Energy-saving laminated glass production and processing equipment and processing method

Abstract

The invention relates to energy-saving laminated glass production and processing equipment and a processing method, and belongs to the technical field of energy-saving laminated glass processing. The energy-saving laminated glass production and processing equipment comprises a supporting frame and a pressurizing assembly arranged on the supporting frame; the pressurizing assembly comprises a first inclined surface part, a second inclined surface part, an elastic reset unit and a rolling guide part arranged between the first inclined surface part and the second inclined surface part, the problem that energy conservation and quality are difficult to balance in laminated glass production of a traditional electronic pressure regulating system is solved through a mechanical pressurizing structure, and the first inclined surface part bears input pressure; the inclination angle of the second inclined plane part is larger, the first inclined plane part and the second inclined plane part are matched through different elastic elements, the deformation amount of the first elastic element is large, the deformation amount of the second elastic element is small, input low pressure is amplified into high pressure to be output according to the inclined plane mechanics principle, and the design does not depend on a complex electric control system. Therefore, the problem that an electronic pressure regulating system is difficult to accurately control the pressure critical value is solved.

Description

Technical Field

[0001] The present invention belongs to the technical field of energy-saving laminated glass processing, and in particular relates to energy-saving laminated glass production and processing equipment and a processing method. Background Art

[0002] Currently, the production and processing of laminated glass generally relies on pressure control equipment to pressurize the glass laminate layers. To achieve energy-saving goals, mainstream equipment usually adopts a technical solution that combines electronic pressure sensors with adjustable hydraulic / pneumatic pressure systems. By real-time monitoring and dynamically reducing output pressure to reduce energy consumption, this electronically controlled pressure regulation method has become the main means of energy-saving transformation in the industry. Its core idea is to maintain the pressure value near the minimum threshold allowed by the process.

[0003] However, the above technology has limitations in actual use: since the quality of laminated glass is highly dependent on the uniformity of interlayer bonding and the effect of bubble removal, too low a pressure will lead to defects such as insufficient leveling of the glue layer and insufficient interface bonding strength. Although excessive pressure can ensure quality, it will seriously weaken the energy-saving effect due to the sharp increase in energy consumption of the drive system. The existing electronic control system is difficult to accurately balance the pressure critical value, resulting in an irreconcilable contradiction between energy-saving goals and quality requirements in the production process. There is an urgent need for an energy-saving laminated glass production and processing equipment and processing method that can achieve low-voltage input and high-voltage output without relying on complex electronic control. Summary of the Invention

[0004] In order to solve the problem that the existing electronic pressure regulation system cannot balance the contradiction between "energy saving" and "quality" in the production of laminated glass, that is, too low pressure will lead to insufficient leveling of the glue layer and insufficient interface bonding strength, while too high pressure will increase energy consumption and it is difficult to accurately control the critical pressure value, the present invention provides an energy-saving laminated glass production and processing equipment and processing method.

[0005] The purpose of the present invention can be achieved through the following technical solutions: The cam is adapted to move the first and second cams together to form a plurality of rolls of roll-top glass, the plurality of rolls of roll-top glass being pressurized and pressurized to form a plurality of rolls of roll-top glass.

[0006] As a further solution of the present invention, the inclination angle of the second inclined surface portion is twice the inclination angle of the first inclined surface sliding portion.

[0007] As a further solution of the present invention, the stiffness of the second elastic element is greater than the stiffness of the first elastic element.

[0008] As a further solution of the present invention, the rolling guide portion includes a rolling wheel and an elastic member sleeved on the rolling wheel, and the rolling wheel moves in a direction perpendicular to the sliding direction of the first inclined portion and the second inclined portion.

[0009] As a further solution of the present invention, the thickness of the rolling wheel is greater than the thickness of the first inclined portion and the second inclined portion, one end of the rolling wheel is in contact with the inclined portions of the first inclined portion and the second inclined portion, a limit frame is provided on the support frame, the other end of the rolling wheel is located in the limit frame, and the rolling wheel can roll back and forth along the limit frame.

[0010] As a further solution of the present invention, a guide rod is provided at the bottom of the second inclined portion, the guide rod passes through the second elastic element, a replaceable pressure head is connected to the guide rod, and the surface of the pressure head is covered with an elastic buffer layer.

