An energy-saving double-layer hollow glass sheet fusion bonding production equipment

Abstract

This invention relates to the field of glass plate welding technology, and more particularly to an energy-saving production equipment for fusing and bonding double-layer hollow glass plates. The technical solution includes: an equipment base on which an equipment frame is mounted, with outer shells at both ends of the equipment frame; a welding assembly disposed within the equipment frame; a drive assembly mounted on the equipment frame; an adjustment assembly disposed on the equipment frame; a transmission assembly disposed within the outer shells; a second pushing assembly disposed within the outer shells and cooperating with the transmission assembly; a moving assembly connected to the second pushing assembly; a clamping assembly mounted on the moving assembly; and a first pushing assembly. This invention simultaneously achieves the lifting and lowering of the welding assembly, the vertical clamping of the clamping assembly, and the horizontal pushing action through a single drive assembly. It features a compact structure, strong linkage, and effectively improves the welding efficiency and processing accuracy of double-layer hollow glass plates.

Description

Technical Field

[0001] This invention relates to the field of glass plate welding technology, specifically to an energy-saving production equipment for melting and bonding double-layer hollow glass plates. Background Technology

[0002] Double-glazed hollow glass panels are widely used in building curtain walls, doors and windows, and greenhouses due to their excellent heat insulation and sound insulation properties. Double-glazed hollow glass panels are typically made by joining two glass panels together through edge welding or bonding. Welding avoids the problem of sealant aging, resulting in a longer service life and better sealing performance.

[0003] Currently, existing glass welding equipment typically requires multiple independent drive devices to control the lifting of the welding components, the clamping and positioning of the glass plates, and the pushing and feeding of the glass plates in actual production. This results in complex equipment structures, high manufacturing costs, and significant challenges in synchronizing and coordinating the multiple drives, easily leading to timing deviations and affecting welding quality. Furthermore, existing equipment often lacks synchronous clamping and limiting of the top and side surfaces of the glass plates during welding, making the glass plates prone to displacement or deformation when heated and melted, leading to welding misalignment and reduced yield.

[0004] Therefore, it is necessary to provide an energy-saving double-layer hollow glass sheet fusion bonding production equipment with a compact structure, strong linkage, and the ability to simultaneously realize the lifting of the fusion bonding components, the clamping and pushing of the glass sheet, in order to solve the above-mentioned problems existing in the prior art. Summary of the Invention

[0005] To address the shortcomings of existing technologies, this invention provides an energy-saving double-layer hollow glass plate fusion bonding production equipment, which solves the problems mentioned in the background technology.

[0006] The solution of the present invention to the above-mentioned technical problems is as follows: This invention provides an energy-saving double-layer hollow glass sheet fusion bonding production equipment, including an equipment base, an equipment frame mounted on the equipment base, and outer shells at both ends of the equipment frame, and further including: A welding assembly disposed within the device frame; A drive component, which is mounted on the device frame; An adjustment component is disposed on the device frame; A transmission assembly, which is disposed within the housing; The second actuating component is disposed within the housing and cooperates with the transmission component; A moving component, which is connected to the second pushing component; A clamping assembly, which is mounted on the movable assembly; A drive component one is disposed within the housing; When the driving component is working, it drives the adjusting component to drive the welding component to move downward, and at the same time drives the transmission component to rotate. The transmission component first drives the pushing component two to move the moving component and the clamping component downward to clamp the top surface of the glass plate. Then, the transmission component drives the pushing component one to push the moving component to move the clamping component horizontally, pushing the glass plate below the welding component for heating, melting and welding.

[0007] Based on the above technical solution, the present invention can be further improved as follows.

[0008] Furthermore, the transmission assembly includes a rotating shaft rotatably mounted inside the housing via a bearing, a driven wheel fixedly mounted on the rear end face of the rotating shaft, and a cam one and a cam two fixedly mounted on the rotating shaft.

