Novel cooling mechanism of vacuum glass continuous production equipment

Abstract

The invention relates to the technical field of vacuum glass production, and discloses a novel vacuum glass continuous production equipment cooling mechanism which comprises a box body and an upper cooling plate guide plate, a lower cooling plate is arranged in the box body, an upper cooling plate is fixedly connected to the upper surface of the lower cooling plate, an upper pressing roller is arranged in the upper cooling plate, and a lower pressing roller is fixedly connected to the upper surface of the upper cooling plate. A lower conveying roller is arranged on one side of the outer wall of the lower cooling plate, an upper cover plate is fixedly connected to the upper surface of the upper cooling plate guide plate, a cover plate exhaust pipeline is fixedly connected to the upper surface of the upper cover plate, an air cylinder assembly is arranged below the lower cooling plate, and a first coupler is arranged on one side of the outer wall of the air cylinder assembly. Through the arrangement of the upper cooling plate and the lower cooling plate and the use of heat-conducting silica gel of the upper cooling plate, the cooling efficiency of the equipment can be improved, and the design is beneficial to quickly and uniformly transferring the cooling temperature and ensuring that the temperature control in the glass production process is more accurate.

Description

Technical Field

[0001] The present invention relates to the technical field of vacuum glass production, and particularly to a cooling mechanism for a new type of continuous vacuum glass production equipment. Background Art

[0002] In the continuous production of vacuum glass, effective temperature control of the glass is a key link to ensure its performance and quality. Due to its excellent heat insulation and sound insulation properties, vacuum glass is widely used in fields such as construction and transportation. During the production process, the glass plate needs to be brazed at a high temperature, and the brazing temperature is usually about fifty degrees above the melting point of the solder. After brazing, the temperature of the glass is very high. Therefore, it needs to be quickly cooled in a special vacuum cooling box to solidify its form and prevent the generation of thermal stress.

[0003] In the prior art, the common design of the cooling mechanism of vacuum glass production equipment is to use traditional cooling methods, such as direct water cooling or air cooling systems. These systems often have a simple layout and directly or indirectly reduce the temperature of the glass through external cooling media. Although these systems can provide basic cooling effects in some production environments, their cooling efficiency and temperature control accuracy are often difficult to meet the higher standards of production requirements in a continuous production line.

[0004] However, these traditional cooling mechanisms have some problems. First of all, the cooling speed and cooling uniformity often cannot reach the optimum, which may cause uneven stress in the glass during the cooling process, thereby affecting the quality and durability of the product. Secondly, the cooling systems in the prior art do not respond quickly enough to the rapid temperature adjustment after high temperature and cannot effectively control the temperature gradient during the cooling process, which is crucial for ensuring the structural integrity of the glass and its subsequent performance. Therefore, a cooling mechanism that can provide more efficient, more uniform and controllable cooling is needed to optimize the continuous production process of vacuum glass. Summary of the Invention

[0005] Aiming at the deficiencies of the prior art, the present invention provides a cooling mechanism for a new type of continuous vacuum glass production equipment, which solves the problem that the cooling system in the prior art does not respond quickly enough to the rapid temperature adjustment after high temperature and cannot effectively control the temperature gradient during the cooling process.

[0006] To achieve the above object, the present invention is realized by the following technical solutions: A cooling mechanism of a new type of continuous production equipment for vacuum glass, including a box body and an upper cooling plate guide plate. Inside the box body, there is a lower cooling plate. The upper surface of the lower cooling plate is fixedly connected with an upper cooling plate. Inside the upper cooling plate, there is an upper pressure roller. On one side of the outer wall of the lower cooling plate, there is a lower conveying roller. The upper surface of the upper cooling plate guide plate is fixedly connected with an upper cover plate. The upper surface of the upper cover plate is fixedly connected with a cover plate exhaust pipe. Below the lower cooling plate, there is a cylinder assembly. On one side of the outer wall of the cylinder assembly, there is a first coupling. The upper surface of the first coupling is fixedly connected with an upper cooling lifting lead screw. Inside the lower cooling plate, there is a second coupling. The outer wall of the second coupling is fixedly connected with a synchronous pulley. The outer wall of the synchronous pulley is provided with a synchronous belt.