[0011] A method for producing and processing energy-saving laminated glass comprises the following steps: S1: Locate the laminated glass workpiece, take the geometric center of the glass as the origin, demarcate the origin area as the central area, take the origin as the center of the circle and length A as the radius, and draw a circular area. Demarcate this area as the transition area, and demarcate the area outside the transition area as the peripheral area; S2: The energy-saving laminated glass production and processing equipment is provided with a pressurizing assembly above the central area, and a plurality of pressurizing assemblies are provided at the boundary between the circular area and the peripheral area, and the plurality of pressurizing assemblies are evenly distributed; S3: applying pressure to the first inclined portion of the pressurizing assembly, causing the first inclined portion to slide vertically along the support frame. The first inclined portion drives the rolling guide portion to match the inclination angle of the second inclined portion. The inclination angle of the rolling guide portion and the second inclined portion are matched, thereby increasing the pressure applied by the pressurizing portion to the central area. S4: Maintain the increased pressure until the adhesive layer is completely leveled, and then release the pressure to reset the pressurizing component by the elastic reset unit; S5: Repeat S3-S4 until no visible bubbles remain between the glass layers.

[0012] As a further solution of the present invention, in step S2, the pressurizing assembly above the central area and several pressurizing assemblies evenly distributed on the boundary between the circular area and the peripheral area are connected by connecting rods and move synchronously.

[0013] As a further solution of the present invention, after the pressure is released in step S4, a gas circulation system is used to form convection heat dissipation between the pressurizing part and the glass surface.

[0014] As a further solution of the present invention, the pressure applied to the first inclined surface of the plurality of pressurizing components provided on the boundary between the circular area and the peripheral area in step S2 is smaller than the pressure applied by the pressurizing component above the central area.

[0015] The beneficial effects of the present invention are: The mechanical boosting structure solves the problem that traditional electronic pressure regulating systems are difficult to balance "energy saving" and "quality" in the production of laminated glass. The device includes a support frame and a pressurizing component, wherein the pressurizing component consists of a first inclined portion, a second inclined portion, an elastic reset unit and a rolling guide portion. The first inclined portion bears the input pressure, and the second inclined portion has a larger inclination angle. The two are coordinated through different elastic elements. The first elastic element has a large deformation variable and the second elastic element has a small deformation variable. The principle of inclined plane mechanics is used to amplify the input low pressure to a high-voltage output. This design does not require reliance on a complex electronic control system, and can achieve efficient pressurization only through a mechanical structure, which not only ensures the leveling quality of the glue layer, but also reduces energy consumption, thereby solving the problem that the electronic pressure regulating system is difficult to accurately control the critical pressure value. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] To facilitate understanding by those skilled in the art, the present invention is further described below with reference to the accompanying drawings.

[0017] Figure 1 It is a schematic diagram of the overall structure of the present invention; Figure 2 This is a force analysis diagram of the pressurized component of the present invention; Figure 3 This is a schematic structural diagram of the pressurizing assembly of the present invention; Figure 4It is a schematic structural diagram of the rolling guide portion of the present invention; Figure 5 This is a regional division diagram of the energy-saving laminated glass production and processing method of the present invention; Figure 6 This is a flow chart of the production and processing method of the energy-saving laminated glass of the present invention.

[0018] Legend: 1. Support frame; 2. Pressurizing assembly; 21. First inclined portion; 22. Second inclined portion; 23. First elastic element; 24. Second elastic element; 25. Rolling guide portion; 251. Rolling wheel; 3. Guide rod; 4. Limiting frame; 5. Central area; 6. Transition area; 7. Peripheral area. DETAILED DESCRIPTION

[0019] In order to further illustrate the technical means and effects adopted by the present invention to achieve the predetermined purpose of the invention, the specific implementation methods, structures, features and effects of the present invention are described in detail below in conjunction with the accompanying drawings and preferred embodiments.

