An automated production line for laser cutting of glass splits

Abstract

This utility model relates to the field of glass processing equipment technology, specifically to an automated production line for laser cutting and dicing glass. It includes a mounting base, on which a laser cutting and dicing machine is mounted. A cleaning conveying module for cleaning and transferring the glass to be processed is located on the left side of the mounting base, and a transfer and collection module for conveying the glass processed by the laser cutting and dicing machine is located on the right side of the mounting base. The transfer and collection module extends to the left into the laser cutting and dicing machine. The cleaning conveying module transports the glass to be processed onto the transfer and collection module located inside the laser cutting and dicing machine. This utility model, through the precise cooperation of the cleaning conveying module and the transfer and collection module, ensures a smooth transition of the glass from the cleaning conveying module to the transfer and collection module, guaranteeing stable glass transport throughout the entire processing flow, reducing processing errors caused by unstable transport, and improving production efficiency.

Description

Technical Field

[0001] This utility model relates to the field of glass processing equipment technology, specifically to an automated production line for laser cutting and splitting glass. Background Technology

[0002] In the glass processing industry, laser cutting and cleaving technology is widely used due to its high precision and minimal damage. However, existing production lines suffer from problems such as poor process integration, insufficient transmission stability, and unsatisfactory cleaning effects. The cleaning and pretreatment of glass to be processed and the collection and transport of glass after cutting often require manual intervention, which is not only inefficient, but also prone to glass positioning deviation due to connection errors; insufficient fit of the transport structure can easily cause the glass to shake or shift during transport, affecting the quality of subsequent cutting; at the same time, glass debris remaining on the surface of the transport belt is difficult to clean thoroughly, which can easily scratch the glass to be processed later, and the debris attached to the cleaning components themselves can also cause secondary pollution. Therefore, there is an urgent need for an automated production line that can achieve precise module matching, strict limitation of part positions, and thorough cleaning. Summary of the Invention

[0003] (a) Technical problems to be solved This invention can solve the technical problems existing in the above-mentioned glass laser cleaving process.

[0004] (II) Technical Solution To achieve the above objectives, the present invention adopts the following technical solution: an automated production line for laser cutting and sharding of glass, comprising a mounting base, a laser cutting and sharding machine mounted on the mounting base, a cleaning conveying module for cleaning and conveying the glass to be processed on the left side of the mounting base, and a conveying and collecting module for conveying the glass processed by the laser cutting and sharding machine on the right side of the mounting base, the conveying and collecting module extending to the left into the laser cutting and sharding machine, and the cleaning conveying module conveying the glass to be processed onto the conveying and collecting module located inside the laser cutting and sharding machine; The cleaning conveying module includes a mounting frame mounted on a mounting base plate, a conveying unit mounted on the mounting frame, and a spray washing unit for treating the glass surface and a drying unit for cleaning the glass, arranged sequentially from left to right on the mounting frame. The transmission and collection module includes a transmission frame mounted on a mounting base. The transmission frame extends to the left into the laser cutting and cleaving machine, and the left end of the transmission frame is connected to the mounting base. Transmission rollers are mounted on both the left and right ends of the transmission frame via bearings. The transmission rollers are connected to each other by a transmission belt. A transmission motor is mounted on the transmission frame via a motor mount. The transmission motor is connected to the transmission roller located on the right side of the transmission frame. A cleaning unit is provided at the lower right end of the transmission frame. A collection frame for collecting glass waste is provided on the upper right side of the mounting base.

[0005] Preferably, the conveying unit includes conveying rollers evenly spaced from left to right on the mounting frame. The conveying rollers are mounted on the mounting frame via bearings. A pulley is provided at the right end of the conveying rollers. The pulleys are connected to each other by a belt. A conveying motor is provided on the mounting frame. The output shaft of the conveying motor is connected to one of the pulleys via a coupling.

[0006] Preferably, the spray washing unit includes a spray washing frame mounted on a mounting frame, spray washing components arranged side by side inside the spray washing frame, an adjusting gear mounted on the outer wall of the spray washing frame between the spray washing components via a bearing, an adjusting motor mounted on the outer wall of the spray washing frame, the output shaft of the adjusting motor connected to the adjusting gear, a conveying roller between the spray washing components having a hollow structure and suction cups evenly distributed on its surface, and sponge blocks symmetrically arranged on the upper and lower right end of the spray washing frame.