[0009] The beneficial effects of adopting the above-mentioned further solutions are: By integrating cam one and cam two onto the same rotating shaft, and using the driven wheel to receive power from the drive component, cam one and cam two can rotate synchronously, enabling push component two and push component one to move sequentially according to a preset timing sequence, thus ensuring the coordination of clamping and pushing actions.

[0010] Furthermore, the second pushing component includes a slide rail and a slider. The slide rail is fixedly installed inside the housing, and the slider is slidably sleeved on the slide rail. A connecting frame is fixedly installed on the side end face of the slider, and a third roller is rotatably installed on the connecting frame. The third roller contacts the first cam.

[0011] The beneficial effects of adopting the above-mentioned further solutions are: When the cam rotates, the cam's curvilinear motion is converted into the linear lifting and lowering motion of the connecting frame and slider along the slide rail through the roller three. The rolling contact of the roller three reduces frictional resistance, making the up-and-down movement of the moving component smoother and more stable, and improving the accuracy of the clamping component in clamping the top surface of the glass plate.

[0012] Furthermore, the moving component includes a fixed block, which is connected to the slider by bolts. A guide rod is slidably sleeved inside the fixed block. A contact block is fixedly installed on the side end face of the guide rod. The contact block is connected to the fixed block by a return spring, and the return spring is sleeved on the guide rod.

[0013] The beneficial effects of adopting the above-mentioned further solutions are: When the fixed block moves up and down with the slider, it drives the guide rod and the clamping assembly to move synchronously. When the pushing assembly pushes the contact block, the guide rod slides horizontally within the fixed block to drive the clamping assembly to move horizontally. The return spring can automatically reset the guide rod after the pushing force is removed, thus realizing independent motion control of the clamping assembly in both vertical and horizontal directions.

[0014] Furthermore, the clamping assembly includes a fixing plate, which is mounted on a guide rod. An L-shaped clamping frame is bolted to the fixing plate, and a rubber pad is fitted to the inner wall of the L-shaped clamping frame.

[0015] The beneficial effects of adopting the above-mentioned further solutions are: The L-shaped clamp can simultaneously limit and clamp the top and side surfaces of the glass plate. The rubber pads attached to the inner wall increase the friction with the glass plate, which can prevent the glass plate from slipping and misaligning during pushing and welding, and avoid damage to the glass plate surface caused by rigid contact, thereby improving clamping stability and product yield.

[0016] Furthermore, the first pushing component includes an L-shaped connecting plate and a mounting shaft. The mounting shaft is installed inside the housing. The L-shaped connecting plate is rotatably mounted on the mounting shaft. The L-shaped connecting plate is connected to the mounting shaft via a torsion spring. Roller 1 and roller 2 are rotatably mounted at both ends of the L-shaped connecting plate, respectively. Roller 2 contacts a contact block, and roller 1 contacts a cam 2.

[0017] The beneficial effects of adopting the above-mentioned further solutions are: When the second cam rotates, it squeezes the first roller, causing the L-shaped connecting plate to rotate around the mounting shaft. The second roller at the other end of the L-shaped connecting plate simultaneously squeezes the contact block, pushing the moving component to move horizontally. The torsion spring allows the L-shaped connecting plate to automatically reset after the second cam rotates past the protruding part. The lever structure amplifies the displacement and the roller contact reduces friction, making the pushing action smooth and reliable.

[0018] Furthermore, the drive assembly includes a drive motor, which is mounted on the rear end face of the equipment frame via a bracket. A drive shaft is provided on the output shaft of the drive motor, and a bevel gear and a drive wheel are mounted on the drive shaft. The drive wheel is connected to the driven wheel via a belt.

[0019] The beneficial effects of adopting the above-mentioned further solutions are: A single drive motor drives both a bevel gear and a drive wheel to rotate simultaneously via a drive shaft. The bevel gear drives the adjustment component to raise and lower the welding component, while the drive wheel drives the transmission component to rotate via a belt. This achieves synchronous linkage between the raising and lowering of the welding component and the clamping and pushing actions of the clamping component, reducing the number of drive sources and lowering equipment energy consumption and manufacturing costs.