[0020] refer to Figures 1-6 The present embodiment provides an energy-saving laminated glass production and processing device, comprising a support frame 1 and a pressurizing assembly 2 arranged on the support frame 1, the pressurizing assembly 2 comprising a first inclined portion 21, a second inclined portion 22, an elastic reset unit, and a rolling guide portion 25 arranged between the first inclined portion 21 and the second inclined portion 22, the first inclined portion 21 and the second inclined portion 22 being a first inclined block and a second inclined block, respectively. Figure 1 As shown, the plane portion of the first inclined portion 21 is used to withstand the input pressure, the first inclined portion 21 and the second inclined portion 22 are slidably arranged on the support frame 1, the rolling guide portion 25 cooperates with the inclined surfaces of the first inclined portion 21 and the second inclined portion 22 respectively, the inclination angle of the second inclined portion 22 is greater than the inclination angle of the first inclined portion 21, the elastic reset unit includes a first elastic element 23 and a second elastic element 24 respectively connected to the first inclined portion 21 and the second inclined portion 22, the deformation amount of the second elastic element 24 is less than the deformation amount of the first elastic element 23, the first inclined portion 21 and the second inclined portion 22 cooperate with each other through the difference in inclination angle and the difference in elastic deformation of the first elastic element 23 and the second elastic element 24 to increase the input pressure and output it, the first elastic element 23 is a first spring, and there are two first springs, as shown in FIG. Figure 1 The second elastic element 24 is a second spring, such as Figure 1As shown in the figure, the second spring is thicker than the first spring. First, the plane part of the first inclined portion 21 is used to bear the input pressure, and the first inclined portion 21 and the second inclined portion 22 are slidably arranged on the support frame 1, so that the pressure can be easily adjusted. Secondly, the rolling guide portion 25 cooperates with the inclined surfaces of the first inclined portion 21 and the second inclined portion 22 respectively, and the inclination angle of the second inclined portion 22 is greater than the inclination angle of the first inclined portion 21. This design can effectively increase the pressure during the transmission process.

[0021] In addition, the elastic reset unit includes a first spring and a second spring connecting the first inclined portion 21 and the second inclined portion 22. There are two first springs, which are respectively arranged at Figure 1 In the position shown in , the second spring is thicker than the first spring. This design makes the deformation of the second spring smaller than that of the first spring, thereby achieving an elastic deformation difference. When the input pressure increases, the elastic deformation difference between the first and second springs will cooperate with each other to jointly increase the output to achieve the required pressure value.

[0022] One thing that needs to be explained is how to increase the input force without changing the direction so that the input pressure is increased and outputted. This needs to be considered in conjunction with force analysis. Figure 2 As shown in the force analysis diagram, a vertical force F1 is applied to the first inclined portion 21. After passing through the rolling guide portion 25 and the second inclined portion 22, F2 is output. The inclination angle of the first inclined portion 21 is e, and the inclination angle of the second inclined portion 22 is h. F2 = F1.tan(h) / tan(e). This formula is defined here as the principle of inclined plane mechanics. If e=30 degrees and h=60 degrees, F2=3F1, and the force is amplified by 3 times. If h is smaller and e is larger, f2 can be much larger than f1. For example, if e=15 degrees and h=75 degrees, F2=14F1. The formula here can be determined based on the specific size, model, interlayer condition, and other actual conditions of the energy-saving laminated glass to be produced.

[0023] Existing electronic pressure-regulating systems are unable to balance energy conservation and quality in laminated glass production. Excessively low pressure can lead to inadequate adhesive layer leveling and insufficient interfacial bonding strength, while excessive pressure increases energy consumption and makes it difficult to precisely control the critical pressure value. To address this issue, in this embodiment, a mechanical pressure-boosting structure is employed to address the difficulty of balancing energy conservation and quality in laminated glass production with conventional electronic pressure-regulating systems. The device comprises a support frame 1 and a pressure-applying assembly 2, which comprises a first inclined portion 21, a second inclined portion 22, an elastic return unit, and a rolling guide 25. The first inclined portion 21 withstands the input pressure, while the second inclined portion 22 has a larger inclination angle. Both portions are coupled via different elastic elements, with the first elastic element 23 exhibiting a large deformation and the second elastic element 24 exhibiting a small deformation. The principle of inclined plane mechanics is employed to amplify the low input pressure to a high output pressure. This design eliminates the need for a complex electronic control system and achieves efficient pressure boosting solely through mechanical means, ensuring adhesive layer leveling quality while reducing energy consumption. This resolves the difficulty of electronic pressure-regulating systems in precisely controlling the critical pressure value.

[0024] Since the pressure amplification effect is limited by the design of the inclined plane angle, if the angle difference is too small, the boost will be insufficient; if it is too large, it may cause structural instability. In order to solve this problem, in one embodiment, the inclined plane angle of the second inclined plane portion 22 is twice the inclined plane angle of the first inclined plane sliding portion. According to the inclined plane mechanics formula F2 = F1.tan(h) / tan(e), when h = 2e, the pressure amplification factor is significantly improved, F2=3F1.

