Hollow glass aluminum strip processing equipment
By using a combination of flipping plates and limiting plates in the aluminum strip processing equipment for insulating glass, the problems of stress concentration and unstable positioning caused by aluminum strip swaying are solved, achieving high-precision aluminum strip bending and stable conveying.
Patent Information
- Application Number
- CN202511858468.9
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-12-10
- Publication Date
- 2026-03-03
AI Technical Summary
After bending, the aluminum strips of insulated glass are prone to shaking due to their own weight or equipment vibration, which can lead to stress concentration at the bending point. With long-term use, they are prone to cracking or deformation, and it is difficult to maintain a stable positioning reference, which affects the processing accuracy and operation complexity.
A hollow glass aluminum strip processing equipment is used. The drive component drives the flipping plate to flip and bend the aluminum strip. The limiting plate and positioning plate are used to position the aluminum strip. In particular, the wedge block limits the bending end to prevent shaking and position deviation.
It effectively prevents damage to the aluminum strips of insulating glass caused by repeated bending, maintains a stable positioning reference, and improves processing accuracy and ease of operation.
Smart Images
Figure CN121589157A_ABST
Abstract
Description
Technical Field
[0001] This invention belongs to the field of aluminum strip technology for insulating glass, and more specifically, relates to an equipment for processing aluminum strips for insulating glass. Background Technology
[0002] In the field of insulated glass production, aluminum strips are key supporting components, and their structural precision directly determines the sealing performance and service life of insulated glass. To adapt to the assembly requirements of insulated glass of different specifications, aluminum strips need to be bent to form a frame structure of a specific shape. Therefore, the stability and precision control of the bending process have become the core technical points of the aluminum strip processing link.
[0003] However, in existing systems, after bending the aluminum strip of insulating glass into a vertical position, the aluminum strip is prone to shaking due to its own weight or equipment vibration. If the shaking amplitude is large, it may cause stress concentration at the bending point of the aluminum strip, which can easily lead to cracking, deformation and other damage problems after long-term use. At the same time, the aluminum strip cannot maintain a stable initial position after shaking. When the aluminum strip is transported again, the positioning reference needs to be readjusted, which not only increases the complexity of operation, but also makes it easy for the aluminum strip to move too much or too little due to the reference deviation, further aggravating the bending accuracy error.
[0004] In view of this, the present invention is proposed. Summary of the Invention
[0005] To solve the above-mentioned technical problems, the basic concept of the technical solution adopted by the present invention is as follows: A processing device for insulating glass aluminum strips includes a worktable. A transfer table is provided on one side wall of the worktable. A placement slot is provided above the worktable, and a rectangular slot is provided inside the placement slot. An installation slot is provided at the bottom of the rectangular slot, extending through the worktable. Four movable slots are provided above the worktable, symmetrically arranged in pairs. A first limiting plate and a second limiting plate are respectively provided above each pair of movable slots. A flipping plate is provided inside the rectangular slot. Insulating glass aluminum strips are placed above the worktable, and the insulating glass aluminum strips are located... On the flip plate and the conveyor platform, a first mounting plate is also provided above the worktable. A mounting rod is provided at the bottom of the first mounting plate, and both ends of the mounting rod are located in the inner cavity of the worktable. A second mounting plate is vertically provided at the top of the first mounting plate. A positioning plate is also provided above the worktable. A driving assembly is also provided on the worktable. The driving assembly is used to drive the flip plate to rotate. The rotation of the flip plate is used to press the placed hollow glass aluminum strip with the positioning plate, and is also used to position the two sides of the placed hollow glass aluminum strip with the first limiting plate and the second limiting plate. The flipping of the flip plate is also used to bend the placed hollow glass aluminum strip.
[0006] In a preferred embodiment of the present invention, a plurality of equidistant limiting members are provided above the transmission station, and hollow glass aluminum strips are placed inside the limiting members.
[0007] In a preferred embodiment of the present invention, the driving assembly includes an electric motor, which is mounted on a workbench. A rotating rod is provided at the output end of the electric motor. The rotating rod moves through the workbench, and a bearing is provided at the end of the rotating rod away from the electric motor. The bearing is located in the inner cavity of a rectangular slot, and a flip plate is also provided on the rotating rod.
