; 324. Upper cleaning roller; 325. Lower cleaning roller; 33. First top plate; 34. Fourth position adjustment assembly; 35. Vertical cleaning roller assembly; 36. First fixing plate; 37. First chute; 38. Second slider; 39. Base plate; 4. Spray structure; 41. Spray box; 42. Spray assembly; 421. First water supply pipe; 422. Spray nozzle; 423. Second water supply pipe; 424. Water tank; 43. First water guide channel; 44. Filter assembly; 441. Filter pipe; 442. Second power source; 443. Spiral roller; 444. Second water guide channel; 445. Filter screen; 446. Filter box; 447, Filter bag; 5, Fireproof glass position adjustment structure; 51, Base; 52, Rotating assembly; 521, Third power source; 522, Support sliding block; 523, Second slide rail; 524, Fourth support plate; 53, Angle adjustment assembly; 531, Support rod; 532, Load-bearing plate; 533, First rotating rod; 534, Fixed rod; 535, First electric telescopic rod; 536, Storage box; 54, Limiting assembly; 541, Second driving component; 542, Fifth support plate; 543, Second electric telescopic rod; 544, First telescopic rod; 545, Limiting plate; 55, Third telescopic rod; 56, Second top plate; 57, Second vacuum adsorption moving assembly; 6, Temperature-changing vanadium oxide composite film spraying structure; 61, First 62. Robotic arm; 63. Second fixed plate; 64. Spraying assembly; 65. Spraying nozzle; 66. Material conveying pipe; 67. Temperature-changing vanadium oxide composite film spraying solvent tank; 68. Air drying assembly; 69. Air blowing nozzle; 60. Second air conveying pipe; 61. First hot air blower; 72. Heat insulation glass processing structure; 73. Second robotic arm; 74. Connecting rod; 75. Ring plate; 76. First rotating assembly; 77. Third fixed plate; 78. Second rotating rod; 79. Fourth power source; 70. Edge sealing assembly; 71. Edge sealing glue gun body; 72. Glue conveying pipe; 73. Glue storage tank; 74. Second rotating assembly; 75. Preheating assembly; 76. Air inlet gun body; 77. Hot air pipe; 77. Second hot air blower;78. Third rotating assembly; 79. Liquid tank assembly; 791. Fireproof liquid tank and nozzle body; 792. Fireproof liquid pipe; 793. Fireproof liquid storage tank; 8. Upper and lower unloading structure; 81. Processing box; 82. Fifth position adjustment assembly; 83. Fixed box; 84. Third vacuum adsorption moving assembly. Detailed Implementation

[0017] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0018] Please see Figure 1-8 This invention provides a technical solution: a method and equipment for manufacturing temperature-sensitive heat-insulating and fire-resistant glass, such as... Figure 1 , Figure 2 , Figure 3 and Figure 4 As shown, the device includes a cutting structure 1, which includes a support base 11. A first position adjustment component 12 is slidably connected to the support base 11. A first U-shaped plate 13 is mounted on the first position adjustment component 12. A second position adjustment component 14 is mounted on the first U-shaped plate 13. A laser cutting machine body 15 is mounted on the second position adjustment component 14. A crushing component 16, located on the right side of the laser cutting machine body 15, is installed inside the support base 11. A laser rangefinder body 17 is mounted on the upper side of the support base 11. A conveyor 18, located below the laser rangefinder body 17, is installed between the support bases 11. The first position adjustment component 12 includes a first kinetic energy source 121, which drives a lead screw 122 to rotate and causes a first slider 123 to slide within a limiting groove 124. The limiting groove 124 is located on both sides of the support base 11. The crushing component 16 includes a first support... The first support plate 161 extends and retracts to adjust the position of the pre-crushed block 162 via a telescopic structure. The feed inlet 163 on the lower side of the pre-crushed block 162 is located on the support base 11. A crushing roller 164 is installed inside the feed inlet 163. A pull-out box 165 is located on the lower side of the crushing roller 164 and is slidably connected to the support base 11. A discharge structure 2 is installed on the cutting structure 1 and is used for waste treatment. The discharge structure 2 includes a third position adjustment component 21. A second U-shaped plate 22 is installed on the third position adjustment component 21. The second U-shaped plate 22 extends and retracts to adjust the position of the first vacuum adsorption moving component 23 via a telescopic structure. The first vacuum adsorption moving component 23 includes a second support plate 231. A suction cup body 232 is installed on the lower side of the second support plate 231 and is connected to the vacuum machine body 234 via a first air supply pipe 233. Among them, the support base 11 is equipped with a PLC control device for controlling the overall equipment. The telescopic structure in this application is a hydraulic cylinder. The hydraulic cylinder drives the pre-crushed block 162 to adjust its position through the hydraulic rod. The first power source 121 is a stepper motor, which is the prior art. Each hydraulic cylinder body is equipped with a position sensor to monitor its real-time displacement, and the data is transmitted to the control device through the feedback control system. The control device makes fine adjustments to the hydraulic valves based on the feedback data to ensure that the movements of each hydraulic cylinder body are always synchronized. Specifically, the first position adjustment component 12 and the second position adjustment component 14 have the same structure; Furthermore, multiple suction cup bodies 232 are installed on the second support plate 231, and the multiple suction cup bodies 232 are distributed at equal intervals on the second support plate 231. In the above scheme, with the assistance of the PLC control device, the conveyor 18, the laser rangefinder body 17, the laser cutting machine body 15, and the first power source 121 are started. With the assistance of the conveyor 18, the fireproof glass to be cut is moved to the required position. With the assistance of the laser rangefinder body 17 on the support base 11, precise measurement is performed. With the assistance of the first power source 121, the lead screw 122 is rotated. The rotation of the lead screw 122 causes the first slider 123 to move within the limiting groove 124 to the required position. Similarly, with the assistance of the second position adjustment component 14 on the first U-shaped plate 13, the laser cutting machine body 15 is moved to adjust its position, thereby precisely cutting the fireproof glass. With the assistance of the third position adjustment component 21, the suction cup body 232 on the upper side of the second support plate 231 on the second U-shaped plate 22 is moved. The suction cup body 232 moves to the required position. With the assistance of the hydraulic cylinder on the second support plate 231, the suction cup body 232 on the second support plate 231 is moved by the hydraulic rod. Finally... With the assistance of the hydraulic cylinder on the second U-shaped plate 22, the suction cup body 232 on the second support plate 231 is driven by the hydraulic rod to adhere to the cut fireproof glass. With the assistance of the PLC control device, the vacuum machine body 234 is started. The vacuum machine body 234 adsorbs the fireproof glass through the first air supply pipe 233 and the suction cup body 232. Finally, with the assistance of the third position adjustment component 21, it moves to the conveyor roller on the support base 11 for movement. The waste material moves with the assistance of the conveyor 18. Similarly, in the second... With the assistance of a position adjustment component 12, the first support plate 161 is moved to the right to the desired position. With the assistance of a hydraulic cylinder on the first support plate 161, the pre-crushing block 162 is moved downward by a hydraulic rod to pre-process the waste. The processed waste falls into the feed inlet 163. With the assistance of a PLC control device, the motor installed on the support base 11 is started. With the assistance of the motor, the gear set is rotated and the crushing roller 164 is rotated, thereby crushing the waste. Finally, it is stored in the pull-out box 165.