[0025] If the difference between the inclination angles of the second bevel portion 22 and the first bevel portion 21 is too small, such as h = e + 10°, the pressure amplification factor is only 1.33 times according to the inclined plane mechanics formula, which cannot meet the leveling requirements of the adhesive layer. If h is too large, such as h>75°, the rolling guide portion 25 is likely to get stuck with the bevel portion, increasing the failure rate. Therefore, when h = 2e, the amplification factor is increased to 3 times to solve the problem of insufficient boost under low pressure input. This design optimizes the pressure amplification efficiency, ensuring that sufficiently high pressure can still be output under low input pressure, while avoiding structural jamming or increased wear due to excessive angles.

[0026] In order to stabilize the pressure output, in one embodiment, the stiffness of the second elastic element 24 is greater than that of the first elastic element 23. If the stiffness of the second elastic element 24 is insufficient, its excessive deformation will weaken the pressure transmission and cause pressure fluctuations. If the stiffness of the first elastic element 23 is too high, the reset time will be prolonged, affecting the processing efficiency. The stiffness of the second elastic element 24 is set to be greater than that of the first elastic element 23, so that it can be reset quickly and the fluctuation of the output pressure can be reduced. In addition, in order to optimize the force transmission and reset process, the greater stiffness makes the second elastic element 24 deform less when subjected to force, thereby more stably transmitting the amplified pressure, while ensuring that it can quickly restore to the initial state when reset.

[0027] It is worth mentioning that, due to the difference in inclination angles between the first inclined portion 21 and the second inclined portion 22, in order to reduce energy loss in this case, achieve energy saving and improve the unidirectionality and stability of pressure transmission, in one embodiment, the rolling guide portion 25 includes a rolling wheel 251 and an elastic member sleeved on the rolling wheel 251. The rolling wheel 251 moves in a direction perpendicular to the sliding of the first inclined portion 21 and the second inclined portion 22. The elastic member can be a rubber ring. A guide groove is provided on the rolling wheel 251. The rubber ring is arranged in the guide groove. Rolling friction replaces sliding friction. When the rolling wheel 251 moves in a direction perpendicular to the inclined surface, it can reduce energy loss with the help of the elastic deformation and rolling friction of the rubber ring, while providing sufficient friction to prevent reverse sliding. This design not only improves the unidirectionality and stability of pressure transmission, but also ensures the movement efficiency and reliability of the mechanism. By replacing sliding friction with rolling friction, the friction coefficient can be reduced, wear can be reduced, and the service life of the mechanism can be extended.

[0028] In order to balance the contradiction between energy saving and quality in the production process of laminated glass, the design of the rolling wheel 251 is used to balance the contradiction between energy saving and quality. In actual operation, if the rolling wheel 251 is offset, it will cause pressure direction deviation and increase the bubble residual rate. In order to avoid these problems, in one embodiment, the thickness of the rolling wheel 251 is greater than the thickness of the first inclined portion 21 and the second inclined portion 22, one end of the rolling wheel 251 is in contact with the inclined surface of the first inclined portion 21 and the second inclined portion 22, a limit frame 4 is provided on the support frame 1, the other end of the rolling wheel 251 is located in the limit frame 4, and the rolling wheel 251 can roll back and forth along the limit frame 4, the thickness of the rolling wheel 251 is greater than the thickness of the first inclined portion 21 and the second inclined portion 22, the limit frame 4 constrains lateral displacement, reduces pressure direction error, and such a design can make the rolling wheel 251 The wheel 251 forms good contact with the glass surface under the action of pressure, which helps to level the glue layer and improve the interface bonding strength. At the same time, the other end of the rolling wheel 251 is located in the limit frame 4, and the rolling wheel 251 can roll back and forth along the limit frame 4. This design can make the pressure act accurately on the glass surface while maintaining energy saving, avoiding increased energy consumption due to excessive pressure. Therefore, the design of this embodiment can effectively solve the contradiction between energy saving and quality in the production process of laminated glass, and improve production efficiency and quality. In addition, the limit frame 4 is provided to constrain the movement range of the rolling wheel 251. This design enhances the structural strength and stability of the rolling guide part 25, and prevents deformation or failure due to excessive force. At the same time, the limit frame 4 ensures the accurate movement trajectory of the rolling wheel 251, avoiding deviation during the pressure transmission process.