[0008] In a preferred embodiment of the present invention, a drive plate is provided at the bottom of the flip plate, an L-shaped connecting plate is provided at one end of the drive plate, the L-shaped connecting plate is also located in the inner cavity of the mounting slot, and four swing arms that are symmetrical to each other are provided at the bottom of the L-shaped connecting plate. A moving plate is provided at the other end of each of the four swing arms, and a first limiting plate and a second limiting plate are provided on each of the four moving plates. The four moving plates are respectively movably inserted through the moving slot.
[0009] In a preferred embodiment of the present invention, two movable slide grooves are formed on each of the two opposite side walls of the mounting slot cavity. The four movable slide grooves are symmetrical to each other. A sliding rod is slidably arranged in the cavity of each of the four movable slide grooves. The four sliding rods are symmetrical to each other. One end of each pair of sliding rods is connected to an L-shaped connecting plate. A tension spring is respectively arranged above the four sliding rods. The four tension springs are located in the cavity of the movable slide groove, and the other end of the tension spring is arranged in the inner wall of the movable slide groove.
[0010] In a preferred embodiment of the present invention, the positioning plate is provided with slide rails at both ends, and the two slide rails are provided on the opposite side walls of the inner cavity of the placement slot. The bottom of the positioning plate is also provided with two mutually symmetrical third return springs, and the other end of the third return springs is provided at the bottom of the inner cavity of the placement slot. A rotating plate is provided above the positioning plate, and a connecting plate is provided at the bottom of the other end of the rotating plate. A rotating rod is fixedly provided through the middle of the rotating plate. The two ends of the rotating rod are rotatably provided on the opposite side walls of the inner cavity of the placement slot. The bottom ends of the connecting plate are provided with positioning rods, the two positioning rods are mutually symmetrical, and the two positioning rods respectively movably pass through the top of the worktable, and the other end is respectively connected to the sliding rod.
[0011] In a preferred embodiment of the present invention, a plurality of rectangular mounting cylinders are provided on one side wall of the first mounting plate, and each rectangular mounting cylinder is symmetrical to each other. Each rectangular mounting cylinder has a drive groove on its opposite side wall, and each drive groove is symmetrical to each other. Each drive groove has a drive slider in its inner cavity, and each drive slider is symmetrical to each other. Each drive slider has a sliding plate at one opposite end.
[0012] In a preferred embodiment of the present invention, each of the sliding plates has a wedge-shaped block on one of its opposite sidewalls, and each of the sliding plates has a second return spring on one of its opposite sidewalls. The other end of each second return spring is disposed on the inner wall of the rectangular mounting cylinder.
[0013] In a preferred embodiment of the present invention, a top plate is provided above the second mounting plate, and two mutually symmetrical guide grooves are provided at the bottom of the top plate. Two mutually symmetrical guide sliders are slidably arranged in the inner cavity of each of the two guide grooves, and the end of the guide slider away from the guide groove is provided on the second mounting plate.
[0014] In a preferred embodiment of the present invention, a first reset spring is provided on one side wall of the inner cavity of the two guide grooves, and the other end of the first reset spring is provided on the guide slider.
[0015] Compared with the prior art, the present invention has the following advantages: This invention uses a starting component to rotate a flipping plate, thereby bending the placed aluminum strip of insulating glass. The first and second limiting plates, along with a positioning plate, help to position the transported aluminum strip. When the aluminum strip is bent vertically, its bent end is effectively limited by a wedge block. This prevents excessive or insufficient movement during subsequent transports due to the previous bending, and also prevents the bent aluminum strip from shaking. This, to a certain extent, avoids damage to the aluminum strip caused by repeated bending and shaking.
[0016] The specific embodiments of the present invention will now be described in further detail with reference to the accompanying drawings. Attached Figure Description
[0017] In the attached diagram: Figure 1 A three-dimensional structural diagram of a hollow glass aluminum strip processing equipment; Figure 2 This is a side view of a hollow glass aluminum strip processing equipment. Figure 3 A cross-sectional view (I) of the worktable structure of a hollow glass aluminum strip processing equipment; Figure 4 A cross-sectional view (II) of the worktable structure of a hollow glass aluminum strip processing equipment; Figure 5 A schematic diagram of the worktable structure from below for a hollow glass aluminum strip processing equipment; Figure 6 This is a schematic diagram of a partial structure of the inner cavity of the worktable in a hollow glass aluminum strip processing equipment. Figure 7 A type of equipment for processing aluminum strips for insulating glass. Figure 6 Enlarged structural diagram at point A in the middle; Figure 8 This is a partially enlarged structural diagram of a hollow glass aluminum strip processing equipment; Figure 9 A schematic diagram of a partial bottom view of the inner cavity of the worktable of a hollow glass aluminum strip processing equipment; Figure 10 A type of equipment for processing aluminum strips for insulating glass. Figure 8 Enlarged structural diagram at point B.