[0020] Furthermore, the adjustment assembly includes a fixed frame, which is installed on the rear end face of the equipment frame. A lead screw is rotatably mounted in the fixed frame via a bearing. A second bevel gear is mounted on the bottom end face of the lead screw, and the second bevel gear meshes with the first bevel gear for transmission. A guide frame is slidably sleeved on the fixed frame. The guide frame is threaded onto the lead screw, and the end of the guide frame facing away from the lead screw is connected to the mounting plate.

[0021] The beneficial effects of adopting the above-mentioned further solutions are: The first bevel gear drives the lead screw to rotate through the second bevel gear. The guide frame slides up and down along the fixed frame under the action of the threaded transmission, thereby driving the welding assembly to rise and fall stably, realizing the precise correspondence between the lifting height of the welding assembly and the rotation angle of the drive motor.

[0022] Furthermore, the welding assembly includes a mounting plate, a blowtorch is installed inside the mounting plate, and the guide frame is connected to the mounting plate.

[0023] The beneficial effects of adopting the above-mentioned further solutions are: When the guide frame is raised and lowered, it directly drives the mounting plate and the blowtorch to move synchronously, so that the blowtorch can accurately reach the position of the glass plate to be welded and heat and melt it.

[0024] As can be seen, the energy-saving double-layer hollow glass plate fusion bonding production equipment provided by this invention has the following beneficial effects: By using a single drive motor to simultaneously drive the adjustment and transmission components, the synchronous linkage of the lifting and lowering of the welding components, the clamping and horizontal pushing of the clamping components is achieved. This overcomes the problems of complex structure and difficulty in synchronous coordination caused by the separate control of multiple drive devices in the prior art. The equipment has a compact structure, low manufacturing cost, and low energy consumption.

[0025] By coordinating the timing of cam one with push component two and cam two with push component one, the clamping component first clamps the top surface of the glass plate from top to bottom, and then pushes the glass plate horizontally to feed. The actions are orderly and closely connected, which solves the problem of unstable welding quality caused by the easy deviation of the action sequence of the existing equipment.

[0026] By using an L-shaped clamping frame to simultaneously clamp and limit the top and side surfaces of the glass plate, displacement or deformation of the glass plate is prevented during the heating and melting process. This overcomes the defect of misalignment caused by the lack of simultaneous clamping in existing equipment, and effectively improves the welding accuracy and yield. Attached Figure Description

[0027] The accompanying drawings, which are provided to further illustrate the invention and constitute a part of this invention, are illustrative embodiments of the invention and their descriptions are used to explain the invention and do not constitute an undue limitation of the invention.

[0028] In the attached diagram: Figure 1 This is a front view schematic diagram of the present invention; Figure 2 This is a rear view diagram of the present invention; Figure 3 This is a schematic diagram of the internal structure of the present invention; Figure 4 This is a schematic diagram of the installation of the welding assembly of the present invention; Figure 5 This is a schematic diagram of the drive wheel transmission of the present invention; Figure 6 This is a schematic cross-sectional view of the outer casing of the present invention; Figure 7 This is a rear view schematic diagram of the outer casing of the present invention; Figure 8 This is a schematic diagram of the transmission assembly of the present invention; Figure 9 This is a rear view schematic diagram of the transmission assembly of the present invention; Figure 10 This is a schematic diagram of the installation of the second driving component of the present invention; Figure 11 This is a bottom view of the second pushing component of the present invention; Figure 12 This is a schematic diagram of the installation of the driving component of the present invention; Figure 13 This is a schematic side view of the pushing component of the present invention.