[0019] like Figure 1 , Figure 3 and Figure 4As shown, a cleaning structure 3 is provided on the right side of the unloading structure 2 for cleaning treatment, and a spray structure 4 is provided on the right side of the cleaning structure 3 for spray cleaning treatment. The cleaning structure 3 includes a pre-cleaning box 31, in which a soft brush assembly 32, a first top plate 33, and a bottom plate 39 are installed. The first top plate 33 and the bottom plate 39 are provided on the right side of the soft brush assembly 32. A fourth position adjustment assembly 34 is installed on the first top plate 33, and a vertical cleaning roller 35 is installed on the fourth position adjustment assembly 34. A first fixing plate 36 is installed on the lower side of the vertical cleaning roller 35. A first sliding groove 37 is opened on the lower side of the first fixing plate 36, and a second slider 38 is slidably connected in the first sliding groove 37. The second slider 38 is installed on the bottom plate 39. The soft brush assembly 32 includes a first driving member 321, a connecting plate 322 is installed on the lower side of the first driving member 321, and a third support plate 323 is installed on the lower side of the connecting plate 322. The motor on the third support plate 323 drives the upper cleaning roller 324 to rotate. The lower cleaning roller 325, which is set on the lower side of the upper cleaning roller 324, is rotatably connected to the pre-cleaning box 31. The spray structure 4 includes a spray box 41. A spray assembly 42 is installed in the spray box 41. The spray assembly 42 is connected to the filter assembly 44 through the first water guide channel 43. The spray assembly 42 includes a first water supply pipe 421. The first water supply pipe 421 is connected to the spray nozzle 422 and the second water supply pipe 423. The second water supply pipe 423 is connected to the water tank 424. The filter assembly 44 includes a filter tube 441. A second power source 442 is installed on the right side of the filter tube 441. The second power source 442 drives the spiral roller 443 to rotate. The spiral roller 443 is installed in the filter tube 441. The lower side of the filter tube 441 is connected to the second water guide channel 444. A filter screen 445 is installed on the lower side of the filter tube 441. A filter bag 447 is installed in the filter box 446. The spray box 41 is connected to a drying box on the right side, so as to dry the cleaned fireproof glass. The first driving component 321 is a hydraulic cylinder, which is existing technology. Specifically, a motor is installed on the spray box 41, and the motor drives the lower cleaning roller 325 to rotate; Furthermore, the vertical cleaning roller component 35 includes a motor housing and a vertical cleaning roller. The motor inside the motor housing drives the vertical cleaning roller to rotate, and a fourth position adjustment component 34 is installed on the upper side of the motor housing. Two sets of vertical cleaning rollers 35 are provided, and the two sets of vertical cleaning rollers 35 are arranged symmetrically. In the above scheme, the first drive unit 321 is activated with the assistance of the PLC control device. Inside the pre-cleaning box 31, the first drive unit 321 drives the third support plate 323 on the connecting plate 322 to adjust its position via a hydraulic rod, thereby adjusting the positions of the upper cleaning roller 324 and the lower cleaning roller 325. With the assistance of the motor on the third support plate 323 and the pre-cleaning box 31, the upper cleaning roller 324 and the lower cleaning roller 325 are rotated, thereby assisting in the cleaning of the fireproof glass from top to bottom. With the assistance of the fourth position adjustment component 34 on the first top plate 33, the vertical cleaning roller 35 is moved. The movement of the vertical cleaning roller 35 causes the first fixed plate 36 to move, thereby causing the second slider 38 on the bottom plate 39 to slide in the first slide groove 37, thereby adjusting the spacing between the vertical cleaning rollers 35 and pre-cleaning the fireproof glass of different widths from front to back. The pre-cleaned fireproof glass enters the spray box 41. With the assistance of the PLC control device, the pressure pump on the second water supply pipe 423 is activated, and with the assistance of the pressure pump, the water tank... Pressurized cleaning water inside pipe 424 enters spray nozzle 422 through second water pipe 423 and first water pipe 421. With the assistance of spray nozzle 422, the surface of the fireproof glass is rinsed. The rinsed fireproof glass enters a drying oven for drying, and finally is removed from the drying oven and placed in processing box 81. Wastewater enters filter pipe 441 through first water guide trough 43. With the assistance of PLC control, second power source 442 is started. Second power source 442 is a motor, which drives... The spiral roller 443 rotates and filters the water with the assistance of the filter screen 445. Finally, the waste is discharged through the waste pipe on the left side of the filter pipe 441 and falls into the waste box for collection. The filtered wastewater enters the filter box 446 through the second water guide channel 444. The wastewater is filtered again with the assistance of the filter bag 447 in the filter box 446. The filtered wastewater enters the wastewater processor and is filtered with the assistance of the wastewater processor. Finally, it is recycled to avoid water waste. The wastewater processor is existing technology.