[0018] In the picture: 1. Workbench; 11. Placement slot; 111. Rectangular slot; 112. Mounting slot; 113. Moving slot; 12. Transfer table; 121. Limiting component; 122. Insulating glass aluminum strip; 2. Electric motor; 21. Rotating rod; 211. Tilting plate; 212. Bearing; 22. Drive plate; 221. L-shaped connecting plate; 222. Swing arm; 223. Moving plate; 224. First limiting plate; 225. Second limiting plate; 23. Sliding rod; 231. Moving slide; 232. Tension spring; 233. Positioning rod; 24. Connecting plate; 241. Rotating plate; 242. Positioning plate; 243. Slide rail; 244. Rotating rod; 245. Third return spring; 3. First mounting plate; 31. Second mounting plate; 312. Top plate; 313. Guide groove; 314. Guide slider; 315. First return spring; 32. Rectangular mounting cylinder; 321. Drive groove; 322. Drive slider; 323. Sliding plate; 324. Second return spring; 325. Wedge block; 33. Mounting rod. Detailed Implementation
[0019] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions in the embodiments will be clearly and completely described below with reference to the accompanying drawings. The following embodiments are used to illustrate the present invention.
[0020] Example 1: like Figures 1 to 10As shown, a hollow glass aluminum strip processing device includes a worktable 1, a transfer table 12 on one side wall of the worktable 1, a placement slot 11 on the top of the worktable 1, a rectangular slot 111 inside the placement slot 11, and an installation slot 112 at the bottom of the rectangular slot 111, which extends through the worktable 1. Four movable slots 113 are also provided above the worktable 1, symmetrically arranged in pairs. A first limiting plate 224 and a second limiting plate 225 are respectively provided above each pair of movable slots 113. A flipping plate 211 is provided inside the rectangular slot 111. Hollow glass aluminum strips 122 are also placed on the top of the worktable 1, and the hollow glass aluminum strips 122 are repositioned... On the flip plate 211 and the transfer table 12, a first mounting plate 3 is also provided above the worktable 1. The bottom of the first mounting plate 3 is provided with a mounting rod 33, and the two ends of the mounting rod 33 are provided in the inner cavity of the worktable 1. A second mounting plate 31 is vertically provided at the top of the first mounting plate 3. A positioning plate 242 is also provided above the worktable 1. A driving assembly is also provided on the worktable 1. The driving assembly is used to drive the flip plate 211 to rotate. The rotation of the flip plate 211 is used to press the placed hollow glass aluminum strip 122 by the positioning plate 242, and is also used to position the two sides of the placed hollow glass aluminum strip 122 by the first limiting plate 224 and the second limiting plate 225. The flip plate 211 is also used to bend the placed hollow glass aluminum strip 122. The insulated glass aluminum strip 122 is bent by flipping the flip plate 211 driven by the starting component. The insulated glass aluminum strip 122 is positioned by the assistance of the first limiting plate 224, the second limiting plate 225 and the positioning plate 242. When the insulated glass aluminum strip 122 is bent into a vertical state, its bent end can be effectively limited by the wedge block 325. This not only avoids the insulated glass aluminum strip 122 from moving too much or too little due to the influence of the previous bend when it is transported next time, but also prevents the insulated glass aluminum strip 122 from shaking after bending. This, to a certain extent, avoids the insulated glass aluminum strip 122 from being damaged by shaking at the bending point after multiple bends.
[0021] like Figures 1 to 5 As shown, in a specific embodiment, a plurality of equidistant limiting members 121 are provided above the transmission platform 12, and hollow glass aluminum strips 122 are placed inside the limiting members 121. In this configuration, the placement position of the hollow glass aluminum strips 122 is determined.
