Adjustable cutting device for glass processing

Abstract

This utility model relates to the field of glass processing technology, specifically an adjustable cutting device for glass processing, including an adjustment frame and an operating table. A limiting plate A and a limiting plate B for clamping the glass are slidably connected to the inner side of the operating table, with limiting plate A located to the left of limiting plate B. When the connecting block drives the cutting blade to cut the glass, the support plate below the connecting block first contacts the glass surface. Then, as the connecting block moves downward, a bracket on one side of the connecting block slides in a groove within the connecting block. A spring welded inside the connecting block generates elastic force under the pressure of the bracket. Then, the cutting blade and the scribing needle pass through the support plate and contact the glass surface. The scribing needle and the cutting blade are coaxial and at the same horizontal height. During the glass cutting process, the connecting block simultaneously drives the scribing needle to scribble lines on the glass cut, deepening the cutting marks on the glass, preventing the crack from deviating when broken, and improving the accuracy and efficiency of glass cutting.

Description

Technical Field

[0001] This utility model relates to the field of glass processing technology, specifically to an adjustable cutting device for glass processing. Background Technology

[0002] Glass is an amorphous inorganic non-metallic material, generally made from a variety of inorganic minerals as the main raw materials, with the addition of a small amount of auxiliary raw materials. Its main components are silicon dioxide and other oxides. It is widely used in buildings for wind insulation and light transmission, and is a mixture.

[0003] Patent No. 202121943801.3 discloses an adjustable cutting device for processing fireproof glass. The device moves the limiting block by rotating the bidirectional lead screw and cooperating with various components, making the whole device suitable for glass of different sizes. Furthermore, by setting four limiting blocks, the four corners of the fireproof glass are protected to prevent the glass from shifting during the cutting process.

[0004] However, existing adjustable cutting devices for glass processing use a cutting blade to scratch the surface of the glass, and then use external tools to separate the glass along the scratches. However, the glass surface scatters light, obscuring the scratches, making it impossible for workers to clearly observe the location of the scratches on the glass, which affects the cutting accuracy. At the same time, when the cutting blade inside the connecting plate moves, workers need to manually adjust it, which is cumbersome and affects the glass processing efficiency. Therefore, an adjustable cutting device for glass processing is proposed. Utility Model Content

[0005] To address the problems in the background art, this utility model provides an adjustable cutting device for glass processing.

[0006] The technical solution adopted by this utility model to solve its technical problem is an adjustable cutting device for glass processing, including an adjusting frame and an operating table. A limiting plate A and a limiting plate B for clamping glass are slidably connected to the inner side of the operating table, with limiting plate A located to the left of limiting plate B. A clamping assembly for moving limiting plates A and B is provided inside the operating table. A driving assembly for moving the adjusting frame is provided on one side of the operating table. An electric telescopic rod is provided at the bottom of the adjusting frame, and a connecting block is screwed to the power output end of the electric telescopic rod. A transmission assembly for moving the electric telescopic rod is provided inside the adjusting frame. A scribing needle and a cutting blade are screwed to the bottom of the connecting block, with the cutting blade located to the right of the scribing needle. Limiting grooves are symmetrically formed inside the connecting block, and a bracket is slidably connected to the inner side of the limiting groove. A spring for resetting the bracket is welded to one side of the bracket. A support plate is screwed to the bottom of the bracket, and a brush for cleaning the glass is screwed to the inner side of the support plate.

[0007] By adopting the above technical solution, when cutting glass, the glass to be processed is first placed in the operating table. Then, the clamping component in the operating table drives the limiting plate A and the limiting plate B to move, so that the limiting plate A and the limiting plate B clamp the glass. Then, the driving component on the operating table adjusts the position of the adjusting frame. At the same time, the transmission component in the adjusting frame drives the cutting blade in the connecting block to move, so that the position of the cutting blade is adjusted, which facilitates the cutting of different positions of the glass and improves the glass processing efficiency.