[0020] like Figure 3 , Figure 7 and Figure 8As shown, a fireproof glass position adjustment structure 5 is installed inside the upper unloading structure 8. The fireproof glass position adjustment structure 5 includes a base 51, a rotating component 52 is installed inside the base 51, an angle adjustment component 53 is installed on the upper side of the rotating component 52, a limit component 54 and a third telescopic rod 55 are installed on the angle adjustment component 53, the third telescopic rod 55 is located between the limit components 54, a second top plate 56 is installed on the upper side of the third telescopic rod 55, a second vacuum adsorption moving component 57 is installed on the second top plate 56, the rotating component 52 includes a third kinetic energy source 521, the third kinetic energy source 521 drives the fourth support plate 524 to rotate, a second slide groove 523 is opened on the lower side of the fourth support plate 524, a support sliding block 522 is slidably connected in the second slide groove 523, and a support sliding block 522 is installed on the lower side of the support sliding block 522. The device includes a base 51, an angle adjustment assembly 53 including a support rod 531, a load-bearing plate 532 mounted on the upper side of the support rod 531, a fixed rod 534 rotatably connected to the load-bearing plate 532 via a first rotating rod 533, a first electric telescopic rod 535 between the support rods 531, a fourth support plate 524 mounted on the lower side of the first electric telescopic rod 535, and a storage box 536 rotatably connected to the upper side of the fixed rod 534. The limiting assembly 54 includes a second driving member 541, a fifth support plate 542 mounted on the upper side of the second driving member 541, a second electric telescopic rod 543 and a first telescopic rod 544 mounted on the fifth support plate 542, a second electric telescopic rod 543 between the first telescopic rods 544, and a limiting plate 545 mounted on both the first telescopic rod 544 and the second electric telescopic rod 543. Among them, four sets of limit components 54 are provided, and the four sets of limit components 54 are equally distributed on the storage box 536; The third-generation power source 521 is a stepper motor, which is existing technology. Furthermore, at least four sets of support sliding blocks 522 are provided, and the four sets of support sliding blocks 522 are equally distributed in the second slide groove 523 and the base 51. The second slide groove 523 is arranged in a ring. Specifically, the second vacuum adsorption moving component 57 and the third vacuum adsorption moving component 84 have the same structure as the first vacuum adsorption moving component 23. The second driving component 541 is a hydraulic cylinder, which is existing technology. In this preferred embodiment, with the assistance of the PLC control device, the third telescopic rod 55, the second electric telescopic rod 543, and the first electric telescopic rod 535 are activated. Inside the storage box 536, the third telescopic rod 55 assists in moving the second top plate 56 to the desired position. A set of fireproof glass is placed on the upper side of the second top plate 56 on the storage box 536. With the assistance of the second driving component 541, the fifth support plate 542 is moved upwards to the desired position. With the assistance of the second vacuum adsorption moving component 57, the fireproof glass is adsorbed and fixed. With the assistance of the second electric telescopic rod 543 and the first telescopic rod 544, the limiting plate 545 moves relative to each other, finally limiting the fireproof glass. Other fireproof glass is placed within the space enclosed by the limiting plate 545 and adheres to the lower fireproof glass, ensuring neat adhesion and guaranteeing the subsequent sealing effect. Five sets of fireproof glass are installed. A potting cavity is provided between the four lower sets of fireproof glass, and spraying is applied between the upper two sets of fireproof glass. The temperature-sensitive vanadium oxide composite film is sprayed with a solvent to achieve temperature-sensitive adjustment. The glass transmittance changes from transparent to opaque depending on the ambient temperature or light radiation intensity. As the ambient temperature decreases, the fireproof glass returns to transparency. This temperature-sensitive heat-insulating fireproof glass eliminates the glare of sunlight and visible light in summer, providing sunshade without blocking light, thus improving indoor comfort. To adjust the angle and position of the fireproof glass, the storage box 536 rotates between the fixed rods 534 with the assistance of the first electric telescopic rod 535 on the right side, thereby adjusting the angle of the storage box 536. The left storage box 536 rotates with the assistance of the first rotating rod 533 between the support rod 531 and the fixed rod 534 on the load-bearing plate 532, thereby adjusting the left-side angle of the storage box 536. With the assistance of the third kinetic energy source 521 on the base 51, the supporting sliding block 522 and the fourth support plate 524 rotate. The supporting sliding block 522 slides within the second sliding groove 523, thereby adjusting the overall angle of the upper storage box 536, increasing practicality.