[0022] Example 2: The difference between Embodiment 1 and this embodiment is that: Figures 1 to 6 and Figure 8 as well as Figure 9As shown, a hollow glass aluminum strip processing device includes a drive assembly comprising an electric motor 2, which is mounted on a worktable 1. A rotating rod 21 is mounted at the output end of the electric motor 2, movably passing through the worktable 1. A bearing 212 is mounted at the end of the rotating rod 21 furthest from the electric motor 2, and the bearing 212 is located within a rectangular slot 111. A tilting plate 211 is also mounted on the rotating rod 21. This configuration determines the installation position and components of the drive assembly, ensuring that the tilting plate 211 can rotate.
[0023] like Figures 1 to 6 and Figure 8 as well as Figure 9 As shown, in a specific embodiment, a drive plate 22 is provided at the bottom of the flip plate 211. An L-shaped connecting plate 221 is provided at one end of the drive plate 22, and the L-shaped connecting plate 221 is also located within the mounting slot 112. Four symmetrically arranged swing arms 222 are also provided at the bottom of the L-shaped connecting plate 221. A movable plate 223 is provided at the other end of each of the four swing arms 222. A first limiting plate 224 and a second limiting plate 225 are respectively provided on each of the four movable plates 223, and the four movable plates 223 are movably inserted through the movable slot 113. This arrangement ensures that the movable plates 223 can move horizontally with the assistance of the movable slot 113.
[0024] like Figures 1 to 6 and Figure 8 as well as Figure 9 As shown, furthermore, two movable slide grooves 231 are formed on each of the opposite side walls of the inner cavity of the mounting slot 112. The four movable slide grooves 231 are symmetrical to each other in pairs. Sliding rods 23 are slidably arranged in the inner cavity of each of the four movable slide grooves 231. The four sliding rods 23 are symmetrical to each other in pairs. One end of each pair of sliding rods 23 is connected to the L-shaped connecting plate 221. Tension springs 232 are respectively arranged above the four sliding rods 23. The four tension springs 232 are located in the inner cavity of the movable slide grooves 231, and the other end of the tension springs 232 is arranged on the inner wall of the movable slide grooves 231. In this arrangement, it is ensured that the L-shaped connecting plate 221 can move vertically with the assistance of tension springs 232, movable slide grooves 231 and sliding rods 23.
[0025] like Figures 1 to 6 and Figure 8 as well as Figure 9As shown, furthermore, the positioning plate 242 is provided with slide rails 243 at both ends, and the two slide rails 243 are provided on the opposite side walls of the inner cavity of the placement slot 11. The bottom of the positioning plate 242 is also provided with two mutually symmetrical third return springs 245, and the other end of the third return springs 245 is provided at the bottom of the inner cavity of the placement slot 11. A rotating plate 241 is provided above the positioning plate 242, and a connecting plate 24 is provided at the bottom of the other end of the rotating plate 241. A rotating rod 244 is fixedly inserted through the middle of the rotating plate 241, and the two ends of the rotating rod 244 are rotatably disposed on the opposite side walls of the inner cavity of the placement slot 11. Positioning rods 233 are provided at both ends of the bottom of the connecting plate 24, and the two positioning rods 233 are mutually symmetrical. The two positioning rods 233 respectively move through the top of the worktable 1, and their other ends are respectively connected to the sliding rods 23. In this configuration, the positioning plate 242 can move vertically.
[0026] Example 3: The difference between Embodiment 2 and this embodiment is that: Figures 1 to 8 as well as Figure 9 As shown, a hollow glass aluminum strip processing device includes a first mounting plate 3 with multiple equidistantly distributed rectangular mounting cylinders 32 on one side wall. Each rectangular mounting cylinder 32 is symmetrical to the others. Each rectangular mounting cylinder 32 has a driving groove 321 on each opposite side wall of its inner cavity, and each driving groove 321 is symmetrical to the others. Each driving groove 321 has a driving slider 322 inside its inner cavity, and each driving slider 322 is symmetrical to the others. A sliding plate 323 is located at one opposite end of each driving slider 322. A wedge-shaped block 325 is located on one opposite side wall of each sliding plate 323, and a second return spring 324 is located on one opposite side wall of each sliding plate 323. The other end of each second return spring 324 is located on the inner wall of the rectangular mounting cylinder 32. This configuration determines the installation position of the wedge-shaped blocks 325, ensuring that the wedge-shaped blocks 325 can move horizontally.