[0008] When the connecting block drives the cutting blade to cut the glass, the support plate below the connecting block first contacts the glass surface. Then, the connecting block moves down, and the bracket on one side of the connecting block slides in the groove opened in the connecting block. The spring welded in the connecting block generates elastic force due to the compression of the bracket. Then, the cutting blade passes through the support plate and contacts the glass surface. At the same time, the scribing needle on one side of the connecting block passes through the support plate and contacts the glass surface. The scribing needle and the cutting blade are in the same position on the same axis and at the same horizontal height. During the process of the connecting block driving the cutting blade to cut the glass, the connecting block synchronously drives the scribing needle to move, so that the scribing needle scribing the glass cut area, deepening the cut marks on the glass, and preventing the crack from deviating when it is broken.

[0009] When the cutting blade cuts the glass, the brush block inside the support plate moves with the cutting blade, causing the brush block to clean the debris cut from the glass surface.

[0010] After the glass is cut, the electric telescopic rod inside the transmission block drives the connecting block to move longitudinally upward. Then, when the pressure on the support plate below the connecting block is released, the spring inside the connecting block causes the support plate on one side of the bracket to pop outward, so that the support plate moves outside the cutting blade, improving safety performance.

[0011] Specifically, the drive assembly includes a servo motor A, a reducer A, a threaded rod A, and a drive sleeve. The servo motor A, which provides power, is bolted to the outside of the operating table, and the reducer A is connected to the flange at the power output end of the servo motor A. The threaded rod A is connected to one side of the reducer A, and the drive sleeve, which drives the adjustment frame to move, is externally threaded to the threaded rod A.

[0012] By adopting the above technical solution, when the position of the adjustment frame needs to be adjusted, the servo motor A on the operating table drives the threaded rod A to rotate through the reducer A. Then, the drive sleeve outside the threaded rod A is limited by the external structure, and the drive sleeve moves laterally outside the threaded rod A. Subsequently, the drive sleeve A drives the externally welded adjustment frame to move laterally, thereby facilitating the adjustment of the position of the adjustment frame.

[0013] Specifically, the transmission assembly includes a servo motor B, a reducer B, a threaded rod B, and a transmission block. The servo motor B, which provides power, is bolted to the outside of the adjustment frame, and the reducer B is connected to the flange at the power output end of the servo motor B. The threaded rod B is connected to a key on one side of the reducer B, and the transmission block, which drives the electric telescopic rod to move, is externally threaded to the threaded rod B.

[0014] By adopting the above technical solution, when glass needs to be cut, the servo motor B inside the adjustment frame drives the threaded rod B to rotate clockwise through the reducer B. Then, the transmission block outside the threaded rod B is limited by the external structure. The transmission block drives the electric telescopic rod fixed by the screw below to move, so that the cutting blade on the connecting block at the end of the electric telescopic rod moves to the end of the adjustment frame. Then, the electric telescopic rod drives the connecting block to move vertically downward, so that the connecting block drives the cutting blade to contact the glass. Then, the servo motor B drives the threaded rod B to rotate counterclockwise through the reducer B, and then the transmission block drives the connecting block below the electric telescopic rod to move, so that the connecting block drives the cutting blade to cut the glass.

[0015] Specifically, the clamping assembly includes a servo motor C, a reducer C, a bidirectional lead screw, a lead sleeve A, and a lead sleeve B. The servo motor C, which provides power, is bolted inside the operating table. The reducer C is connected to a flange on one side of the servo motor C, and the bidirectional lead screw is connected to a key on one side of the reducer C. The lead screw is externally threaded with lead sleeves A and B. Lead sleeve A is welded to the end of the limiting plate A, and lead sleeve B is welded to the end of the limiting plate B.