[0007] Preferably, the upper surface of the upper cooling plate is fixedly connected with upper cold plate heat-conducting silica gel, and the upper surface of the upper cooling plate is fixedly connected with an upper cold plate connecting rod.

[0008] Preferably, the lower surface of the upper cooling plate is fixedly connected with an upper cold plate guide shaft. On one side of the outer wall of the upper cooling plate, there is a nut fixedly connected inside the upper cold plate guide shaft. Inside the nut, there is an upper cold plate lifting lead screw.

[0009] Preferably, the upper cooling plate is internally provided with a water inlet and a water outlet.

[0010] Preferably, a cooling bottom plate is fixedly connected inside the upper cooling plate, and a cooling water pipe is fixedly connected to the lower surface of the nut.

[0011] Preferably, the upper surface of the lower cooling plate is fixedly connected with a lower cold plate cover plate. The upper surface of the lower cold plate cover plate is fixedly connected with a lower cold plate support plate. On one side of the outer wall of the lower cold plate support plate, there is a lower cold plate connecting plate.

[0012] Preferably, on one side of the outer wall of the upper pressure roller, there is a second pedestal bearing. On one side of the outer wall of the second pedestal bearing, there is a linear guide rail sliding seat. On one side of the outer wall of the linear guide rail sliding seat, there is a linear guide rail. On one side of the outer wall of the upper pressure roller, there is a second upper roller fixing plate.

[0013] Preferably, on one side of the outer wall of the second upper roller fixing plate, there is a guide rail fixing seat. The outer wall of the guide rail fixing seat is fixedly connected with an upper roller lifting nut.

[0014] Preferably, a lifting lead screw of the upper roller is fixedly connected to an outer wall of a lifting nut of the upper roller. A first upper roller fixing plate is fixedly connected to one side of an outer wall of the upper pressing roller. A first pedestal bearing is fixedly connected to an upper surface of the lifting lead screw of the upper roller. A screw rod fixing frame is fixedly connected to one side of an outer wall of the first pedestal bearing.

[0015] Preferably, a connecting plate is fixedly connected to an upper surface of the cylinder assembly. A cylinder sealing adapter rod is fixedly connected to an upper surface of the connecting plate. A cylinder seal is fixedly connected to an upper surface of the cylinder sealing adapter rod. A box body bottom plate is fixedly connected to an upper surface of the cylinder seal. An O-ring is fixedly connected to a lower surface of the box body bottom plate. A linear bearing is fixedly connected to an upper surface of the box body bottom plate. A T-shaped rod is fixedly connected to an upper surface of the linear bearing. An output end of the cylinder assembly is fixedly connected to a corrugated pipe. A cylinder sealing plate is fixedly connected to an outer wall of the corrugated pipe. A cylinder sealing ejector rod is fixedly connected to an inside of the cylinder sealing plate.