[0027] like Figures 1 to 6 and Figures 8 to 10 As shown, further, a top plate 312 is provided above the second mounting plate 31. Two symmetrical guide grooves 313 are formed at the bottom of the top plate 312. Two symmetrical guide sliders 314 are slidably disposed within the inner cavity of each guide groove 313, with one end of the guide slider 314 away from the guide groove 313 positioned on the second mounting plate 31. A first return spring 315 is provided on one side wall of the inner cavity of each guide groove 313, with the other end of the first return spring 315 positioned on the guide slider 314. This configuration ensures that when the flip plate 211 impacts the top plate 312, the top plate 312 can move horizontally.
[0028] The implementation principle of the insulating glass aluminum strip processing equipment of the present invention is as follows: First, the worker places the hollow glass aluminum strip 122 to be processed into multiple equidistantly distributed limiting members 121 set above the conveyor table 12. The hollow glass aluminum strip 122 is then transferred to the workbench 1 via the conveyor table 12 (the specific transfer method is existing technology). After the hollow glass aluminum strip 122 is transferred to the designated position on the workbench 1, the worker controls the electric motor 2 in the drive assembly installed on the workbench 1 to start running. The output end of the electric motor 2 drives the rotating rod 21 to rotate. Therefore, the rotating rod 21 can drive the flipping plate 211 to rotate. During the rotation of the flipping plate 211, it will drive the hollow glass aluminum strip 122 placed above it to flip, thereby realizing the initial bending operation of the hollow glass aluminum strip 122. As the flip plate 211 flips, the drive plate 22 at its bottom moves vertically upward with the assistance of the tension spring 232. (This is because the tension spring 232 is set in four symmetrical sliding grooves 231 on opposite sides of the inner cavity of the mounting slot 112. Each sliding groove 231 has a sliding rod 23 slidably installed inside. The four sliding rods 23 are symmetrically connected at one end to an L-shaped connecting plate 221 connected to one end of the drive plate 22. One end of the tension spring 232 is connected above the sliding rod 23, and the other end is fixed to the inner wall of the sliding groove 231. It is with the elastic force of the tension spring 232 that the drive plate 22 can fit against the bottom of the flip plate 211 to a certain extent, until it can no longer fit against the flip plate 211. Specifically, the certain extent is when the first limiting plate 224 and the second limiting plate 225 position the hollow glass aluminum strip 122.) When the sliding rod 23 moves within the sliding groove 231, it drives the positioning rod 233 connected to its top to move. The two symmetrical positioning rods 233 extend through the worktable 1 and are connected to the bottom ends of the connecting plate 24. Therefore, the connecting plate 24 moves, pressing the rotating plate 241 upwards (since the rotating plate 241 is rotated via the rotating rod 244, when it is subjected to an upward force, it can rotate, allowing the other end of the rotating plate 241 to press the drive plate 242, which moves vertically with the assistance of the slide rail 243). This ultimately presses against the hollow glass aluminum strip 122. The sliding rod 23 moves to position and limit the aluminum strip 122 of the insulating glass in the vertical direction. At the same time, the movement of the sliding rod 23 will also drive the four symmetrically connected swing arms 222 to move. The end of the swing arm 222 away from the sliding rod 23 is connected to the moving plate 223. The four moving plates 223 respectively move through the four symmetrically connected slots 113 opened above the worktable 1. Driven by the swing arms 222, the moving plates 223 move horizontally in the moving slots 113, thereby driving the first limiting plate 224 and the second limiting plate 225 set on the moving plate 223 to move towards both sides of the aluminum strip 122 of the insulating glass, and positioning and clamping both sides of the aluminum strip 122 of the insulating glass. Meanwhile, during the flipping process of the flipping plate 211, it will first squeeze the inclined surface of the wedge block 325 in the multiple equidistant symmetrical rectangular mounting cylinders 32 set on one side wall of the first mounting plate 3 (the wedge block 325 is fixed on the opposite side wall of the sliding plate 323, the opposite side wall of the sliding plate 323 is connected to the second return spring 324, the other end of the second return spring 324 is fixed to the inner wall of the rectangular mounting cylinder 32, and the driving slider 322 set at both ends of the sliding plate 323 is slidably connected in the driving groove 321 opened on the opposite side wall of the inner cavity of the rectangular