[0016] By adopting the above technical solution, when fixing the glass to be processed, the glass is first placed in the operating table. Then, the servo motor C in the operating table drives the bidirectional lead screw to rotate clockwise through the reducer C. Subsequently, the threaded sleeves A and B outside the bidirectional lead screw are limited by the external structure, so that threaded sleeves A and B move laterally towards each other through the positive and negative threads outside the bidirectional lead screw. Then, threaded sleeve A drives the limit plate A to move, and threaded sleeve B drives the limit plate B to move, so that the limit plate A and limit plate B slide in the operating table. Then, the limit plate A and limit plate B come into contact with the glass, which facilitates the clamping and fixing of the glass to be processed and avoids shaking during glass cutting.

[0017] Specifically, the bottom of the adjustment frame is screwed with a telescopic plate that is connected to the connecting block.

[0018] By adopting the above technical solution, when the electric telescopic rod drives the connecting block to move longitudinally downward, the telescopic plate fixed by screws on one side of the connecting block extends; when the electric telescopic rod drives the connecting block to move longitudinally upward, the telescopic plate retracts, thereby improving the stability of the connecting block's movement.

[0019] The beneficial effects of this utility model are:

[0020] (1) The adjustable cutting device for glass processing described in this utility model, when cutting glass, first place the glass to be processed into the operating table, then the clamping component in the operating table drives the limiting plate A and the limiting plate B to move, so that the limiting plate A and the limiting plate B clamp the glass, then the driving component on the operating table adjusts the position of the adjusting frame, and at the same time the transmission component in the adjusting frame drives the cutting blade in the connecting block to move, so that the position of the cutting blade is adjusted, which facilitates the cutting of different positions of the glass and improves the glass processing efficiency.

[0021] (2) The adjustable cutting device for glass processing described in this utility model, when the connecting block drives the cutting blade to cut the glass, the support plate below the connecting block first contacts the glass surface, and then the connecting block moves down, the bracket on one side of the connecting block slides in the groove opened in the connecting block, the spring welded in the connecting block generates elastic force due to the compression of the bracket, and then the cutting blade passes through the support plate and contacts the glass surface. At the same time, the scribing needle on one side of the connecting block passes through the support plate and contacts the glass surface. The scribing needle and the cutting blade are in the same position on the same axis and at the same horizontal height. During the process of the connecting block driving the cutting blade to cut the glass, the connecting block synchronously drives the scribing needle to move, so that the scribing needle scribing the glass cutting area, deepening the cutting marks on the glass, avoiding the deviation of the crack when breaking, and improving the accuracy and efficiency of glass cutting.

[0022] (3) The adjustable cutting device for glass processing described in this utility model, when the cutting knife cuts the glass, the brush block in the support plate moves with the cutting knife, so that the brush block cleans the debris cut on the glass surface.

[0023] (4) The adjustable cutting device for glass processing described in this utility model, after the glass is cut, the electric telescopic rod in the transmission block drives the connecting block to move longitudinally upward. Then, when the pressure of the support plate below the connecting block is released, the spring in the connecting block drives the support plate on one side of the bracket to pop outward, so that the support plate moves to the outside of the cutting blade, thereby improving safety performance. Attached Figure Description

[0024] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0025] Figure 1 This is a schematic diagram of the overall structure of an adjustable cutting device for glass processing according to the present invention.

[0026] Figure 2 This is a schematic diagram of the internal structure of the connecting block of an adjustable cutting device for glass processing according to this utility model;

[0027] Figure 3 This is a schematic diagram of the internal transmission component structure of the adjustment frame of an adjustable cutting device for glass processing according to this utility model.

[0028] Figure 4 This is a schematic diagram of the internal clamping component structure of the operating table of an adjustable cutting device for glass processing according to this utility model.

[0029] In the diagram: 1. Adjusting frame; 2. Drive sleeve; 3. Threaded rod A; 4. Drive assembly; 5. Spring; 6. Limiting plate A; 7. Operating table; 8. Reducer A; 9. Limiting groove; 10. Limiting plate B; 11. Electric telescopic rod; 12. Connecting block; 13. Servo motor A; 14. Telescopic plate; 15. Marking needle; 16. Brush body; 17. Cutting knife; 18. Support plate; 19. Threaded rod B; 20. Servo motor B; 21. Reducer B; 22. Transmission block; 23. Transmission assembly; 24. Threaded sleeve A; 25. Clamping assembly; 26. Reducer C; 27. Threaded sleeve B; 28. Bidirectional lead screw; 29. ​​Servo motor C; 30. Bracket. Detailed Implementation

[0030] To make the technical means, creative features, objectives and effects of this utility model easier to understand, the present utility model will be further described below in conjunction with specific embodiments.