[0007] Preferably, the spraying component includes spray pipes symmetrically arranged on the upper and lower sides of the inner wall of the spraying frame via bearings, high-pressure nozzles are provided on the spray pipes, and linkage gears are provided on the outer wall of the spray pipes. The two linkage gears mesh with each other, and one of the linkage gears meshes with the control gear. Preferably, the drying unit includes a drying frame mounted on a mounting frame, an auxiliary component at the left end of the drying frame, a hot air generator inside the drying frame, and hot air nozzles symmetrically arranged inside the drying frame, with two hot air nozzles connected to the hot air generator via air ducts.

[0008] Preferably, the auxiliary component includes a mounting bracket disposed at the left end of the drying frame, a support spring rod disposed on the mounting bracket, an auxiliary bracket disposed on the support spring rod, an auxiliary roller disposed between the inner walls of the auxiliary bracket, suction cups evenly disposed along the circumference of the auxiliary roller, an auxiliary motor disposed on the auxiliary bracket, and the output shaft of the auxiliary motor being connected to the auxiliary roller.

[0009] Preferably, the cleaning unit includes a cleaning frame mounted on a conveyor frame via bearings. A vacuum cleaner is mounted on the left side of the cleaning frame, and a suction nozzle is connected to the vacuum cleaner via a suction pipe. The suction nozzle is fixed to a suction bracket, and an adjusting spring rod is mounted on the suction bracket. The suction nozzle is attached to the conveyor belt. An electric roller is mounted on the conveyor frame, and partition plates are evenly arranged along its circumference on the electric roller. Cleaning rings are symmetrically arranged on the front and rear sides of the electric roller. A cleaning rod is evenly arranged between two cleaning rings via bearings. The cleaning rod is located between two adjacent partition plates and has a cleaning brush attached to it. The cleaning brush is attached to the conveyor belt.

[0010] Preferably, the side wall of the cleaning rack is provided with an arc plate, and the surface of the arc plate is irregularly provided with protrusions.

[0011] (III) Beneficial Effects The precise coordination between the cleaning conveying module and the transmission and collection module designed in this utility model enables the glass to be processed to smoothly transition from the cleaning conveying module to the transmission and collection module, ensuring stable glass conveying throughout the entire processing flow, reducing processing errors caused by unstable transmission, and improving production efficiency. The cleaning and conveying module's spray washing unit can effectively remove impurities from the glass surface, while the drying unit can quickly dry the glass, providing a clean and dry glass surface for subsequent laser cutting. This helps improve the precision and quality of laser cutting and reduce defects during the cutting process. The cleaning unit of the conveyor collection module uses a combination of mechanical sweeping and adsorption to effectively clean up debris and waste on the conveyor belt, reduce the frequency of manual cleaning, keep the production environment clean, and avoid the impact of waste on subsequent glass processing. Attached Figure Description

[0012] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0013] Figure 1 This is a three-dimensional structural schematic diagram of the present invention; Figure 2 This is a first structural schematic diagram of the cleaning conveying module of this utility model; Figure 3 This is a second structural schematic diagram of the cleaning conveying module of this utility model; Figure 4 This is a schematic diagram of the structure between the mounting base plate and the transmission and collection module of this utility model; Figure 5 This is a utility model Figure 4 A sectional view; Figure 6 This is a schematic diagram of the structure between the transmission frame and the cleaning unit of this utility model; Figure 7 This is a schematic diagram of the structure between the dust collector and the grille plate of this utility model. Detailed Implementation

[0014] The embodiments of the present invention will be described in detail below with reference to the accompanying drawings. However, the present invention can be implemented in many different ways as defined and covered by the claims.

[0015] like Figure 1-7 As shown, an automated production line for laser cutting and sharding of glass includes a mounting base 1, on which a laser cutting and sharding machine 2 is mounted. A cleaning conveying module 3 is horizontally and coaxially aligned on the left side of the mounting base 1 for cleaning and conveying the glass to be processed. A conveying and collecting module 4 is mounted on the right side of the mounting base 1 for conveying the glass processed by the laser cutting and sharding machine 2. The left end of the conveying and collecting module 4 extends horizontally through the feed inlet of the laser cutting and sharding machine 2 and extends into its interior. The conveying surface of the conveying and collecting module 4 and the conveying surface of the cleaning conveying module 3 are at the same horizontal level. The right end of the cleaning conveying module 3 and the left end of the conveying and collecting module 4 form a seamless connection inside the laser cutting and sharding machine 2, ensuring that the glass to be processed can smoothly transition from the cleaning conveying module 3 to the conveying and collecting module 4.