mounting cylinder 32). Therefore, when the wedge block 325 is squeezed, the sliding plate 323 will move with the driving slider 322 in the driving groove 321 and compress the second return spring 324. At this time, the bent hollow glass aluminum strip 122 can fit tightly with the first mounting plate 3. When the flip plate 211 returns to its original position after bending, the second return spring 324 releases its elastic potential energy, pushing the sliding plate 323 and the wedge block 325 to return to their original positions. The wedge block 325 will reposition the bent hollow glass aluminum strip 122 (this repositioning is to prevent the bent hollow glass aluminum strip 122 from moving horizontally, but it can move vertically because the hollow glass aluminum strip 122 itself has a certain rigidity, so it will not fall). When the insulating glass aluminum strip 122 needs to be bent a second time, the insulating glass aluminum strip 122 after the first bend will be subjected to subsequent transmission force or bending force. At this time, the top plate 312 above the second mounting plate 31, which is vertically set at the top of the first mounting plate 3, acts as a limit. The bottom of the top plate 312 has two mutually symmetrical guide grooves 313. Two mutually symmetrical guide sliders 314 are slidably arranged in the inner cavity of the guide grooves 313. The end of the guide slider 314 away from the guide groove 313 is fixed on the second mounting plate 31. The other end of the first return spring 315 connected to one side wall of the inner cavity of the guide groove 313 is connected to the guide slider 314. Under the elastic adjustment of the first return spring 315, the second mounting plate 31 can slide appropriately in the guide groove 313 through the guide slider 314, ensuring that the insulating glass aluminum strip 122 after the first bend can smoothly enter between the top plate 312 and the second mounting plate 31, providing a stable operating space for the second bend. The insulated glass aluminum strip 122 is bent by flipping the flip plate 211 driven by the starting component. The insulated glass aluminum strip 122 is positioned by the assistance of the first limiting plate 224, the second limiting plate 225 and the positioning plate 242. When the insulated glass aluminum strip 122 is bent into a vertical state, its bent end can be effectively limited by the wedge block 325. This not only avoids the insulated glass aluminum strip 122 from moving too much or too little due to the influence of the previous bend when it is transported next time, but also prevents the insulated glass aluminum strip 122 from shaking after bending. This, to a certain extent, avoids the insulated glass aluminum strip 122 from being damaged by shaking at the bending point after multiple bends.
Claims
1. A processing equipment for aluminum strips in insulating glass, comprising a workbench (1), characterized in that: A transmission platform (12) is provided on one side wall of the workbench (1). A placement slot (11) is also provided above the workbench (1). A rectangular slot (111) is also provided inside the placement slot (11). An installation slot (112) is also provided at the bottom of the rectangular slot (111). The installation slot (112) passes through the workbench (1). Four movable slots (113) are also provided above the workbench (1). The four movable slots (113) are symmetrical to each other in pairs. A first limiting plate (224) and a second limiting plate (225) are respectively provided above each pair of the four movable slots (113). A flip plate (211) is provided inside the rectangular slot (111). A hollow glass aluminum strip (122) is also placed above the workbench (1). The hollow glass aluminum strip (122) is also located on the flip plate (211) and the transfer table (12). A first mounting plate (3) is also provided above the workbench (1). A mounting rod (33) is provided at the bottom of the first mounting plate (3). Both ends of the mounting rod (33) are provided in the inner cavity of the workbench (1). A second mounting plate (31) is vertically provided at the top of the first mounting plate (3). A positioning plate (242) is also provided above the workbench (1). The workbench (1) is also provided with a drive assembly, which is used to drive the flip plate (211) to rotate. The flip plate (211) rotates to press the placed hollow glass aluminum strip (122) with the positioning plate (242), and is also used to position the two sides of the placed hollow glass aluminum strip (122) with the first limiting plate (224) and the second limiting plate (225). The flip plate (211) flips to bend the placed hollow glass aluminum strip (122).
2. The insulating glass aluminum strip processing equipment according to claim 1, characterized in that, A plurality of equidistant limiting members (121) are provided above the transmission station (12), and hollow glass aluminum strips (122) are placed inside the limiting members (121).