[0029] One point that needs to be supplemented is that, in the production process of laminated glass, the design of the rolling wheel 251 can effectively balance the contradiction between energy saving and quality. The design of the rolling wheel 251 can make the glass evenly heated and cooled during the heating and cooling process, thereby reducing heat loss, improving energy utilization efficiency, and achieving the purpose of energy saving. At the same time, the rolling wheel 251 can also make the glass surface smoother, reduce bubbles and impurities, and improve product quality. Therefore, the design of the rolling wheel 251 plays a role in balancing the contradiction between energy saving and quality in the production of laminated glass.

[0030] In order to effectively balance the pressure and prevent the problems of insufficient leveling of the adhesive layer and insufficient interface bonding strength caused by too little pressure, and to avoid excessive pressure increasing energy consumption, in one embodiment, a guide rod 3 is provided at the bottom of the second inclined portion 22, and the guide rod 3 passes through the second elastic element 24. A replaceable pressure head is connected to the guide rod 3. In order to make this device adaptable to more glass thicknesses and have stronger adaptability, a replaceable pressure head is designed, and the surface of the pressure head is covered with an elastic buffer layer. The guide rod 3 ensures the linearity of the pressure transmission, and the replaceable pressure head and the elastic buffer layer can adapt to different glass thicknesses and In order to meet the material requirements and avoid wear of the pressure head or damage to the glass surface, the guide rod 3 at the bottom of the second inclined portion 22 is designed so that the guide rod 3 can pass through the second elastic element 24, and a replaceable pressure head is connected to the guide rod 3. The surface of the pressure head is covered with an elastic buffer layer. The design of the elastic buffer layer can effectively absorb pressure and make the pressure more uniform, avoiding the problems of increased energy consumption and decreased product quality caused by pressure concentration. At the same time, the setting of the replaceable pressure head can replace pressure heads of different shapes and sizes according to production needs, making pressure control more precise and further improving product quality.

[0031] A method for producing and processing energy-saving laminated glass comprises the following steps: S1: Because the central area 5 of the glass is prone to residual bubbles, higher pressure is required to promote the leveling of the adhesive layer. Excessive pressure in the edge area can cause the glass to warp or break. The zoned pressurization design ensures a gradient distribution of high pressure in the center and low pressure at the edge. Therefore, the laminated glass workpiece is positioned, and the geometric center of the glass is used as the origin. The origin area is defined as the central area 5. A circular area is drawn with the origin as the center and length A as the radius. This area is defined as the transition area 6. The area outside the transition area 6 is defined as the peripheral area 7. S2: The energy-saving laminated glass production and processing equipment has a pressurizing assembly 2 disposed above the central area 5, and a plurality of pressurizing assemblies 2 disposed at the boundary between the circular area and the peripheral area 7, with the pressurizing assemblies 2 being evenly distributed; S3: Apply pressure to the first inclined portion 21 of the pressurizing assembly 2. The first inclined portion 21 slides vertically along the support frame 1. The first inclined portion 21 drives the rolling guide portion 25 to match the inclination angle of the second inclined portion 22. The inclination angle of the rolling guide portion 25 matches the inclination angle of the second inclined portion 22, thereby increasing the pressure applied by the pressurizing portion to the central area 5. S4: Maintain the increased pressure until the adhesive layer is completely leveled. After the applied pressure is released, the elastic reset unit resets the pressurizing component 2. The mechanical supercharging structure here amplifies the input low pressure to high pressure, avoiding the traditional electronic control system's continuous energy consumption to maintain high pressure. Cyclic supercharging only requires intermittent input of low pressure, significantly reducing energy consumption and complying with energy-saving laminated glass production and processing. S5: Repeat S3-S4 until no visible bubbles remain between the glass layers, and repeat pressurization until no visible bubbles are left. Use the high pressure after pressurization to penetrate the tiny gaps in the glue layer to completely eliminate bubbles, solving the problem of residual bubbles caused by insufficient pressure in traditional processes. Here, the glass is divided into a central area 5, a transition area 6, and a peripheral area 7. A pressurizing component 2 is arranged directly above the central area 5, and multiple pressurizing components 2 are evenly distributed at the boundary between the transition area 6 and the peripheral area 7. A higher pressure is applied to the central area 5 through a mechanical supercharging structure, and the pressurization is cyclically increased until the bubbles are completely eliminated.