[0016] The transmission and collection module 4 includes a transmission frame 41 mounted on the mounting base 1. The left end of the transmission frame 41 extends horizontally to below the cutting station inside the laser cutting and cleaving machine 2, and the right end is rigidly connected to the right edge of the mounting base 1 by bolts. Both ends of the transmission frame 41 are equipped with transmission rollers 42 via bearings. The transmission rollers 42 are connected by a transmission belt 44. The axis of the two transmission rollers 42 is on the same horizontal straight line and perpendicular to the length direction of the transmission frame 41. A transmission motor is mounted on the transmission frame 41 via a motor mount. The transmission motor is connected to the transmission roller 42 located on the right side of the transmission frame 41. A cleaning unit 45 is provided at the lower right end of the transmission frame 41. A collection frame 46 for collecting glass waste is provided on the upper right side of the mounting base 1. The upper opening of the collection frame 46 is directly opposite the waste falling path of the cleaning unit 45.

[0017] On the inner wall of the transmission frame 41 located in the inner gap of the transmission belt 44, a support partition 43 is provided along the entire length of the transmission direction. The upper surface of the support partition 43 is in contact with the inner surface of the transmission belt 44, and the left and right ends of the support partition 43 extend to the inner edges of the two transmission rollers 42 respectively.

[0018] The cleaning unit 45 includes a cleaning frame 451 mounted on a conveyor frame 41. A vacuum cleaner is mounted on the left side of the cleaning frame 451. The vacuum cleaner's suction port is connected to a vacuum cleaner frame 454 via a suction pipe 453. The vacuum cleaner frame 454 is fixed to a support frame 455, which is mounted on the cleaning frame 451 via an adjusting spring rod 456. The upper opening of the vacuum cleaner frame 454 is flush with the conveyor belt 44. When the adjusting spring rod 456 is in its natural state, the edge of the upper opening of the vacuum cleaner frame 454 is tightly flush with the outer surface of the conveyor belt 44. The conveyor frame 41... An electric roller 457 is installed between the inner walls of the conveyor belt 44. The axis of the electric roller 457 is parallel to the axis of the transmission roller 42 and is located below the inner side of the transmission belt 44. Isolation plates 458 are evenly arranged on the electric roller 457 along its circumference. The height of the isolation plates 458 does not exceed the inner surface of the transmission belt 44. Cleaning rings 459 are symmetrically arranged on the front and rear sides of the electric roller 457. Cleaning rods 450 are evenly arranged between two cleaning rings 459. The cleaning rods 450 are located between two adjacent isolation plates 458. A cleaning brush is installed on the cleaning rod 450 and is attached to the transmission belt 44.

[0019] The vacuum cleaner rack 454 has an adsorption groove, and an arc-shaped grid plate 4511 is installed inside the adsorption groove. The surface of the grid plate 4511 is irregularly decorated with protrusions.

[0020] When the electric roller 457 drives the cleaning brush on the cleaning rod 450 to rotate in the opposite direction of the conveyor belt 44, while the cleaning brush is cleaning the surface of the conveyor belt 44, its bristles will periodically contact the grid plate 4511 on the vacuum cleaner frame 454. The irregularly distributed protrusions on the surface of the grid plate 4511 form a blocking effect on the cleaning brush, forcing the bristles to undergo elastic deformation and separate to both sides after contacting the protrusions, thus temporarily increasing the gap between adjacent cleaning brushes. At the same time, the vacuum cleaner frame 454 continuously provides suction force through the mesh of the grid plate 4511. When the cleaning brush contacts the grid plate 4511, the suction force can directly act on the particles released by the cleaning brush, sucking them into the vacuum pipe 453 through the suction groove of the grid plate 4511.