[0029] The attached diagram lists the components represented by each number as follows: 1. Equipment base; 101. Equipment frame; 2. Housing; 3. Welding assembly; 301. Mounting plate; 302. Blowtorch; 4. Drive assembly; 401. Drive motor; 402. Drive shaft; 403. Bevel gear one; 404. Drive wheel; 405. Belt; 5. Adjustment assembly; 501. Fixing frame; 502. Lead screw; 503. Bevel gear two; 504. Guide frame; 6. Clamping assembly; 601. Fixing plate; 602. L-shaped clamping frame; 7. Transmission assembly 701. Rotating shaft; 702. Driven wheel; 703. Cam 1; 704. Cam 2; 8. Moving assembly; 801. Fixed block; 802. Guide rod; 803. Contact block; 804. Return spring; 9. Push assembly 1; 901. L-shaped connecting plate; 902. Roller 1; 903. Mounting shaft; 904. Torsion spring; 905. Roller 2; 10. Push assembly 2; 1001. Slide rail; 1002. Connecting frame; 1003. Roller 3; 1004. Slider. Detailed Implementation

[0030] 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.

[0031] Please see Figures 1 to 13 As shown, the embodiments provided by the present invention are as follows: Example 1

[0032] An energy-saving double-layer hollow glass sheet fusion bonding production equipment includes an equipment base 1, an equipment frame 101 mounted on the equipment base 1, and outer shells 2 at both ends of the equipment frame 101. It also includes: The welding assembly 3 is disposed within the equipment frame 101; Drive component 4 is mounted on device frame 101; Adjustment component 5 is mounted on device frame 101; Transmission assembly 7 is disposed within housing 2; The second driving component 10 is disposed inside the housing 2 and cooperates with the transmission component 7; The moving component 8 is connected to the pushing component 10; Clamping component 6, which is mounted on the moving component 8; Drive component 9, which is disposed inside housing 2; When the drive component 4 is working, it drives the adjustment component 5 to drive the welding component 3 to move down, and at the same time drives the transmission component 7 to rotate. The transmission component 7 first drives the push component 2 10 to move the moving component 8 and the clamping component 6 down to clamp the top surface of the glass plate. Then, the transmission component 7 drives the push component 1 9 to push the moving component 8 to move the clamping component 6 horizontally, pushing the glass plate to the bottom of the welding component 3 for heating, melting and welding. The transmission assembly 7 includes a rotating shaft 701 rotatably mounted in the housing 2 via bearings. A driven wheel 702 is fixedly mounted on the rear end face of the rotating shaft 701. A cam 1 703 and a cam 2 704 are fixedly mounted on the rotating shaft 701. By integrating the cam 1 703 and the cam 2 704 onto the same rotating shaft 701, the driven wheel 702 receives power from the drive assembly 4 to achieve synchronous rotation of the cam 1 703 and the cam 2 704. This enables the push assembly 2 10 and the push assembly 1 9 to operate sequentially according to a preset timing sequence, ensuring the coordination of the clamping and pushing actions. Furthermore, auxiliary mechanisms such as guide plates and rotating shafts can be installed on the equipment base 1. The guide plates are symmetrically arranged on both sides of the glass plate pushing path to limit the position of the glass plate during movement, prevent the glass plate from shifting or deviating during the pushing process of the clamping component 6, and ensure that the glass plate can accurately reach the predetermined welding position below the welding component 3, thereby improving the welding alignment accuracy and processing consistency. The rotating shaft is rotatably installed on the equipment base 1 and supported on the bottom surface of the glass plate, so that when the glass plate is pushed on the equipment base 1, rolling contact replaces sliding friction, reducing pushing resistance and making the glass plate move more smoothly. The setting of the guide mechanism and the rotating shaft are common knowledge in this technical field and will not be described in detail here. Example 2