[0021] like Figure 1 , Figure 2 , Figure 3 , Figure 5 and Figure 6As shown, a loading and unloading structure 8 is provided on the right side of the spray structure 4, a thermochromic vanadium oxide composite film spraying structure 6 is provided on the left side of the fireproof glass position adjustment structure 5, and a heat-insulating glass processing structure 7 is provided in front of the fireproof glass position adjustment structure 5 for processing the fireproof glass. The thermochromic vanadium oxide composite film spraying structure 6 includes a first robotic arm 61, a second fixing plate 62 is mounted on the first robotic arm 61, and a spraying component 63 and a drying component 64 are mounted on the second fixing plate 62. The drying component 64 is located at the spraying... On the upper side of the coating assembly 63, the spraying assembly 63 includes a spray nozzle 631, which is connected to a temperature-sensitive vanadium oxide composite film spraying solvent tank 633 via a feed pipe 632. The drying assembly 64 includes a blower nozzle 641, which is connected to a first hot air blower 643 via a second air supply pipe 642. The heat-insulating glass processing structure 7 includes a second robotic arm 71, on which a connecting rod 72 is mounted. An annular plate 73 is mounted on the connecting rod 72, and a first rotating... The system comprises a moving assembly 74, a second rotating assembly 76, and a third rotating assembly 78. The second rotating assembly 76 is mounted on one side of the third rotating assembly 78, and the first rotating assembly 74 is mounted on one side of the second rotating assembly 76. A sealing assembly 75 is mounted on the first rotating assembly 74. A preheating assembly 77 is mounted on the second rotating assembly 76. A liquid tank assembly 79 is mounted on the third rotating assembly 78. The first rotating assembly 74 includes a third fixing plate 741, on which a fourth power source 743 is mounted. The fourth power source 743 is rotatably connected to the second rotating rod 742. The edge sealing assembly 75 includes an edge sealing glue gun body 751, which is connected to the glue storage tank 753 through the glue supply pipe 752. The preheating assembly 77 includes an air inlet gun body 771, which is connected to the second hot air blower 773 through the hot air pipe 772. The liquid tank assembly 79 includes a fireproof liquid tank gun body 791, which is connected to the fireproof liquid storage tank 793 through the fireproof liquid pipe 792. The second fixed plate 62 is equipped with multiple sets of spray nozzles 631 and blower nozzles 641, and the multiple sets of blower nozzles 641 and spray nozzles 631 are distributed at equal distances on the second fixed plate 62. Specifically, the first rotating assembly 74, the second rotating assembly 76, and the third rotating assembly 78 have the same structure; In this preferred embodiment, with the assistance of a PLC control device, the first robotic arm 61, the first hot air blower 643, the fourth power source 743, the glue delivery pipe 752, the hot air pipe 772, and the pressure pump on the fireproof liquid pipe 792 are activated. With the assistance of the first robotic arm 61, the spray nozzle 631 and the blower nozzle 641 on the second fixed plate 62 are moved to the surface of the fireproof glass. With the assistance of the pressure pump on the delivery pipe 632, the temperature-sensitive vanadium oxide composite film spraying solvent in the temperature-sensitive vanadium oxide composite film spraying solvent tank 633 enters the spray nozzle 631 through the delivery pipe 632. With the assistance of multiple spray nozzles 631, the fireproof glass surface is uniformly sprayed. After spraying is completed, the first hot air blower 643... The heat sealant produced enters the blower nozzle 641 through the second air supply pipe 642 to dry the surface. Finally, the last layer of fireproof glass is placed on top. With the assistance of the second robotic arm 71, the annular plate 73 on the connecting rod 72 is adjusted to change the position of the sealing glue gun body 751, the air inlet gun body 771, and the fireproof liquid tank gun body 791. With the assistance of the fourth kinetic energy 743 on the third fixed plate 741, the second rotating rod 742 is rotated. The rotation of the second rotating rod 742 causes the sealing glue gun body 751 to rotate, thereby adjusting the position of the sealing glue gun body 751 for easy rotation during use. The fourth kinetic energy 743 is a stepper motor, with the assistance of a pressure pump on the glue supply pipe 752. Under the action of the adhesive storage tank 753, the sealing adhesive enters the sealing gun body 751 through the adhesive delivery pipe 752. With the assistance of the sealing gun body 751, the edge sealing treatment of the fireproof glass is performed and dried. When it is necessary to refill the fireproof glass, the air inlet gun body 771 is rotated to the required position with the assistance of the second rotating component 76. With the assistance of the second hot air blower 773, the high temperature of the treated material enters the air inlet gun body 771 through the hot air pipe 772. The air inlet gun body 771 blows air into the cavity between the fireproof glass, thereby preheating the cavity between the fireproof glass. After preheating, the air inlet gun body 771 rotates back to the original position. Similarly, with the assistance of the third rotating component 78... Under the action of the pump, the fire retardant liquid canister gun body 791 rotates to the required position. With the assistance of the pressurizing pump on the fire retardant liquid pipe 792, the fire retardant liquid in the fire retardant liquid storage tank 793 enters the fire retardant liquid canister gun body 791 through the fire retardant liquid pipe 792. With the assistance of the fire retardant liquid canister gun body 791, the fire retardant liquid is injected into the cavity between the fire retardant glass, thus eliminating the need for manual operation and improving processing efficiency. After the entire work is completed, with the assistance of the fifth position adjustment component 82 on the processing box 81, the fixed box 83 is moved. The third vacuum adsorption moving component 84 on the fixed box 83 adsorbs the temperature-changing heat-insulating fire retardant glass and finally moves it to the rear transfer roller, which facilitates the subsequent overall movement into the firing furnace body for firing processing.