[0032] If the pressure is not synchronized when the glass is laid, it will cause local stress concentration or shear deformation of the glue layer. In order to avoid local stress concentration or shear deformation of the glue layer, in one embodiment, the pressure component 2 above the central area 5 of step S2 and several pressure components 2 evenly distributed on the boundary between the circular area and the peripheral area 7 are connected by connecting rods and move synchronously. The pressure components 2 in the central area 5 and the boundary area are rigidly connected by connecting rods to achieve synchronous movement of all components. The synchronous design ensures that the pressure is evenly diffused from the center to the edge, avoiding cracks in the glass due to uneven force. The connecting rods force all pressure heads to contact the glass surface at the same time, preventing the glue layer flow disorder caused by the lag of a single component, and ensuring the consistency of interface bonding strength.

[0033] To prevent thermal rebound of the adhesive layer, in one embodiment, after the pressure is released in step S4, a gas circulation system is used to generate convection heat dissipation between the pressurizing unit and the glass surface. During high pressure, the adhesive layer heats up, and sudden pressure release can cause the adhesive to rebound and form microbubbles. This immediate heat dissipation rapidly solidifies the adhesive layer, locking in the pressurized state. Traditional natural cooling takes a long time, while convection heat dissipation accelerates the temperature drop, allowing the equipment to enter the next cycle more quickly and improving production capacity.

[0034] In order to better avoid edge stress overload, in one embodiment, the pressure applied when the first inclined surface 21 of the plurality of pressurizing components 2 set on the boundary between the circular area and the peripheral area 7 in step S2 is less than the pressure applied by the pressurizing component 2 above the central area 5. The edge structure of the glass is fragile. If the same amplified pressure as that of the center is applied, it is easy to cause edge collapse. Reducing the input pressure can make the output pressure adapt to the edge bearing limit. Since excessive pressure will weaken the energy-saving effect, only a smaller pressure is required at the edge to complete the leveling of the glue layer. Reducing the input pressure directly reduces energy consumption without affecting quality, thereby optimizing energy saving.

[0035] The working principle and workflow of the present invention: The present invention realizes mechanical pressure amplification based on the principle of inclined plane mechanics. When external pressure acts on the first inclined surface 21 of the pressurizing component 2, it slides vertically along the support frame 1, driving the rolling guide portion 25 to cooperate with the inclined surface of the second inclined surface 22. Because the inclination angle of the second inclined surface is greater than that of the first inclined surface, combined with the characteristics of the elastic reset unit, the first elastic element 23 has a large deformation and low stiffness, while the second elastic element 24 has a small deformation and high stiffness. The input pressure is amplified and output through the difference in inclination angle and elastic deformation. The rolling guide portion 25 uses a rolling wheel 251 combined with an elastic member to reduce energy consumption and ensure unidirectional pressure transmission through rolling friction. Finally, the guide rod 3 at the bottom of the second inclined surface 22 and the pressure head accurately apply the amplified high pressure to the glass surface, without relying on an electronic control system, and a balance can be achieved between energy saving and quality. Taking the geometric center of the glass as the origin, the central area 5, the transition area 6 and the peripheral area 7 are delineated. A pressurizing component 2 is arranged directly above the central area 5, and multiple pressurizing components 2 are evenly distributed at the boundary between the transition area and the peripheral area. Synchronous movement is achieved through a connecting rod, and pressure is applied to the first inclined portion 21 of each pressurizing component 2. The input pressure at the edge is lower than that at the center, driving the rolling guide portion 25 to cooperate with the second inclined portion 22 to obtain amplified high pressure in the central area 5; the high pressure is maintained until the glue layer is completely leveled, and after the pressure is released, the elastic reset unit resets the component, and at the same time, the gas circulation system is started to force heat dissipation on the glass surface; low-pressure input and high-pressure output are achieved through a mechanical structure throughout the process, and the quality of the glue layer and energy consumption control are simultaneously guaranteed. The above description is merely a preferred embodiment of the present invention and does not constitute any form of limitation to the present invention. Although the present invention has been disclosed as above in terms of a preferred embodiment, it is not intended to limit the present invention. Any person skilled in the art can, without departing from the scope of the technical solution of the present invention, make some changes or modifications to equivalent embodiments using the technical contents disclosed above. However, any brief modifications, equivalent changes and modifications made to the above embodiments based on the technical essence of the present invention without departing from the content of the technical solution of the present invention are still within the scope of the technical solution of the present invention.