[0033] To achieve the timing coordination of the vertical and horizontal movement of the clamping component 6, for example, as follows: Figures 1 to 13 As shown, the present invention also includes: The second pushing component 10 includes a slide rail 1001 and a slider 1004. The slide rail 1001 is fixedly installed inside the housing 2. The slider 1004 is slidably sleeved on the slide rail 1001. A connecting frame 1002 is fixedly installed on the side end face of the slider 1004. A roller 1003 is rotatably installed on the connecting frame 1002. The roller 1003 contacts the cam 703. When the cam 703 rotates, the cam curve motion is converted into the linear lifting and lowering motion of the connecting frame 1002 and the slider 1004 along the slide rail 1001 through the roller 1003. The rolling contact of the roller 1003 reduces frictional resistance, making the up-and-down movement of the moving component 8 more stable and smooth, and improving the accuracy of the clamping component 6 in clamping the top surface of the glass plate. The moving component 8 includes a fixed block 801, which is connected to the slider 1004 by bolts. A guide rod 802 is slidably sleeved inside the fixed block 801. A contact block 803 is fixedly installed on the side end face of the guide rod 802. The contact block 803 is connected to the fixed block 801 by a return spring 804, which is sleeved on the guide rod 802. When the fixed block 801 rises and falls with the slider 1004, it drives the guide rod 802 and the clamping component 6 to move synchronously. When the pushing component 9 pushes the contact block 803, the guide rod 802 slides horizontally inside the fixed block 801 to drive the clamping component 6 to move horizontally. The return spring 804 can automatically reset the guide rod 802 after the pushing force is removed, realizing independent movement control of the clamping component 6 in both vertical and horizontal directions. Example 3

[0034] To achieve simultaneous clamping and limiting of the top and side surfaces of the glass plate and to complete horizontal pushing, for example, such as... Figures 1 to 13 As shown, the present invention also includes: The clamping assembly 6 includes a fixing plate 601, which is mounted on the guide rod 802. An L-shaped clamping frame 602 is bolted to the fixing plate 601. A rubber pad is fitted to the inner wall of the L-shaped clamping frame 602. The L-shaped clamping frame 602 can simultaneously limit and clamp the top and side surfaces of the glass plate. The rubber pad fitted to the inner wall increases the friction with the glass plate, which can prevent the glass plate from slipping and misaligning during pushing and welding, and avoid damage to the surface of the glass plate caused by rigid contact, thereby improving clamping stability and product yield. Furthermore, the clamping component 6 can be selected and adjusted according to the actual specifications, dimensions and thickness of the glass plate being processed. For example, L-shaped clamping frames 602 with different groove widths can be replaced according to the thickness of the glass plate, or the installation position of the fixing plate 601 on the guide rod 802 can be adjusted to adapt to glass plates of different heights, so as to ensure that the clamping component 6 provides a stable and reliable clamping force to the glass plate. The selection and adjustment of the specifications of the clamping component 6 are common knowledge in this technical field and will not be described in detail here. The pushing component 9 includes an L-shaped connecting plate 901 and a mounting shaft 903. The mounting shaft 903 is installed inside the housing 2. The L-shaped connecting plate 901 is rotatably mounted on the mounting shaft 903. The L-shaped connecting plate 901 is connected to the mounting shaft 903 via a torsion spring 904. Rollers 902 and 905 are rotatably mounted at both ends of the L-shaped connecting plate 901, respectively. Roller 905 contacts the contact block 803, and roller 902 contacts the cam 704. When the cam 704 rotates, it presses roller 902, causing the L-shaped connecting plate 901 to rotate around the mounting shaft 903. At the same time, roller 905 at the other end of the L-shaped connecting plate 901 presses the contact block 803, pushing the moving component 8 to move horizontally. The torsion spring 904 can automatically reset the L-shaped connecting plate 901 after the cam 704 has rotated past the protruding part. The lever structure amplifies the displacement and the roller contact reduces friction, making the pushing action smooth and reliable. Example 4