[0016] Working principle: There are four identical boxes in the cooling section. The conveyor rollers are arranged in the box and driven by the motor through the synchronous belt and synchronous pulley. The upper cooling plate is driven by the motor and can be adjusted up and down through the upper cooling screw and the upper cooling guide. The lower cooling plate is adjusted up and down by the cylinder assembly. The upper pressure roller is installed in the box. When working, the upper and lower cooling plates are close to the upper and lower surfaces of the vacuum glass. The upper pressure roller presses the vacuum glass. It is continuously cooled by four identical boxes to reach the predetermined temperature. There are 12 cooling plates in total, and each two cooling plates form a group, with a total of four groups, with an effective cooling area of ​​2553×1490. Each group consists of two cooling plates that are fixed together with connecting rods and screws. The lifting and lowering of each group of upper cooling plates is driven by two motors, and the upper cooling plates can be adjusted up and down through the upper cooling screw and the nut. The linear bearing is fixed on the bottom plate of the box, and the four upper guide shafts cooperate with the linear bearings to play a guiding role. In order to better show the direction of the cooling water flow, the left cooling plate hides the thermal conductive rubber plate and the cooling cover plate. The figure shows that the inlet water is introduced by the cooling water pipe, flows directly to the rightmost end of the cooling plate into the inner groove of the cooling plate, and flows out from the left end along the inner groove of the cooling plate. The entire cooling plate is cooled by water. In terms of manufacturing process, after the cooling water pipe is installed in the inner groove of the plate, the cooling bottom plate and the cooling cover plate are welded as one, and a thermal conductive rubber plate is attached on it. The hole above the cooling plate is to avoid the transmission wheel to prevent interference. There are 12 cooling plates in total, and each two cooling plates form a group, with a total of four groups, with an effective cooling area of ​​2553×1490. Each group consists of two cooling plate support plates and adapter plates that are firmly integrated with screws. The structure of the lower cooling plate assembly is exactly the same as that of the upper cooling plate assembly. The difference is that the lower cooling plate assembly is adjusted up and down with a cylinder assembly. The assembly consists of a cylinder seal, a connecting rod, a connecting plate, and an F-SA8 IJ-80×50-30S adjustable stroke cylinder. The cylinder seal has a lifting stroke of 30mm. The cylinder seal includes a push rod, a sealing plate, and a bellows as one piece. An O-ring is installed on the cylinder seal. When the cylinder shaft is extended, the push rod rises upward and the bellows is stretched. The lifting mechanism or positioning mechanism rises accordingly. When the cylinder shaft is contracted, the bellows is compressed and the push rod falls downward. The lifting mechanism or positioning mechanism falls accordingly. The cylinder assembly is close to the bottom plate of the box and is sealed by an O-ring. The guide rail fixing seats are installed on both sides of the box body, close to the inner wall. The HGH25CCW linear guide is installed on the guide rail fixing seat, the guide rail fixing plate is fixed with the HGW25CC linear guide slide, the upper pressure roller and the seat bearing are installed on the upper roller fixing plate, the upper pressure roller is installed between the upper roller fixing plates, and the lifting screw nut is also installed on the upper roller guide fixing plate. The lifting screw rod is driven by the bottom motor to drive the screw nut, the upper roller fixing plate and the upper roller to move up and down along the HGH25CCW linear guide rail. Thereby pressing the workpiece.

[0017] The present invention provides a novel cooling mechanism for vacuum glass continuous production equipment. It has the following beneficial effects:

[0018] 1. Through the provision of the upper cooling plate and the lower cooling plate, as well as the use of the thermal conductive silica gel on the upper cold plate, the cooling efficiency of the equipment can be improved. This design helps to transfer the cooling temperature quickly and evenly, ensuring more precise temperature control during the glass production process.

[0019] 2. Through the design of the upper pressing roller and the related lifting device, the present invention can provide stable pressure control, which is crucial for maintaining the flatness and quality of the glass plate. At the same time, through the provision of the cooling water pipe and the cooling bottom plate, more precise control of the water temperature and water flow in the cooling area can be achieved.

[0020] 3. The present invention adopts the design of synchronous belt pulleys and synchronous belts, which can reduce mechanical wear and improve transmission efficiency. The design of the cylinder assembly and the bellows also increases the sealing performance and durability of the entire system, reducing maintenance costs and potential downtime.

[0021] 4. The design of each component of the present invention, such as the lead screw nut, guide rail slider, and linear guide rail, supports quick replacement and repair, making the entire equipment easier to maintain and upgrade. This modular design also facilitates adjustment according to needs during the production process.

[0022] 5. The use of the cylinder sealing adapter rod and the cylinder seal in the present invention can ensure operation safety in high-pressure and high-temperature environments. This is particularly important for handling fragile or high-value glass products.

[0023] In summary, as a whole, it provides an efficient, stable, and reliable cooling solution for the continuous production of vacuum glass, making the production process more efficient and the product quality more controllable. BRIEF DESCRIPTION OF THE DRAWINGS

[0024] Figure 1 is a longitudinal sectional view of the cooling chamber of the present invention;

[0025] Figure 2 is a transverse sectional view of the cooling chamber of the present invention;

[0026] Figure 3 is a schematic structural view of the cylinder assembly of the present invention;

[0027] Figure 4 is a structural diagram of the upper cooling plate assembly of the present invention;

[0028] Figure 5 is a structural diagram of the cooling plate of the present invention;

[0029] Figure 6 is a right view of the structural diagram of the cooling plate of the present invention;

[0030] Figure 7 is a schematic structural view of the lower cooling plate assembly of the present invention;

[0031] Figure 8 Schematic diagram of the cooling upper pressure roller assembly of the present invention.