Claims

1. An energy-saving laminated glass production and processing equipment, characterized in that: The invention comprises a support frame and a pressurizing assembly arranged on the support frame, wherein the pressurizing assembly comprises a first inclined portion, a second inclined portion, an elastic reset unit and a rolling guide portion arranged between the first inclined portion and the second inclined portion; The planar portion of the first inclined portion is used to withstand the input pressure, the first inclined portion and the second inclined portion are slidably arranged on the support frame, the rolling guide portion cooperates with the inclined surfaces of the first inclined portion and the second inclined portion respectively, the inclination angle of the second inclined portion is greater than the inclination angle of the first inclined portion, the elastic reset unit includes a first elastic element and a second elastic element respectively connected to the first inclined portion and the second inclined portion, the deformation of the second elastic element is smaller than the deformation of the first elastic element, the first inclined portion and the second inclined portion cooperate with each other through the inclination angle difference and the elastic deformation difference of the first elastic element and the second elastic element to boost the input pressure and output it.

2. The energy-saving laminated glass production and processing equipment according to claim 1, characterized in that: The inclination angle of the second inclined surface portion is twice the inclination angle of the first inclined surface sliding portion.

3. The energy-saving laminated glass production and processing equipment according to claim 1, characterized in that: The second elastic element has a stiffness greater than that of the first elastic element.

4. The energy-saving laminated glass production and processing equipment according to claim 1, characterized in that: The rolling guide portion includes a rolling wheel and an elastic member sleeved on the rolling wheel. The rolling wheel moves along a direction perpendicular to the sliding direction of the first inclined portion and the second inclined portion.

5. The energy-saving laminated glass production and processing equipment according to claim 4, characterized in that: The thickness of the scrolling wheel is greater than the thickness of the first inclined portion and the second inclined portion, one end of the scrolling wheel is in contact with the inclined portions of the first inclined portion and the second inclined portion, a limit frame is provided on the support frame, the other end of the scrolling wheel is located in the limit frame, and the scrolling wheel can roll back and forth along the limit frame.

6. The energy-saving laminated glass production and processing equipment according to claim 1, characterized in that: A guide rod is provided at the bottom of the second inclined portion, and the guide rod passes through the second elastic element. A replaceable pressure head is connected to the guide rod, and the surface of the pressure head is covered with an elastic buffer layer.

7. A method for producing and processing energy-saving laminated glass, based on the energy-saving laminated glass production and processing equipment according to any one of claims 1 to 6, characterized in that: The following steps are involved: S1: Locate the laminated glass workpiece, take the geometric center of the glass as the origin, demarcate the origin area as the central area, take the origin as the center of the circle and length A as the radius, and draw a circular area. Demarcate this area as the transition area, and demarcate the area outside the transition area as the peripheral area; S2: The energy-saving laminated glass production and processing equipment is provided with a pressurizing assembly above the central area, and a plurality of pressurizing assemblies are provided at the boundary between the circular area and the peripheral area, and the plurality of pressurizing assemblies are evenly distributed; S3: applying pressure to the first inclined portion of the pressurizing assembly, causing the first inclined portion to slide vertically along the support frame. The first inclined portion drives the rolling guide portion to match the inclination angle of the second inclined portion. The inclination angle of the rolling guide portion and the second inclined portion are matched, thereby increasing the pressure applied by the pressurizing portion to the central area. S4: Maintain the increased pressure until the adhesive layer is completely leveled, and then release the pressure to reset the pressurizing component by the elastic reset unit; S5: Repeat S3-S4 until no visible bubbles remain between the glass layers.

8. The method for producing and processing energy-saving laminated glass according to claim 7, characterized in that: In step S2, the pressurizing assembly above the central area and several pressurizing assemblies evenly distributed on the boundaries between the circular area and the peripheral area are connected by connecting rods and move synchronously.

9. The method for producing and processing energy-saving laminated glass according to claim 7, characterized in that: After the pressure is released in step S4, a gas circulation system is used to form convection heat dissipation between the pressurizing part and the glass surface.

10. The method for producing and processing energy-saving laminated glass according to claim 8, characterized in that: The pressure applied to the first inclined surface of the plurality of pressurizing components provided on the boundary between the circular area and the peripheral area in step S2 is smaller than the pressure applied by the pressurizing component above the central area.

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