[0021] The cleaning conveying module 3 includes a mounting frame 31 mounted on the mounting base plate 1. A conveying unit 32 is mounted on the mounting frame 31. From left to right, a spray washing unit 33 for treating the glass surface and a drying unit 34 for cleaning the glass are arranged on the mounting frame 31. The center lines of the spray washing unit 33 and the drying unit 34 are both aligned with the length direction of the mounting frame 31, and the distance between the right end outlet of the spray washing unit 33 and the left end inlet of the drying unit 34 does not exceed 5 cm.

[0022] The above scheme ensures that the glass to be processed is stably conveyed from left to right by the conveying unit 32 during operation, providing a continuous transmission path for the spray washing unit 33 and the drying unit 34. The conveying unit 32 ensures that the glass flows through each pretreatment stage in an orderly manner, preventing the glass from tilting, falling, or shaking during the conveying process, and ensuring the continuity of the pretreatment process. The spray washing unit 33 performs all-round cleaning treatment on the surface of the glass to be processed, which can remove impurities and stains from the glass surface, providing a clean processing surface for subsequent laser cutting and preventing impurities from affecting the cutting accuracy. At the same time, it lays the foundation for the treatment of the drying unit 34. The drying unit 34 dries the glass after it has been treated by the spray washing unit 33, which can remove residual moisture from the glass surface and ensure that the glass entering the laser cutting cleaving machine 2 is in a dry state, preventing moisture from causing the glass to slip or affect the laser cutting effect during subsequent transmission.

[0023] The conveying unit 32 includes conveying rollers 321 evenly spaced from left to right on the mounting frame 31. The conveying rollers 321 are mounted on the mounting frame 31 via bearings. A pulley 322 is provided at the right end of the conveying rollers 321. The pulleys 322 are connected to each other by a belt 323. A conveying motor is provided on the mounting frame 31. The output shaft of the conveying motor is connected to one of the pulleys 322 via a coupling. In operation, the conveying motor drives one of the pulleys 322 to rotate via the coupling. The pulley 322 is driven by the belt 323, so that all the conveying rollers 321 rotate synchronously, thereby conveying the glass to be processed from left to right. The distance between adjacent conveying rollers 321 is 10-15cm, and the top tangents are on the same horizontal plane, ensuring that the glass moves smoothly during the conveying process and avoiding tilting or falling.

[0024] The spray washing unit 33 includes a spray washing frame 331 mounted on the mounting frame 31. Spray washing components 332 are arranged side by side inside the spray washing frame 331. An adjustment gear 333 is mounted on the outer wall of the spray washing frame 331 between the spray washing components 332 via a bearing. An adjustment motor is mounted on the outer wall of the spray washing frame 331. The output shaft of the adjustment motor is connected to the adjustment gear 333. The conveying roller 321 between the spray washing components 332 has a hollow structure and suction cups 334 are evenly arranged on its surface. The top of the suction cups 334 is flush with the tangent of the top of the conveying roller 321. Sponge blocks 335 are symmetrically arranged on the upper and lower right end of the spray washing frame 331.

[0025] The spraying component 332 includes spray pipes 336 symmetrically arranged on the upper and lower sides of the inner wall of the spraying frame 331 via bearings. The axis of the two spray pipes 336 is in the same vertical plane. High-pressure nozzles are provided on the spray pipes 336. The spraying direction of the two hot air nozzles 343 is towards the center of the conveying path of the conveying unit 32. A linkage gear 337 is provided on the outer wall of the spray pipe 336. The two linkage gears 337 mesh with each other, and one of the linkage gears 337 meshes with the regulating gear 333.

[0026] Using this technical solution, the control motor drives the control gear 333 to rotate, and through the meshing transmission of the linkage gear 337, the upper and lower symmetrical spray pipes 336 rotate synchronously. The high-pressure nozzle sprays cleaning liquid onto the glass surface. The adjustable angle spray pipes work in conjunction with the high-pressure nozzles to achieve thorough cleaning of the glass surface. The suction cup 334 is located on the surface of the hollow conveyor roller 321 between the spray washing components 332. It adsorbs and fixes the glass during the glass washing process to prevent the glass from shifting due to the spray force. The sponge block 335 is symmetrically arranged on the upper and lower right end of the spray washing frame 331, and its spacing is adapted to the glass thickness. It initially adsorbs surface moisture when the glass leaves the spray washing unit 33.