[0032] Among them, 1. Lower cooling plate; 2. Lower conveying roller; 3. Upper pressure roller; 4. Upper cooling plate; 5. Upper cooling plate guide plate; 6. Cover exhaust pipe; 7. Upper cover; 8. Upper cooling lifting screw rod; 9. First coupling; 10. Cylinder assembly; 11. Synchronous belt; 12. Synchronous belt pulley; 13. Second coupling; 14. Upper cold plate heat-conducting silica gel; 15. Upper cold plate connecting rod; 16. Water inlet; 17. Upper cold plate guide shaft; 18. Water outlet; 19. Nut; 20. Upper cold plate lifting screw rod; 21. Lower cold plate cover; 22. Lower cold plate support plate; 23. Lower cold plate connecting plate; 24. First upper roller fixing plate; 25. Guide rail fixing seat; 26. Upper roller lifting nut; 27. Upper roller lifting screw rod; 28. Second upper roller fixing plate; 29. First pedestal bearing; 30. Screw rod fixing frame; 31. Linear guide rail; 32. Linear guide rail slider; 33. Cooling water pipe; 34. Cooling bottom plate; 35. Box body; 36. Second pedestal bearing; 37. Connecting plate; 38. Cylinder seal adapter rod; 39. O-ring; 40. Box body bottom plate; 41. Linear bearing; 42. T-shaped rod; 43. Cylinder seal; 44. Bellows; 45. Cylinder seal plate; 46. Cylinder seal ejector rod. Specific embodiments

[0033] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without making creative efforts belong to the scope of protection of the present invention.

[0034] Embodiment:

[0035] Please refer to the attached Figure 1 - attached Figure 2 , the embodiment of the present invention provides a cooling mechanism for a new type of continuous vacuum glass production equipment, including a box body 35 and an upper cooling plate guide plate 5. A lower cooling plate 1 is arranged inside the box body 35. The upper surface of the lower cooling plate 1 is fixedly connected with an upper cooling plate 4. An upper pressure roller 3 is arranged inside the upper cooling plate 4. A lower conveying roller 2 is arranged on one side of the outer wall of the lower cooling plate 1. The upper surface of the upper cooling plate guide plate 5 is fixedly connected with an upper cover 7. The upper surface of the upper cover 7 is fixedly connected with a cover exhaust pipe 6. A cylinder assembly 10 is arranged below the lower cooling plate 1. A first coupling 9 is arranged on one side of the outer wall of the cylinder assembly 10. The upper surface of the first coupling 9 is fixedly connected with an upper cooling lifting screw rod 8. A second coupling 13 is fixedly connected inside the lower cooling plate 1. A synchronous belt pulley 12 is fixedly connected to the outer wall of the second coupling 13. A synchronous belt 11 is arranged on the outer wall of the synchronous belt pulley 12.

[0036] Refer to Figure 4 Figure 4 , a thermally conductive silicone rubber 14 for the upper cold plate is fixedly connected to the upper surface of the upper cooling plate 4, a connecting rod 15 for the upper cold plate is fixedly connected to the upper surface of the upper cooling plate 4, a guiding shaft 17 for the upper cold plate is fixedly connected to the lower surface of the upper cooling plate 4, a nut 19 is fixedly connected to the inside of the guiding shaft 17 on one side of the outer wall of the upper cooling plate 4, and a lifting screw rod 20 for the upper cold plate is fixedly connected to the inside of the nut 19;

[0037] The driving mechanism of the upper cooling plate 4 is also controlled by a motor. Through the upper cooling screw rod and the guiding system, precise vertical adjustment of the upper cooling plate is achieved. This adjustment ability is crucial for adapting to glass of different thicknesses or adjusting the position of the cooling plate according to specific cooling requirements. The lower cooling plate 1 moves up and down through a cylinder assembly. This mechanism allows precise control of the position of the lower cooling plate to ensure that the alignment and pressure distribution with the upper cooling plate are always uniform. An upper pressing roller 3 is also installed in the box body 35. During operation, these pressing rollers apply uniform pressure to the vacuum glass to ensure that the upper and lower cooling plates are in close contact with the upper and lower surfaces of the vacuum glass. Such contact is the key to effective cooling because it ensures that heat can be evenly transferred from the glass to the cooling plate and quickly removed through the cooling system. Through the continuous action of four identical box bodies 35, the vacuum glass is gradually cooled to a predetermined temperature. The precise control and adjustment mechanisms of each box body are important factors in ensuring the quality of the final product. Regarding the component structure of the upper cooling plate 4, each component includes 12 cooling plates, which are divided into four groups. Two cooling plates in each group are firmly connected together by a connecting rod and screws. This structural design not only enhances the overall stability but also ensures extensive and uniform heat transfer through the effective cooling area (2553×1490 mm). The lifting of each group of upper cooling plates is driven by two motors and controlled by the upper cooling screw rod and the nut 19, making the position adjustment of the upper cooling plate precise and flexible. The linear bearing 41 is fixed on the bottom plate of the box body 35 and cooperates with the four upper guiding shafts to play a guiding role, ensuring the smooth operation and high efficiency of the entire lifting system.