[0035] To achieve simultaneous lifting and clamping / pushing of the welding assembly 3 by a single drive source, thereby reducing equipment energy consumption and saving energy, for example, such as Figures 1 to 13 As shown, the present invention also includes: The drive assembly 4 includes a drive motor 401, which is mounted on the rear end face of the equipment frame 101 via a bracket. A drive shaft 402 is provided on the output shaft of the drive motor 401. A bevel gear 403 and a drive wheel 404 are mounted on the drive shaft 402. The drive wheel 404 is connected to the driven wheel 702 via a belt 405. The single drive motor 401 drives both the bevel gear 403 and the drive wheel 404 to rotate simultaneously via the drive shaft 402. The bevel gear 403 drives the adjustment assembly 5 to lift and lower the welding assembly 3. The drive wheel 404 drives the transmission assembly 7 to rotate via the belt 405. This achieves synchronous linkage between the lifting and lowering of the welding assembly 3 and the clamping and pushing actions of the clamping assembly 6, reducing the number of drive sources and lowering the equipment energy consumption and manufacturing cost. Furthermore, the drive motor 401 and the blowtorch 302 are common components known in the technical field. The blowtorch 302 can be selected as a flame blowtorch, hot air heater, or other equivalent heating mechanism according to the actual welding process requirements, and is not limited to the specific form shown in this embodiment. The drive motor 401 can be externally connected to a control switch or connected to a control system for start-stop and forward / reverse control to achieve automated operation of the equipment. This is a conventional technical means in the technical field and will not be elaborated here. Example 5

[0036] To achieve the adjustment of the lifting position of the welding assembly 3, for example, as follows: Figures 1 to 13 As shown, the present invention also includes: The adjusting component 5 includes a fixed frame 501, which is installed on the rear end face of the equipment frame 101. A lead screw 502 is rotatably mounted inside the fixed frame 501 via a bearing. A second bevel gear 503 is mounted on the bottom end face of the lead screw 502. The second bevel gear 503 meshes with the first bevel gear 403 for transmission. A guide frame 504 is slidably sleeved on the fixed frame 501. The guide frame 504 is threaded onto the lead screw 502, and the end of the guide frame 504 facing away from the lead screw 502 is connected to the mounting plate 301. The first bevel gear 403 drives the lead screw 502 to rotate through the second bevel gear 503. Under the action of the threaded transmission, the guide frame 504 slides up and down along the fixed frame 501, thereby driving the welding component 3 to rise and fall stably, realizing the correspondence between the lifting height of the welding component 3 and the rotation angle of the drive motor 401. The welding assembly 3 includes a mounting plate 301, a blowtorch 302 is installed in the mounting plate 301, and a guide frame 504 is connected to the mounting plate 301. When the guide frame 504 is raised and lowered, it directly drives the mounting plate 301 and the blowtorch 302 to move synchronously, so that the blowtorch 302 can accurately reach the position of the glass plate to be welded for heating and melting. Furthermore, the blowtorch 302 needs to be supplied with gas through an external gas tank via a pipe. The external gas tank provides the combustible gas required for combustion to ensure that the blowtorch 302 continuously and stably generates a flame to heat and melt the glass plate. The method of supplying gas through an external gas tank is common knowledge in this technical field and will not be described in detail here.

[0037] Working principle: During operation, the operator first places the glass plate to be welded on the equipment base 1 and aligns it. After placement, the operator starts the drive motor 401, which drives the drive shaft 402 to rotate. The drive shaft 402 simultaneously drives the bevel gear 403 and the drive wheel 404 to rotate.

[0038] On one hand, bevel gear 403 drives screw 502 to rotate through meshing with bevel gear 503. When screw 502 rotates, it drives guide frame 504 to slide down along fixed frame 501 through threaded transmission. Guide frame 504 drives mounting plate 301 and torch 302 installed in mounting plate 301 to move down synchronously, so that the welding assembly 3 as a whole drops to the predetermined welding height.

[0039] On the other hand, as the welding assembly 3 moves downward, the driving wheel 404 drives the driven wheel 702 to rotate via the belt 405. The driven wheel 702 drives the rotating shaft 701 and the cam 1 703 and cam 2 704 fixedly installed on the rotating shaft 701 to rotate synchronously. When the rotating shaft 701 rotates, the protruding part of the cam 1 703 first rotates to the position of contacting the roller 3 1003 and squeezes the roller 3 1003. After being squeezed, the roller 3 1003 drives the slider 1004 to slide downward along the slide rail 1001 via the connecting frame 1002. The slider 1004 drives the guide rod 802 and the clamping assembly 6 installed on the guide rod 802 to move downward as a whole via the bolt-connected fixing block 801. At this time, the L-shaped clamping frame 602 clamps and limits the top surface of the glass plate from top to bottom.