[0027] The drying unit 34 includes a drying frame 341 mounted on the mounting frame 31. An auxiliary component is provided at the left end of the drying frame 341. A hot air generator 342 is mounted on the drying frame 341. Hot air nozzles 343 are symmetrically arranged inside the drying frame 341. Two hot air nozzles 343 are connected to the hot air generator 342 through air ducts.

[0028] The auxiliary components include a mounting bracket 344 disposed at the left end of the drying frame 341, a support spring rod disposed on the mounting bracket 344, an auxiliary bracket 346 disposed on the support spring rod, an auxiliary roller 347 disposed between the inner walls of the auxiliary bracket 346, suction cups 348 evenly disposed along the circumference of the auxiliary roller 347, an auxiliary motor disposed on the auxiliary bracket 346, and the output shaft of the auxiliary motor being connected to the auxiliary roller 347.

[0029] Using the above technical solution, the auxiliary motor drives the auxiliary roller 347 to rotate, and the suction cup 348 assists in conveying the glass; the support spring rod can adaptively adjust the height of the auxiliary roller 347 according to the glass thickness to ensure the glass is in a stable position during the drying process. The hot air generator 342 generates hot air, which is conveyed through the air duct to the symmetrical hot air nozzles 343 inside the drying frame 341. The hot air nozzles spray hot air toward the center of the conveying path to quickly dry the glass surface.

[0030] During operation, the conveyor motor of the conveyor unit 32 drives all the conveyor rollers 321 to rotate synchronously through the pulley 322 and belt 323, conveying the glass from left to right. The glass first enters the spray washing unit 33. Under the action of the control motor, control gear 333 and linkage gear 337, the spray washing components 332 in the spray washing frame 331 spray the glass surface in all directions through the high-pressure nozzles. The suction cups 334 on the surface of the conveyor rollers 321 located between the spray washing components 332 adsorb and fix the glass to prevent it from shifting under the action of the spray force. After spray washing, the glass passes through the sponge block 335 at the right end of the spray washing frame 331 to initially absorb the surface moisture. Subsequently, the glass is conveyed to the drying unit 34. The auxiliary component at the left end of the drying frame 341 assists in conveying the glass through the suction cup 348 on the auxiliary roller 347. The support spring rod adaptively adjusts the height of the auxiliary roller 347 under the pressure of the glass to ensure stable conveying. At the same time, the hot air generated by the hot air generator 342 is blown onto the glass surface through the upper and lower symmetrical hot air nozzles 343 to quickly remove residual moisture and complete the drying process. After drying, the glass is smoothly conveyed onto the conveyor belt 44 of the conveyor collection module 4. The conveyor motor drives the conveyor roller 42 to rotate the conveyor belt 44 and feed the glass into the laser cutting and dicing machine 2. The support partition 43 in the gap of the conveyor belt 44 fits against the conveyor belt 44 to provide stable support for the glass and prevent positional displacement due to deformation during the transmission process. After the glass is cut and diced in the laser cutting and dicing machine 2, the conveyor collection module 4 drives the finished glass to move to the right. The finished glass is taken away by the existing material handling equipment, and the remaining debris and waste are continued to be conveyed to the right with the conveyor belt 44. When the conveyor belt 44 carries debris through the cleaning unit 45, the cleaning brush on the cleaning rod 450 driven by the electric roller 457 first mechanically cleans the surface of the conveyor belt. The cleaning brush rotates in the opposite direction to the conveyor belt 44, and the partition plate 458 achieves zoned cleaning. The debris that falls off the conveyor belt 44 when the cleaning brush cleans it falls into the gap between the partition plates 458. Subsequently, the vacuum cleaner frame 454 located behind the cleaning brush uses the suction force generated by the vacuum cleaner to absorb the remaining fine debris and the dust raised during cleaning. As the electric roller 457 rotates, the debris in the gap between the partition plates 458 falls directly into the collection frame 46. During the rotation of the cleaning brush, it comes into contact with the grid plate 4511. The protrusions on its surface force the gap between the bristles to increase, releasing the stuck debris. These debris are also sucked in by the suction force at the mesh of the grid plate 4511. All the cleaned debris and waste finally fall into the collection frame 46 directly below, completing the waste collection.