[0031] To improve glass processing efficiency, as one embodiment of this utility model, such as... Figure 1 , Figure 2 , Figure 3 and Figure 4 As shown, the adjustable cutting device for glass processing according to this utility model includes an adjusting frame 1 and an operating table 7. A limiting plate A6 and a limiting plate B10 for clamping the glass are slidably connected to the inner side of the operating table 7, with the limiting plate A6 located to the left of the limiting plate B10. A clamping assembly 25 is provided inside the operating table 7 to move the limiting plates A6 and B10. A driving assembly 4 for moving the adjusting frame 1 is provided on one side of the operating table 7. An electric telescopic rod 11 is provided at the bottom of the adjusting frame 1, and the power output end of the electric telescopic rod 11... A connecting block 12 is fixed with screws. The adjusting frame 1 is equipped with a transmission component 23 that drives the electric telescopic rod 11 to move. A scribing needle 15 and a cutting blade 17 are fixed with screws at the bottom of the connecting block 12, and the cutting blade 17 is located to the right of the scribing needle 15. A limit groove 9 is symmetrically opened inside the connecting block 12, and a bracket 30 is slidably connected inside the limit groove 9. A spring 5 that resets the bracket 30 is welded to one side of the bracket 30. A support plate 18 is fixed with screws at the bottom of the bracket 30, and a brush body 16 for cleaning glass is fixed with screws inside the support plate 18.

[0032] When using the glass, the glass to be processed is first placed in the operating table 7. Then, the clamping component 25 in the operating table 7 drives the limiting plate A6 and the limiting plate B10 to move, so that the limiting plate A6 and the limiting plate B10 clamp the glass. Then, the driving component 4 on the operating table 7 adjusts the position of the adjusting frame 1. At the same time, the transmission component 23 in the adjusting frame 1 drives the cutting blade 17 in the connecting block 12 to move, so that the position of the cutting blade 17 is adjusted, which facilitates the cutting of the glass at different positions and improves the glass processing efficiency.

[0033] When the connecting block 12 drives the cutting blade 17 to cut the glass, the support plate 18 below the connecting block 12 first contacts the glass surface. Then, as the connecting block 12 moves down, the bracket 30 on one side of the connecting block 12 slides in the groove opened in the connecting block 12. The spring 5 welded in the connecting block 12 generates elastic force due to the compression of the bracket 30. Then, the cutting blade 17 passes through the support plate 18 and contacts the glass surface. At the same time, the scribing needle 15 on one side of the connecting block 12 passes through the support plate 18 and contacts the glass surface. The scribing needle 15 and the cutting blade 17 are in a coaxial and horizontal position. During the process of the connecting block 12 driving the cutting blade 17 to cut the glass, the connecting block 12 synchronously drives the scribing needle 15 to move, so that the scribing needle 15 scribing the glass cut area, deepening the cut marks on the glass, and preventing the crack from deviating when broken.

[0034] When the cutting blade 17 cuts the glass, the brush block inside the support plate 18 moves with the cutting blade 17, so that the brush block cleans the debris cut from the glass surface.

[0035] After the glass is cut, the electric telescopic rod 11 in the transmission block 22 drives the connecting block 12 to move longitudinally upward. Then, when the pressure on the support plate 18 below the connecting block 12 is released, the spring 5 in the connecting block 12 drives the support plate 18 on one side of the bracket 30 to pop outward, so that the support plate 18 moves to the outside of the cutting blade 17, improving safety performance.