[0040] Subsequently, the transmission assembly 7 continues to rotate, and the protruding part of cam 1 703 gradually rotates past roller 3 1003. At this time, the protruding part of cam 2 704 rotates to the position of contacting roller 1 902 and squeezes roller 1 902. When roller 1 902 is squeezed, it drives the L-shaped connecting plate 901 to rotate around the mounting shaft 903. The torsion spring 904 then undergoes elastic deformation. The roller 2 905 at the other end of the L-shaped connecting plate 901 squeezes the contact block 803 synchronously with the rotation. When the contact block 803 is squeezed, it drives the guide rod 802 to slide horizontally within the fixed block 801. When the return spring 804 is compressed, the guide rod 802 drives the L-shaped clamping frame 602 and the clamped glass plate to move horizontally through the fixing plate 601, pushing the glass plate to the bottom of the welding assembly 3. The torch 302 heats and melts the part of the glass plate to be welded. After melting, the two glass plates continue to move and join together. During the welding process, the preset height of the torch 302 will not collide with the glass plate. In addition, during the welding process, the L-shaped clamping frame 602 simultaneously clamps and limits the top and side surfaces of the glass plate to prevent the glass plate from shifting due to heat.

[0041] After one welding operation is completed, the drive motor 401 reverses, the drive shaft 402 drives the bevel gear 403 and the drive wheel 404 to rotate in the opposite direction, the lead screw 502 reverses and drives the guide frame 504 and the welding assembly 3 to rise and reset. At the same time, the drive wheel 404 drives the driven wheel 702 and the rotating shaft 701 to rotate in the opposite direction through the belt 405. The protruding part of the cam 704 gradually disengages from the roller 902. The L-shaped connecting plate 901 rotates around the mounting shaft 903 and resets under the elastic restoring force of the torsion spring 904. The roller 905 disengages from the pressure on the contact block 803. The guide rod 802 slides horizontally relative to the fixed block 801 and resets under the elastic restoring force of the reset spring 804, driving the clamping assembly 6 to return to the initial position. Simultaneously, the protruding part of the cam 703 contacts the roller 1003 again and drives the slider 1004, the moving assembly 8 and the clamping assembly 6 to move upward and reset as a whole. All components return to the initial state and are ready for the next working cycle.

[0042] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. It will be apparent to those skilled in the art that the invention is not limited to the details of the exemplary embodiments described above, and that the invention can be implemented in other specific forms without departing from its spirit or essential characteristics. Therefore, the embodiments should be considered illustrative and non-limiting in all respects, and the scope of the invention is defined by the appended claims rather than the foregoing description. Thus, all variations falling within the meaning and scope of equivalents of the claims are intended to be included within the scope of the invention. No reference numerals in the claims should be construed as limiting the scope of the claims.

[0043] Furthermore, it should be understood that although this specification describes embodiments, not every embodiment contains only one independent technical solution. This narrative style is merely for clarity. Those skilled in the art should consider the specification as a whole, and the technical solutions in each embodiment can also be appropriately combined to form other embodiments that can be understood by those skilled in the art.

Claims

1. An energy-saving double-layer hollow glass plate fusion bonding production equipment, comprising an equipment base (1), an equipment frame (101) mounted on the equipment base (1), and outer shells (2) provided at both ends of the equipment frame (101), characterized in that, Also includes: A welding assembly (3) is disposed within the device frame (101); A drive component (4) is mounted on the device frame (101); Adjustment component (5), which is disposed on the device frame (101); A transmission assembly (7) is disposed within the housing (2); A second push component (10) is disposed inside the housing (2) and cooperates with the transmission component (7); A moving component (8) is connected to the second pushing component (10); A clamping assembly (6) is mounted on the moving assembly (8); A drive component (9) is disposed within the housing (2); When the driving component (4) is working, it drives the adjusting component (5) to drive the welding component (3) to move down, and at the same time drives the transmission component (7) to rotate. The transmission component (7) first drives the pushing component (10) to move the moving component (8) and the clamping component (6) down to clamp the top surface of the glass plate. Then the transmission component (7) drives the pushing component (9) to push the moving component (8) to move the clamping component (6) horizontally, pushing the glass plate to the bottom of the welding component (3) for heating, melting and welding.