[0038] Refer to Figures 5 - 6 Figures 5 - 6 , a water inlet 16 is provided inside the upper cooling plate 4, a water outlet 18 is provided inside the upper cooling plate 4, a cooling bottom plate 34 is fixedly connected to the inside of the upper cooling plate 4, and a cooling water pipe 33 is fixedly connected to the lower surface of the nut 19;

[0039] A cover plate 21 for the lower cold plate is fixedly connected to the upper surface of the lower cooling plate 1, a support plate 22 for the lower cold plate is fixedly connected to the upper surface of the cover plate 21 for the lower cold plate, a connecting plate 23 for the lower cold plate is provided on one side of the outer wall of the support plate 22 for the lower cold plate, and a second pedestal bearing 36 is fixedly connected to one side of the outer wall of the upper pressing roller 3;

[0040] There are a total of 12 cooling plates, which are paired in groups of two to form four independent cooling units. The cooling plates in each group are fixed through a support plate and a transfer plate structure and reinforced with screws to ensure the structural firmness and cooling efficiency. This design enables each group of cooling plates to operate as an independent functional unit, improving the reliability of the system and the convenience of maintenance. The effective cooling area of each group of cooling plates reaches 2553×1490 mm, which provides sufficient cooling area to meet the high-efficiency heat dissipation requirements during continuous production. This large-area cooling design helps to quickly reduce the temperature of the glass plate at high temperatures, prevent the generation of thermal stress, and thus ensure the quality and performance of the final product. Structurally, the lower cooling plate 1 and the upper cooling plate 4 have exactly the same structural design. This symmetrical design simplifies the production and assembly process and also facilitates future maintenance work. The difference is that the lower cooling plate assembly uses a cylinder assembly for precise up and down adjustment. This adjustment mechanism allows for precise control of the position of the cooling plate, thereby adjusting the cooling intensity and range according to different production requirements and enhancing the adaptability and flexibility of the equipment.

[0041] Refer to Figures 7 - 8 , on one side of the outer wall of the second pedestal bearing 36, there is a linear guide rail slider 32. On one side of the outer wall of the linear guide rail slider 32, a linear guide rail 31 is fixedly connected. On one side of the outer wall of the upper pressure roller 3, a second upper roller fixing plate 28 is fixedly connected. On one side of the outer wall of the second upper roller fixing plate 28, a guide rail fixing seat 25 is fixedly connected. On the outer wall of the guide rail fixing seat 25, an upper roller lifting nut 26 is fixedly connected. On the outer wall of the upper roller lifting nut 26, an upper roller lifting screw rod 27 is fixedly connected. On one side of the outer wall of the upper pressure roller 3, a first upper roller fixing plate 24 is fixedly connected. On the upper surface of the upper roller lifting screw rod 27, a first pedestal bearing 29 is fixedly connected. On one side of the outer wall of the first pedestal bearing 29, a screw rod fixing frame 30 is fixedly connected. On the upper surface of the cylinder assembly 10, a connecting plate 37 is fixedly connected;