[0036] To adjust the position of the adjustment bracket 1, for example, such as Figure 1 As shown, the present invention also includes the following: the drive assembly 4 includes a servo motor A13, a reducer A8, a threaded rod A3 and a drive sleeve 2. The servo motor A13, which provides power, is bolted to the outside of the operating table 7, and the reducer A8 is connected to the flange at the power output end of the servo motor A13. The threaded rod A3 is connected to one side of the reducer A8, and the drive sleeve 2, which drives the adjustment frame 1 to move, is threaded to the outside of the threaded rod A3.

[0037] When the position of the adjusting frame 1 needs to be adjusted, the servo motor A13 on the operating table 7 drives the threaded rod A3 to rotate through the reducer A8. Then, the drive sleeve 2 outside the threaded rod A3 is limited by the external structure and moves laterally outside the threaded rod A3. Subsequently, the drive sleeve 2A drives the externally welded adjusting frame 1 to move laterally, thereby facilitating the adjustment of the position of the adjusting frame 1.

[0038] For example, in order to perform glass cutting, such as Figure 3 As shown, the present invention also includes the following: the transmission assembly 23 includes a servo motor B20, a reducer B21, a threaded rod B19, and a transmission block 22. The adjusting frame 1 is externally bolted to the servo motor B20, which provides power, and the power output end flange of the servo motor B20 is connected to the reducer B21. The reducer B21 is keyed to one side of the threaded rod B19, and the threaded rod B19 is externally threaded to the transmission block 22, which drives the electric telescopic rod 11 to move.

[0039] In use, when glass needs to be cut, the servo motor B20 inside the adjusting frame 1 drives the threaded rod B19 to rotate clockwise through the reducer B21. Then, the transmission block 22 outside the threaded rod B19 is limited by the external structure. The transmission block 22 drives the electric telescopic rod 11, which is fixed by screws below, to move. This moves the cutting blade 17 on the connecting block 12 at the end of the electric telescopic rod 11 to the end of the adjusting frame 1. Then, the electric telescopic rod 11 drives the connecting block 12 to move vertically downward, so that the connecting block 12 drives the cutting blade 17 to contact the glass. Then, the servo motor B20 drives the threaded rod B19 to rotate counterclockwise through the reducer B21. This causes the transmission block 22 to drive the connecting block 12 below the electric telescopic rod 11 to move, so that the connecting block 12 drives the cutting blade 17 to cut the glass.

[0040] To prevent the glass from wobbling during cutting, for example, such as Figure 4 As shown, this utility model also includes the clamping assembly 25, which includes a servo motor C29, a reducer C26, a bidirectional lead screw 28, a lead sleeve A24, and a lead sleeve B27. The servo motor C29, which provides power, is bolted inside the operating table 7. The reducer C26 is connected to a flange on one side of the servo motor C29, and the bidirectional lead screw 28 is connected to a key on one side of the reducer C26. The lead screw 28 is externally threaded with lead sleeves A24 and B27. The lead sleeve A24 is welded to the end of the limiting plate A6, and the lead sleeve B27 is welded to the end of the limiting plate B10.

[0041] In use, when the glass to be processed needs to be fixed, the glass is first placed in the operating table 7. Then, the servo motor C29 in the operating table 7 drives the bidirectional lead screw 28 to rotate clockwise through the reducer C26. Subsequently, the thread sleeves A24 and B27 outside the bidirectional lead screw 28 are limited by the external structure, so that the thread sleeves A24 and B27 move laterally towards each other through the positive and negative threads outside the bidirectional lead screw 28. Then, the thread sleeve A24 drives the limit plate A6 to move, and the thread sleeve B27 drives the limit plate B10 to move, so that the limit plate A6 and the limit plate B10 slide in the operating table 7. Then, the limit plate A6 and the limit plate B10 contact the glass, which facilitates the clamping and fixing of the glass to be processed and avoids shaking during glass cutting.

[0042] To improve the stability of the movement of connecting block 12, for example, such as Figure 1 As shown, the present invention also includes a telescopic plate 14 connected to the connecting block 12, which is screwed to the bottom of the adjusting frame 1.