[0022] Working principle: In the manufacturing method and equipment of this thermochromic heat-insulating fireproof glass, an external power supply is connected, and the fireproof glass is cut with the assistance of the cutting structure 1. The fireproof glass is unloaded by the unloading structure 2, and the fireproof glass is cleaned and dried by the cleaning structure 3 and the spraying structure 4. The position of the fireproof glass is adjusted by the fireproof glass position adjustment structure 5, and the thermochromic vanadium oxide composite film spraying structure 6 is used to spray the fireproof glass with thermochromic vanadium oxide composite film spraying agent. The fireproof glass is preheated and poured by the heat-insulating glass processing structure 7, and finally unloaded by the upper unloading structure 8. The contents not described in detail in this specification are existing technologies known to those skilled in the art.

[0023] The terms “center,” “longitudinal,” “lateral,” “front,” “rear,” “left,” “right,” “vertical,” “horizontal,” “top,” “bottom,” “inner,” and “outer,” etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are merely simplified descriptions for the convenience of describing the present invention and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limiting the scope of protection of the present invention.

[0024] Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A manufacturing equipment for temperature-sensitive heat-insulating and fire-resistant glass, characterized in that, The structure includes a cutting structure (1), a discharge structure (2) installed on the cutting structure (1) for waste disposal, a cleaning structure (3) on the right side of the discharge structure (2) for cleaning, a spray structure (4) on the right side of the cleaning structure (3) for spray cleaning, an upper discharge structure (8) on the right side of the spray structure (4), a fireproof glass position adjustment structure (5) installed inside the upper discharge structure (8), a temperature-changing vanadium oxide composite film spraying structure (6) on the left side of the fireproof glass position adjustment structure (5), and a heat-insulating glass processing structure (7) on the front side of the fireproof glass position adjustment structure (5) for processing the fireproof glass. The cutting structure (1) includes a support base (11), a first position adjustment component (12) is slidably connected to the support base (11), a first U-shaped plate (13) is installed on the first position adjustment component (12), a second position adjustment component (14) is installed on the first U-shaped plate (13), a laser cutting machine body (15) is installed on the second position adjustment component (14), a crushing component (16) provided on the right side of the laser cutting machine body (15) is installed in the support base (11), a laser rangefinder body (17) is installed on the upper side of the support base (11), and a conveyor (18) provided on the lower side of the laser rangefinder body (17) is installed between the support bases (11); The first position adjustment component (12) includes a first kinetic energy source (121), which drives the lead screw (122) to rotate and causes the first slider (123) to slide in the limiting groove (124), which is located on both sides of the support base (11). The crushing assembly (16) includes a first support plate (161). The first support plate (161) can adjust the position of the pre-crushed block (162) by telescopic structure. The feed inlet (163) provided on the lower side of the pre-crushed block (162) is opened on the support base (11). A crushing roller (164) is installed in the feed inlet (163). A pull-out box (165) is provided on the lower side of the crushing roller (164). The pull-out box (165) is slidably connected to the support base (11). The unloading structure (2) includes a third position adjustment component (21), on which a second U-shaped plate (22) is installed. The second U-shaped plate (22) adjusts the position of the first vacuum adsorption moving component (23) by telescopic structure. The first vacuum adsorption moving component (23) includes a second support plate (231), and a suction cup body (232) is installed on the lower side of the second support plate (231). The suction cup body (232) is connected to the vacuum machine body (234) through the first gas supply pipe (233). The fireproof glass position adjustment structure (5) includes a base (51), a rotating component (52) is installed inside the base (51), an angle adjustment component (53) is installed on the upper side of the rotating component (52), a limit component (54) and a third telescopic rod (55) are installed on the angle adjustment component (53), the third telescopic rod (55) is located between the limit components (54), a second top plate (56) is installed on the upper side of the third telescopic rod (55), and a second vacuum adsorption moving component (57) is installed on the second top plate (56). The rotating component (52) includes a third kinetic energy source (521), which drives the fourth support plate (524) to rotate. A second slide groove (523) is provided on the lower side of the fourth support plate (524). A support sliding block (522) is slidably connected in the second slide groove (523). A base (51) is installed on the lower side of the support sliding block (522). The angle adjustment assembly (53) includes a support rod (531), a load-bearing plate (532) is installed on the upper side of the support rod (531), the load-bearing plate (532) is rotatably connected to a fixed rod (534) through a first rotating rod (533), a first electric telescopic rod (535) is provided between the support rods (531), a fourth support plate (524) is installed on the lower side of the first electric telescopic rod (535), and the upper side of the fixed rod (534) is rotatably connected to the storage box (536); The limiting component (54) includes a second driving member (541), a fifth support plate (542) is installed on the upper side of the second driving member (541), a second electric telescopic rod (543) and a first telescopic rod (544) are installed on the fifth support plate (542), the second electric telescopic rod (543) is arranged between the first telescopic rods (544), and a limiting plate (545) is installed on both the first telescopic rod (544) and the second electric telescopic rod (543). The temperature-sensitive vanadium oxide composite film spraying structure (6) includes a first robotic arm (61), a second fixing plate (62) is installed on the first robotic arm (61), and a spraying component (63) and a drying component (64) are installed on the second fixing plate (62). The drying component (64) is located on the upper side of the spraying component (63). The spraying assembly (63) includes a spray nozzle (631), which is connected to the temperature-sensitive vanadium oxide composite film spraying solvent tank (633) via a feed pipe (632). The air drying assembly (64) includes a blower nozzle (641) which is connected to a first hot air blower (643) via a second air supply pipe (642). The heat-insulating glass processing structure (7) includes a second robotic arm (71), a connecting rod (72) is installed on the second robotic arm (71), an annular plate (73) is installed on the connecting rod (72), a first rotating assembly (74), a second rotating assembly (76) and a third rotating assembly (78) are installed on the annular plate (73), a second rotating assembly (76) is provided on one side of the third rotating assembly (78), a first rotating assembly (74) is provided on one side of the second rotating assembly (76), an edge sealing assembly (75) is installed on the first rotating assembly (74), a preheating assembly (77) is installed on the second rotating assembly (76), and a liquid tank assembly (79) is installed on the third rotating assembly (78). The first rotating assembly (74) includes a third fixed plate (741), a fourth kinetic energy source (743) is mounted on the third fixed plate (741), and a second rotating rod (742) is rotatably connected to the fourth kinetic energy source (743). The edge sealing assembly (75) includes an edge sealing glue gun body (751), which is connected to the glue storage tank (753) via a glue delivery tube (752). The preheating component (77) includes an air inlet gun body (771), which is connected to a second hot air blower (773) via a hot air pipe (772). The liquid tank assembly (79) includes a fireproof liquid tank nozzle body (791), which is connected to a fireproof liquid storage tank (793) via a fireproof liquid pipe (792).

2. The manufacturing equipment for temperature-sensitive heat-insulating and fire-resistant glass according to claim 1, characterized in that: The cleaning structure (3) includes a pre-cleaning box (31), in which a soft brush assembly (32), a first top plate (33) and a bottom plate (39) are installed. The soft brush assembly (32) is provided with a first top plate (33) and a bottom plate (39) on the right side. A fourth position adjustment assembly (34) is installed on the first top plate (33). A vertical cleaning roller (35) is installed on the fourth position adjustment assembly (34). A first fixing plate (36) is installed on the lower side of the vertical cleaning roller (35). A first sliding groove (37) is opened on the lower side of the first fixing plate (36). A second slider (38) is slidably connected in the first sliding groove (37). The second slider (38) is installed on the bottom plate (39).

3. The manufacturing equipment for temperature-sensitive heat-insulating and fire-resistant glass according to claim 2, characterized in that: The soft brush assembly (32) includes a first drive member (321), a connecting plate (322) is installed on the lower side of the first drive member (321), a third support plate (323) is installed on the lower side of the connecting plate (322), a motor on the third support plate (323) drives the upper cleaning roller (324) to rotate, and a lower cleaning roller (325) provided on the lower side of the upper cleaning roller (324) is rotatably connected to the pre-cleaning box (31).

4. The manufacturing equipment for temperature-sensitive heat-insulating and fire-resistant glass according to claim 2, characterized in that: The spray structure (4) includes a spray box (41), a spray assembly (42) is installed inside the spray box (41), and the spray assembly (42) is connected to the filter assembly (44) through the first water guide channel (43).