[0042] The guide rail fixing seat 25 is designed to be installed on both sides inside the box body 35, closely attached to its inner wall. This installation method ensures the stability and precise alignment of the guide rail, thus ensuring the smooth movement and uniform pressure application of the upper pressing roller 3. The HGH25CCW linear guide rail 31 is installed on these guide rail fixing seats 25, providing a stable linear movement path for the upper pressing roller 3. The guide rail fixing plate is fastened to the slide block of the HGW25CC linear guide rail 31, and the integration of this structure strengthens the mechanical strength and durability of the entire assembly. The upper pressing roller 3 and the associated pillow block bearings are installed on the upper roller fixing plate, which enables the upper pressing roller to effectively apply uniform pressure to the workpiece. The upper pressing roller 3 is installed between the upper roller fixing plates, and this configuration allows the upper pressing roller to remain stable during the pressing process, ensuring the flatness and consistency of the glass during production. In addition, the lifting nut 19 is also installed on the upper roller guide rail fixing plate, and it interacts with the lifting screw rod driven by the bottom motor to achieve precise vertical movement. The design of this lifting system enables the nut 19, the upper roller fixing plate, and the upper pressing roller 3 installed thereon to move up and down integrally along the HGH25CCW linear guide rail 31. This movement mechanism not only provides efficient dynamic response but also ensures the precise pressing and releasing of the workpiece during production, greatly improving the operation efficiency and product quality of the vacuum glass continuous production equipment.

[0043] The upper surface of the connecting plate 37 is fixedly connected with a cylinder sealing adapter rod 38. The upper surface of the cylinder sealing adapter rod 38 is fixedly connected with a cylinder seal 43. The upper surface of the cylinder seal 43 is fixedly connected with a box body bottom plate 40. The lower surface of the box body bottom plate 40 is fixedly connected with an O-ring 39. The upper surface of the box body bottom plate 40 is fixedly connected with a linear bearing 41. The upper surface of the linear bearing 41 is fixedly connected with a T-shaped rod 42. The output end of the cylinder assembly 10 is fixedly connected with a bellows 44. The outer wall of the bellows 44 is fixedly connected with a cylinder sealing plate 45. The inside of the cylinder sealing plate 45 is fixedly connected with a cylinder sealing ejector rod 46.

[0044] This component includes a cylinder seal, a connecting rod, a connecting plate, and an adjustable stroke cylinder with a model number of F-SA8IJ-80×50-30S. The lifting stroke of the cylinder seal is 30 mm. In its design, the ejector rod, the sealing plate, and the bellows 44 are integrated into one body, ensuring sealing performance and coordinated movement. During operation, when the cylinder extends axially outward, the ejector rod moves upward while stretching the bellows 44. This upward movement causes the entire lifting mechanism or positioning mechanism to move upward accordingly, thereby adjusting the working position or state of the equipment. The design of the bellows 44 is intended to adapt to this stretching and compression, ensuring that the seal is not damaged and providing sufficient elasticity to meet the needs of movement. When the cylinder contracts axially, the bellows 44 is compressed accordingly, and the ejector rod moves downward. This downward movement causes the lifting mechanism or positioning mechanism to move downward accordingly, allowing the equipment to make adjustments or return to its original position in the opposite direction. This precise control mechanism is crucial for precise operation in continuous production equipment, effectively avoiding errors and product quality problems during the production process. In addition, the cylinder assembly is mounted closely to the bottom plate of the box body 35 and sealed using an O-ring 39. The use of the O-ring 39 further enhances the sealing performance of the entire system, preventing any external impurities from entering the interior of the mechanism, thereby ensuring the stability and reliability of the cylinder assembly and the entire equipment. This design not only optimizes the maintainability of the equipment but also improves the efficiency and safety of the production process. Although the embodiments of the present invention have been shown and described, for those of ordinary skill in the art, it can be understood that various changes, modifications, substitutions, and variations can be made to these embodiments without departing from the principles and spirit of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. Cooling mechanism of a new type of continuous production equipment for vacuum glass, comprising a box body (35) and an upper cooling plate guide plate (5), characterized in that, Inside the box body (35), a lower cooling plate (1) is provided. On the upper surface of the lower cooling plate (1), an upper cooling plate (4) is fixedly connected. Inside the upper cooling plate (4), an upper pressure roller (3) is provided. On one side of the outer wall of the lower cooling plate (1), a lower conveying roller (2) is provided. On the upper surface of the guiding plate (5) of the upper cooling plate, an upper cover plate (7) is fixedly connected. On the upper surface of the upper cover plate (7), a cover plate exhaust pipe (6) is fixedly connected. Below the lower cooling plate (1), a cylinder assembly (10) is provided. On one side of the outer wall of the cylinder assembly (10), a first coupling (9) is provided. On the upper surface of the first coupling (9), an upper cooling lifting lead screw (8) is fixedly connected. Inside the lower cooling plate (1), a second coupling (13) is fixedly connected. On the outer wall of the second coupling (13), a synchronous pulley (12) is fixedly connected. On the outer wall of the synchronous pulley (12), a synchronous belt (11) is provided.