3. The insulating glass aluminum strip processing equipment according to claim 1, characterized in that, The drive assembly includes an electric motor (2), which is mounted on a workbench (1). The output end of the electric motor (2) is provided with a rotating rod (21), which moves through the workbench (1). A bearing (212) is provided at the end of the rotating rod (21) away from the electric motor (2). The bearing (212) is located in the inner cavity of a rectangular slot (111). A flip plate (211) is also provided on the rotating rod (21).
4. The insulating glass aluminum strip processing equipment according to claim 3, characterized in that, The bottom of the flip plate (211) is provided with a drive plate (22), one end of the drive plate (22) is provided with an L-shaped connecting plate (221), the L-shaped connecting plate (221) is also located in the inner cavity of the mounting slot (112), the bottom of the L-shaped connecting plate (221) is also provided with four swing arms (222) that are symmetrical to each other, the other end of the four swing arms (222) is provided with a moving plate (223), the four moving plates (223) are respectively provided with a first limiting plate (224) and a second limiting plate (225), and the four moving plates (223) are respectively movably inserted through the moving slot (113).
5. The insulating glass aluminum strip processing equipment according to claim 1, characterized in that, Two movable slides (231) are provided on the opposite side walls of the inner cavity of the mounting slot (112). The four movable slides (231) are symmetrical to each other. Sliding rods (23) are slidably arranged in the inner cavity of the four movable slides (231). The four sliding rods (23) are symmetrical to each other. One end of each pair of sliding rods (23) is connected to the L-shaped connecting plate (221). Tension springs (232) are respectively arranged above the four sliding rods (23). The four tension springs (232) are respectively located in the inner cavity of the movable slide (231), and the other end of the tension springs (232) is arranged in the inner wall of the movable slide (231).
6. The insulating glass aluminum strip processing equipment according to claim 1, characterized in that, The positioning plate (242) is provided with slide rails (243) at both ends. The two slide rails (243) are provided on the opposite side walls of the inner cavity of the placement slot (11). The bottom of the positioning plate (242) is also provided with two mutually symmetrical third return springs (245), and the other end of the third return springs (245) is provided at the bottom of the inner cavity of the placement slot (11). The positioning plate (242) is provided with a rotating plate (241) above it. The bottom of the other end of the rotating plate (241) is provided with a connecting plate (24). The rotating plate (241) is fixedly provided with a rotating rod (244) in the middle. The two ends of the rotating rod (244) are rotatably provided on the opposite side walls of the inner cavity of the placement slot (11). The bottom ends of the connecting plate (24) are provided with positioning rods (233). The two positioning rods (233) are symmetrical to each other. The two positioning rods (233) are respectively movably passed through the worktable (1) above it, and the other end is respectively connected to the sliding rod (23).
7. The insulating glass aluminum strip processing equipment according to claim 1, characterized in that, The first mounting plate (3) has a plurality of rectangular mounting cylinders (32) arranged at equal intervals on one side wall, and each rectangular mounting cylinder (32) is symmetrical to each other. Each rectangular mounting cylinder (32) has a drive groove (321) on each opposite side wall of its inner cavity. Each drive groove (321) is symmetrical to each other. Each drive groove (321) has a drive slider (322) in its inner cavity. Each drive slider (322) is symmetrical to each other. Each drive slider (322) has a sliding plate (323) at one opposite end.
8. The insulating glass aluminum strip processing equipment according to claim 7, characterized in that, Each of the sliding plates (323) has a wedge block (325) on each of its two opposite sidewalls, and a second return spring (324) on each of its two opposite sidewalls. The other end of each of the second return springs (324) is respectively disposed on the inner wall of the rectangular mounting cylinder (32).
9. The insulating glass aluminum strip processing equipment according to claim 1, characterized in that, A top plate (312) is provided above the second mounting plate (31). Two symmetrical guide grooves (313) are provided at the bottom of the top plate (312). Two symmetrical guide sliders (314) are slidably provided in the inner cavity of the two guide grooves (313). The end of the guide slider (314) away from the guide groove (313) is provided on the second mounting plate (31).
10. The insulating glass aluminum strip processing equipment according to claim 9, characterized in that, A first reset spring (315) is provided on one side wall of the inner cavity of the two guide grooves (313), and the other end of the first reset spring (315) is provided on the guide slider (314).