[0043] When in use, when the electric telescopic rod 11 drives the connecting block 12 to move longitudinally downward, the telescopic plate 14 fixed by screws on one side of the connecting block 12 extends. When the electric telescopic rod 11 drives the connecting block 12 to move longitudinally upward, the telescopic plate 14 retracts, thereby improving the stability of the movement of the connecting block 12.

[0044] In use, the glass is first placed on the operating table 7. Then, the servo motor C29 inside the operating table 7, controlled by the PLC controller, drives the bidirectional lead screw to rotate clockwise 28 via the reducer C26. Subsequently, the threaded sleeves A24 and B27 outside the bidirectional lead screw 28 are limited by the external structure, causing them to move laterally towards each other through the positive and negative threads on the outside of the bidirectional lead screw 28. Then, threaded sleeve A24 drives the limiting plate A6 to move, and threaded sleeve B27 drives the limiting plate B10 to move, allowing the limiting plates A6 and B10 to slide within the operating table 7. Then, the limiting plates A6 and B10 come into contact with the glass, thus facilitating the clamping and fixing of the glass to be processed and preventing shaking during glass cutting. The servo motor A13, controlled by the PLC controller, drives the threaded rod A3 to rotate via the reducer A8. Then, the drive sleeve 2 outside the threaded rod A3 is limited by an external structure, causing it to move laterally outside the threaded rod A3. Subsequently, the drive sleeve 2 drives the externally welded adjusting frame 1 to move laterally. Then, the servo motor B20 inside the adjusting frame 1, controlled by the PLC controller, drives the threaded rod B19 to rotate clockwise via the reducer B21. Then, the transmission block 22 outside the threaded rod B19 is limited by an external structure, causing the transmission block 22 to drive the electric telescopic rod 11, which is fixed by screws below, to move. This causes the cutting blade 17 on the connecting block 12 at the end of the electric telescopic rod 11 to move to the end of the adjusting frame 1. Finally, the electric telescopic rod 11, controlled by the PLC controller, drives the connecting block 12... The vertical downward movement causes the connecting block 12 to bring the cutting blade 17 into contact with the glass. Then, the servo motor B20, controlled by the PLC controller, drives the threaded rod B19 to rotate counterclockwise via the reducer B21. This, in turn, causes the transmission block 22 to move the connecting block 12 below the electric telescopic rod 11, allowing the connecting block 12 to move and drive the cutting blade 17 to cut the glass. The cutting process involves making marks on the glass surface, and then using external tools to separate the glass along the marks. When the connecting block 12 drives the cutting blade 17 to cut the glass, the support plate 18 below the connecting block 12 first contacts the glass surface. Subsequently, as the connecting block 12 moves downward, the bracket 30 on one side of the connecting block 12 slides in the groove opened inside the connecting block 12. The spring 5 welded inside the connecting block 12 is compressed by the bracket 30. A spring force is generated, and then the cutting blade 17 passes through the support plate 18 and contacts the glass surface. At the same time, the scribing needle 15 on one side of the connecting block 12 passes through the support plate 18 and contacts the glass surface. The scribing needle 15 and the cutting blade 17 are coaxial and at the same horizontal height. During the glass cutting process, the connecting block 12 drives the cutting blade 17 to move synchronously, so that the scribing needle 15 scribing lines on the glass cut area, deepening the cutting marks on the glass, and preventing the crack from deviating when broken. At the same time, the brush block in the support plate 18 cleans the debris cut from the glass surface as the cutting blade 17 moves. After the glass cutting is completed, the electric telescopic rod 11 in the transmission block 22 drives the connecting block 12 to move longitudinally upward, so that the cutting blade 17 separates from the glass.Then, when the pressure on the support plate 18 below the connecting block 12 is released, the spring 5 inside the connecting block 12 causes the support plate 18 on one side of the bracket 30 to pop outward, moving the support plate 18 outside the cutting blade 17, improving safety. Then, the servo motor C29 inside the operating table 7, under the action of the PLC controller, drives the bidirectional lead screw 28 to rotate counterclockwise through the reducer C26. Subsequently, the thread sleeves A24 and B27 outside the bidirectional lead screw 28 are both limited by the external structure, causing the thread sleeves A24 and B27 to move laterally in opposite directions through the positive and negative threads outside the bidirectional lead screw 28, causing the limiting plate A6 and the limiting plate B10 to separate from the glass, and the cut glass is removed from the operating table 7.