2. The cooling mechanism of a novel continuous production equipment for vacuum glass according to claim 1, characterized in that, On the upper surface of the upper cooling plate (4), an upper cold plate heat-conducting silica gel (14) is fixedly connected. On the upper surface of the upper cooling plate (4), an upper cold plate connecting rod (15) is fixedly connected.

3. The cooling mechanism of a new type of continuous production equipment for vacuum glass according to claim 1, characterized in that, On the lower surface of the upper cooling plate (4), an upper cold plate guiding shaft (17) is fixedly connected. On one side of the outer wall of the upper cooling plate (4), an upper cold plate guiding shaft (17) is fixedly connected. Inside it, a nut (19) is fixedly connected. Inside the nut (19), an upper cold plate lifting lead screw (20) is fixedly connected.

4. The cooling mechanism of a novel continuous production equipment for vacuum glass according to claim 1, characterized in that, Inside the upper cooling plate (4), a water inlet (16) is provided. Inside the upper cooling plate (4), a water outlet (18) is provided.

5. The cooling mechanism of a new type of continuous production equipment for vacuum glass according to claim 3, characterized in that, Inside the upper cooling plate (4), a cooling bottom plate (34) is fixedly connected. On the lower surface of the nut (19), a cooling water pipe (33) is fixedly connected.

6. The cooling mechanism of a novel continuous production equipment for vacuum glass according to claim 1, characterized in that On the upper surface of the lower cooling plate (1), a lower cold plate cover plate (21) is fixedly connected. On the upper surface of the lower cold plate cover plate (21), a lower cold plate support plate (22) is fixedly connected. On one side of the outer wall of the lower cold plate support plate (22), a lower cold plate connecting plate (23) is provided.

7. The cooling mechanism of a novel continuous production equipment for vacuum glass according to claim 1, characterized in that, On one side of the outer wall of the upper pressure roller (3), a second pedestal bearing (36) is fixedly connected. On one side of the outer wall of the second pedestal bearing (36), a linear guide rail slider (32) is provided. On one side of the outer wall of the linear guide rail slider (32), a linear guide rail (31) is fixedly connected. On one side of the outer wall of the upper pressure roller (3), a second upper roller fixing plate (28) is fixedly connected.

8. The cooling mechanism of a novel continuous production equipment for vacuum glass according to claim 7, characterized in that, On one side of the outer wall of the second upper roller fixing plate (28), a guide rail fixing seat (25) is fixedly connected. On the outer wall of the guide rail fixing seat (25), an upper roller lifting nut (26) is fixedly connected.

9. The cooling mechanism of a novel continuous production equipment for vacuum glass according to claim 8, characterized in that, On the outer wall of the upper roller lifting nut (26), an upper roller lifting lead screw (27) is fixedly connected. On one side of the outer wall of the upper pressure roller (3), a first upper roller fixing plate (24) is fixedly connected. On the upper surface of the upper roller lifting lead screw (27), a first pedestal bearing (29) is fixedly connected. On one side of the outer wall of the first pedestal bearing (29), a lead screw fixing frame (30) is fixedly connected.

10. The cooling mechanism of a novel continuous production equipment for vacuum glass according to claim 1, characterized in that, The upper surface of the cylinder assembly (10) is fixedly connected with a connecting plate (37). The upper surface of the connecting plate (37) is fixedly connected with a cylinder sealing adapter rod (38). The upper surface of the cylinder sealing adapter rod (38) is fixedly connected with a cylinder seal (43). The upper surface of the cylinder seal (43) is fixedly connected with a box body bottom plate (40). The lower surface of the box body bottom plate (40) is fixedly connected with an O-ring (39). The upper surface of the box body bottom plate (40) is fixedly connected with a linear bearing (41). The upper surface of the linear bearing (41) is fixedly connected with a T-shaped rod (42). The output end of the cylinder assembly (10) is fixedly connected with a bellows (44). The outer wall of the bellows (44) is fixedly connected with a cylinder sealing plate (45). The inside of the cylinder sealing plate (45) is fixedly connected with a cylinder sealing ejector rod (46).

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