2. The energy-saving double-layer hollow glass plate fusion bonding production equipment according to claim 1, characterized in that: The transmission assembly (7) includes a rotating shaft (701) rotatably mounted in the housing (2) via a bearing. A driven wheel (702) is fixedly mounted on the rear end face of the rotating shaft (701). A cam (703) and a cam (704) are fixedly mounted on the rotating shaft (701).

3. The energy-saving double-layer hollow glass plate fusion bonding production equipment according to claim 2, characterized in that: The second pushing component (10) includes a slide rail (1001) and a slider (1004). The slide rail (1001) is fixedly installed inside the housing (2). The slider (1004) is slidably sleeved on the slide rail (1001). A connecting frame (1002) is fixedly installed on the side end face of the slider (1004). A roller (1003) is rotatably installed on the connecting frame (1002). The roller (1003) contacts the cam (703).

4. The energy-saving double-layer hollow glass plate fusion bonding production equipment according to claim 3, characterized in that: The moving component (8) includes a fixed block (801), which is connected to the slider (1004) by bolts. A guide rod (802) is slidably sleeved inside the fixed block (801). A contact block (803) is fixedly installed on the side end face of the guide rod (802). The contact block (803) is connected to the fixed block (801) by a return spring (804), and the return spring (804) is sleeved on the guide rod (802).

5. The energy-saving double-layer hollow glass plate fusion bonding production equipment according to claim 4, characterized in that: The clamping assembly (6) includes a fixing plate (601), which is mounted on a guide rod (802). An L-shaped clamping frame (602) is bolted to the fixing plate (601), and a rubber pad is fitted to the inner wall of the L-shaped clamping frame (602).

6. The energy-saving double-layer hollow glass plate fusion bonding production equipment according to claim 4, characterized in that: The first pushing component (9) includes an L-shaped connecting plate (901) and a mounting shaft (903). The mounting shaft (903) is installed inside the housing (2). The L-shaped connecting plate (901) is rotatably mounted on the mounting shaft (903). The L-shaped connecting plate (901) is connected to the mounting shaft (903) via a torsion spring (904). Roller 1 (902) and roller 2 (905) are rotatably mounted at both ends of the L-shaped connecting plate (901). Roller 2 (905) contacts the contact block (803), and roller 1 (902) contacts the cam 2 (704).

7. The energy-saving double-layer hollow glass plate fusion bonding production equipment according to claim 2, characterized in that: The drive assembly (4) includes a drive motor (401), which is mounted on the rear end face of the equipment frame (101) via a bracket. A drive shaft (402) is provided on the output shaft of the drive motor (401). A bevel gear (403) and a drive wheel (404) are mounted on the drive shaft (402). The drive wheel (404) is connected to the driven wheel (702) via a belt (405).

8. The energy-saving double-layer hollow glass plate fusion bonding production equipment according to claim 7, characterized in that: The adjustment assembly (5) includes a fixed frame (501), which is installed on the rear end face of the equipment frame (101). A lead screw (502) is rotatably installed in the fixed frame (501) through a bearing. A bevel gear (503) is installed on the bottom end face of the lead screw (502). The bevel gear (503) meshes with the bevel gear (403) for transmission. A guide frame (504) is slidably sleeved on the fixed frame (501). The guide frame (504) is threadedly installed on the lead screw (502), and one end of the guide frame (504) away from the lead screw (502) is connected to the mounting plate (301).

9. The energy-saving double-layer hollow glass plate fusion bonding production equipment according to claim 8, characterized in that: The welding assembly (3) includes a mounting plate (301), a blowtorch (302) is installed in the mounting plate (301), and the guide frame (504) is connected to the mounting plate (301).

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