[0045] The foregoing has shown and described the basic principles, main features, and advantages of this utility model. Those skilled in the art should understand that this utility model is not limited to the above embodiments. The descriptions of the above embodiments and specifications are merely illustrative of the principles of this utility model. Various changes and modifications can be made to this utility model without departing from its spirit and scope, and all such changes and modifications fall within the scope of protection claimed by this utility model. The scope of protection of this utility model is defined by the appended claims and their equivalents.

Claims

1. An adjustable cutting device for glass processing, characterized in that, The system includes an adjustment frame (1) and an operating table (7). The operating table (7) has a sliding connection between a limiting plate A (6) and a limiting plate B (10) for clamping the glass, with the limiting plate A (6) located to the left of the limiting plate B (10). The operating table (7) contains a clamping assembly (25) that moves the limiting plates A (6) and B (10). A driving assembly (4) that moves the adjustment frame (1) is located on one side of the operating table (7). An electric telescopic rod (11) is located at the bottom of the adjustment frame (1), and a connecting block (12) is screwed to the power output end of the electric telescopic rod (11). The frame (1) is equipped with a transmission assembly (23) that drives the electric telescopic rod (11) to move. The bottom of the connecting block (12) is screwed with a scribing needle (15) and a cutting blade (17), and the cutting blade (17) is located to the right of the scribing needle (15). The connecting block (12) has symmetrically opened limit grooves (9), and a bracket (30) is slidably connected inside the limit groove (9). A spring (5) is welded to one side of the bracket (30) to reset the bracket (30). The bottom of the bracket (30) is screwed with a support plate (18), and a brush body (16) for cleaning glass is screwed inside the support plate (18).

2. The adjustable cutting device for glass processing according to claim 1, characterized in that, The drive assembly (4) includes a servo motor A (13), a reducer A (8), a threaded rod A (3), and a drive sleeve (2). The servo motor A (13) that provides power is bolted to the outside of the operating table (7), and the reducer A (8) is flanged to the power output end of the servo motor A (13). The threaded rod A (3) is keyed to one side of the reducer A (8), and the drive sleeve (2) that drives the adjustment frame (1) to move is threaded to the outside of the threaded rod A (3).

3. The adjustable cutting device for glass processing according to claim 1, characterized in that, The transmission assembly (23) includes a servo motor B (20), a reducer B (21), a threaded rod B (19), and a transmission block (22). The adjustment frame (1) is externally bolted to the servo motor B (20) which provides power, and the servo motor B (20) is flanged to the power output end of the servo motor B (20). The reducer B (21) is keyed to one side of the reducer B (21), and the threaded rod B (19) is externally threaded to the transmission block (22) which drives the electric telescopic rod (11) to move.

4. The adjustable cutting device for glass processing according to claim 1, characterized in that, The clamping assembly (25) includes a servo motor C (29), a reducer C (26), a bidirectional lead screw (28), a lead sleeve A (24), and a lead sleeve B (27). The servo motor C (29) providing power is bolted inside the operating table (7). The reducer C (26) is connected to a flange on one side of the servo motor C (29), and the bidirectional lead screw (28) is connected to a key on one side of the reducer C (26). The lead screw (28) is externally threaded with lead sleeve A (24) and lead sleeve B (27). The lead sleeve A (24) is welded to the end of the limiting plate A (6), and the lead sleeve B (27) is welded to the end of the limiting plate B (10).

5. The adjustable cutting device for glass processing according to claim 1, characterized in that, The bottom of the adjustment frame (1) is screwed with a telescopic plate (14) that is connected to the connecting block (12).

Images