5. The manufacturing equipment for temperature-sensitive heat-insulating and fire-resistant glass according to claim 4, characterized in that: The spray assembly (42) includes a first water supply pipe (421), which is connected to a spray nozzle (422) and a second water supply pipe (423), which is connected to a water tank (424).

6. The manufacturing equipment for temperature-sensitive heat-insulating and fire-resistant glass according to claim 4, characterized in that: The filter assembly (44) includes a filter tube (441), a second power source (442) is installed on the right side of the filter tube (441), the second power source (442) drives the spiral roller (443) to rotate, the spiral roller (443) is installed inside the filter tube (441), the lower side of the filter tube (441) is connected to the second water guide channel (444), a filter screen (445) is installed on the lower side of the filter tube (441), and a filter bag (447) is installed inside the filter box (446).

7. The manufacturing equipment for temperature-sensitive heat-insulating and fire-resistant glass according to claim 6, characterized in that: The upper unloading structure (8) includes a processing box (81), a fifth position adjustment component (82) is slidably connected to the processing box (81), a fixed box (83) is installed on the lower side of the fifth position adjustment component (82), and the fixed box (83) adjusts the position of the third vacuum adsorption moving component (84) by telescopic structure.

8. A method for manufacturing temperature-sensitive heat-insulating and fire-resistant glass, characterized in that, Includes the following steps: (1) Cutting fireproof glass a. With the assistance of the conveyor (18), the fireproof glass to be cut is moved to the required position. With the assistance of the laser rangefinder body (17) on the support base (11), a precise measurement is performed. With the assistance of the first kinetic energy source (121), the lead screw (122) is rotated. The rotation of the lead screw (122) drives the first slider (123) to move to the required position in the limiting groove (124). Similarly, with the assistance of the second position adjustment component (14) on the first U-shaped plate (13), the laser cutting machine body (15) is adjusted to perform position adjustment, thereby accurately cutting the fireproof glass. b. With the assistance of the third position adjustment component (21), the suction cup body (232) on the upper side of the second support plate (231) on the second U-shaped plate (22) is moved. The suction cup body (232) moves to the required position. With the assistance of the hydraulic cylinder on the second support plate (231), the suction cup body (232) on the second support plate (231) is moved by the hydraulic rod. Finally, with the assistance of the hydraulic cylinder on the second U-shaped plate (22), the suction cup body (232) on the second support plate (231) is moved by the hydraulic rod to fit the cut fireproof glass. With the assistance of the PLC control device, the vacuum machine body (234) is started. The vacuum machine body (234) adsorbs the fireproof glass through the first gas supply pipe (233) and the suction cup body (232). Finally, with the assistance of the third position adjustment component (21), the material moves to the conveyor roller on the support base (11) and moves with the assistance of the conveyor (18). Similarly, with the assistance of the first position adjustment component (12), the first support plate (161) moves to the right to the required position. With the assistance of the hydraulic cylinder on the first support plate (161), the pre-crushing block (162) moves downward through the hydraulic rod to pre-process the waste. The processed waste falls into the feed inlet (163). With the assistance of the PLC control device, the motor installed on the support base (11) is started. With the assistance of the motor, the gear set rotates and the crushing roller (164) rotates, thereby crushing the waste. Finally, it is stored in the pull-out box (165). (2) Cleaning treatment of fireproof glass a. The first drive unit (321) in the pre-cleaning box (31) drives the third support plate (323) on the connecting plate (322) to adjust its position through the hydraulic rod, thereby adjusting the position of the upper cleaning roller (324) and the lower cleaning roller (325). With the assistance of the motor on the third support plate (323) and the pre-cleaning box (31), the upper cleaning roller (324) and the lower cleaning roller (325) rotate, thereby assisting in cleaning the fireproof glass from top to bottom. With the assistance of the fourth position adjustment component (34) on the first top plate (33), the vertical cleaning roller (35) moves. The movement of the vertical cleaning roller (35) drives the first fixed plate (36) to move, thereby allowing the second slider (38) on the bottom plate (39) to slide in the first slide groove (37), thereby adjusting the distance between the vertical cleaning rollers (35) and pre-cleaning the fireproof glass of different widths from front to back. b. After pre-cleaning, the fireproof glass enters the spray box (41). With the assistance of the PLC control device, the pressurizing pump on the second water supply pipe (423) is started. With the assistance of the pressurizing pump, the pressurized clean water in the water tank (424) enters the spray nozzle (422) through the second water supply pipe (423) and the first water supply pipe (421). With the assistance of the spray nozzle (422), the surface of the fireproof glass is rinsed. After rinsing, the fireproof glass enters the drying box for drying. c. Finally, the wastewater is removed from the drying box and enters the processing box (81). The wastewater enters the filter pipe (441) through the first water guide channel (43). With the assistance of the PLC control device, the second power source (442) is started. The second power source (442) is a motor. With the assistance of the second power source (442), the spiral roller (443) is rotated. With the assistance of the filter screen (445), the filter is performed. Finally, the waste is discharged through the waste pipe on the left side of the filter pipe (441) and falls into the waste box for collection. The filtered wastewater enters the filter box (446) through the second water guide channel (444). With the assistance of the filter bag (447) in the filter box (446), the wastewater is filtered again. The filtered wastewater enters the wastewater processor. With the assistance of the wastewater processor, the filter is performed. Finally, the wastewater is recycled to avoid water waste. The wastewater processor is the existing technology. (3) Adjust the angle of the fireproof glass. a. With the assistance of the third telescopic rod (55) inside the storage box (536), the second top plate (56) is moved to the required position. A set of fireproof glass is placed on the upper side of the second top plate (56) on the storage box (536). With the assistance of the second driving component (541), the fifth support plate (542) is moved upward to the required position. With the assistance of the second vacuum adsorption moving component (57), the fireproof glass is adsorbed and fixed. With the assistance of the second electric telescopic rod (543) and the first telescopic rod (544), the limiting plate (545) is moved relative to each other. Finally, the fireproof glass is assisted in limiting its position. Place other fireproof glass in the space enclosed by the limiting plate (545) and attach it to the fireproof glass on the lower side to ensure that the fireproof glass is neatly attached and to ensure the sealing effect in the later stage. There are five sets of fireproof glass installed. There is a glue filling cavity between the four sets of fireproof glass on the lower side. The upper two fireproof glass are sprayed with a temperature-changing vanadium oxide composite film and a solvent, so as to perform temperature-changing temperature adjustment. The light transmittance of the glass is adjusted according to the ambient temperature or light radiation intensity, changing from transparent to opaque. As the ambient temperature decreases, the fireproof glass returns to transparency. The temperature-changing heat insulation fireproof glass eliminates the feeling of sunlight turbidity and visible light glare in summer, provides sunshade without blocking light, and improves indoor comfort. b. With the assistance of the first electric telescopic rod (535) on the right side, the storage box (536) rotates between the fixed rods (534) to adjust the angle of the storage box (536). With the assistance of the first rotating rod (533) between the support rod (531) and the fixed rod (534) on the load-bearing plate (532), the left storage box (536) rotates to adjust the left angle of the storage box (536). With the assistance of the third kinetic energy source (521) on the base (51), the support sliding block (522) and the fourth support plate (524) rotate. The support sliding block (522) slides in the second slide groove (523) to adjust the overall angle of the upper storage box (536). (4) Fireproof glass is processed by setting up a temperature-sensitive vanadium oxide composite film spraying structure (6) and a heat-insulating glass processing structure (7). a. With the assistance of the first robotic arm (61), the spray nozzle (631) and the blower nozzle (641) on the second fixed plate (62) are moved to the surface of the fireproof glass. With the assistance of the pressurized pump on the feed pipe (632), the temperature-changing vanadium oxide composite film spraying solvent in the temperature-changing vanadium oxide composite film spraying solvent tank (633) enters the spray nozzle (631) through the feed pipe (632). With the assistance of multiple sets of spray nozzles (631), the fireproof glass surface is uniformly sprayed. After the spraying is completed, the heat seal generated in the first hot air blower (643) enters the blower nozzle (641) through the second air supply pipe (642) to dry the surface. Finally, the last layer of fireproof glass is placed on the top. b. With the assistance of the second robotic arm (71), the annular plate (73) on the connecting rod (72) is driven to adjust the position, thereby adjusting the position of the sealing glue gun body (751), the air inlet gun body (771), and the fireproof liquid tank gun body (791). With the assistance of the fourth kinetic energy source (743) on the third fixed plate (741), the second rotating rod (742) is driven to rotate. The rotation of the second rotating rod (742) drives the sealing glue gun body (751) to rotate, thereby adjusting the position of the sealing glue gun body (751) for easy rotation during use. The fourth kinetic energy source (743) is a stepper motor. With the assistance of the pressure pump on the glue delivery pipe (752), the sealing glue in the glue storage tank (753) enters the sealing glue gun body (751) through the glue delivery pipe (752). With the assistance of the sealing glue gun body (751), the fireproof glass is sealed and dried. During liquid filling, with the assistance of the second rotating component (76), the air inlet gun body (771) rotates to the required position. With the assistance of the second hot air blower (773), the high-temperature liquid after processing enters the air inlet gun body (771) through the hot air pipe (772). The air inlet gun body (771) blows air into the cavity between the fireproof glass panes, thereby preheating the cavity between the fireproof glass panes. After preheating, the air inlet gun body (771) rotates back to its original position. With the assistance of the third rotating component (78), the fireproof liquid tank gun body (791) is rotated to the required position. With the assistance of the pressurizing pump on the fireproof liquid pipe (792), the fireproof liquid in the fireproof liquid storage tank (793) enters the fireproof liquid tank gun body (791) through the fireproof liquid pipe (792). With the assistance of the fireproof liquid tank gun body (791), the fireproof liquid is injected into the cavity between the fireproof glass, so that no manual operation is required and the processing efficiency is improved. c. After the entire work is completed, the fixed box (83) is moved by the fifth position adjustment component (82) on the processing box (81). The third vacuum adsorption moving component (84) on the fixed box (83) adsorbs the temperature-changing heat-insulating fireproof glass and finally moves it to the rear conveyor roller, so that it can be moved into the firing furnace body for firing processing later.

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