[0031] The above are merely preferred embodiments of this utility model and are not intended to limit the scope of this utility model. Various modifications and variations can be made to this utility model by those skilled in the art. Any modifications, equivalent substitutions, or improvements made within the spirit and principles of this utility model should be included within the protection scope of this utility model.

Claims

1. An automated production line for laser cutting and cleaving glass, comprising a mounting substrate, on which a laser cutting and cleaving machine is mounted, characterized in that, The left side of the mounting base is provided with a cleaning conveying module for cleaning and conveying the glass to be processed, and the right side of the mounting base is provided with a conveying and collecting module for conveying the glass processed by the laser cutting and cleaving machine. The conveying and collecting module extends to the left into the laser cutting and cleaving machine. The cleaning conveying module conveys the glass to be processed to the conveying and collecting module located inside the laser cutting and cleaving machine. The cleaning conveying module includes a mounting frame mounted on a mounting base plate, a conveying unit mounted on the mounting frame, and a spray washing unit for treating the glass surface and a drying unit for cleaning the glass, arranged sequentially from left to right on the mounting frame. The transmission and collection module includes a transmission frame mounted on a mounting base. The transmission frame extends to the left into the laser cutting and cleaving machine, and the left end of the transmission frame is connected to the mounting base. Transmission rollers are mounted on both the left and right ends of the transmission frame via bearings. The transmission rollers are connected to each other by a transmission belt. A transmission motor is mounted on the transmission frame via a motor mount. The transmission motor is connected to the transmission roller located on the right side of the transmission frame. A cleaning unit is provided at the lower right end of the transmission frame. A collection frame for collecting glass waste is provided on the upper right side of the mounting base.

2. The automated production line for laser cutting and sharding glass according to claim 1, characterized in that, The conveying unit includes conveying rollers evenly spaced from left to right on the mounting frame. The conveying rollers are mounted on the mounting frame via bearings. A pulley is provided at the right end of the conveying rollers. The pulleys are connected to each other by a belt. A conveying motor is provided on the mounting frame. The output shaft of the conveying motor is connected to one of the pulleys via a coupling.

3. The automated production line for laser cutting and sharding glass according to claim 2, characterized in that, The spray washing unit includes a spray washing frame mounted on a mounting frame, spray washing components arranged side by side inside the spray washing frame, and an adjustment gear mounted on the outer wall of the spray washing frame between the spray washing components via a bearing. An adjustment motor is mounted on the outer wall of the spray washing frame, and the output shaft of the adjustment motor is connected to the adjustment gear. The conveying roller between the spray washing components has a hollow structure and its surface is uniformly covered with suction cups. Sponge blocks are symmetrically arranged at the top and bottom of the right end of the spray washing frame.

4. The automated production line for laser cutting and sharding glass according to claim 3, characterized in that, The spraying component includes spray pipes symmetrically arranged on the upper and lower sides of the inner wall of the spraying frame via bearings. High-pressure nozzles are provided on the spray pipes, and linkage gears are provided on the outer wall of the spray pipes. The two linkage gears mesh with each other, and one of the linkage gears meshes with the control gear.

5. The automated production line for laser cutting and sharding glass according to claim 1, characterized in that, The drying unit includes a drying frame mounted on a mounting frame, an auxiliary component at the left end of the drying frame, a hot air generator inside the drying frame, and hot air nozzles symmetrically arranged inside the drying frame, with two hot air nozzles connected to the hot air generator via air ducts.

6. The automated production line for laser cutting and sharding glass according to claim 5, characterized in that, The auxiliary components include a mounting bracket located at the left end of the drying frame, a support spring rod on the mounting bracket, an auxiliary bracket on the support spring rod, an auxiliary roller between the inner walls of the auxiliary bracket, suction cups evenly arranged along the circumference of the auxiliary roller, an auxiliary motor on the auxiliary bracket, and the output shaft of the auxiliary motor connected to the auxiliary roller.

7. The automated production line for laser cutting and sharding glass according to claim 1, characterized in that, The cleaning unit includes a cleaning frame mounted on a conveyor frame via bearings. A vacuum cleaner is mounted on the left side of the cleaning frame, and a suction nozzle is connected to the vacuum cleaner via a suction pipe. The suction nozzle is fixed to a suction bracket, and an adjusting spring rod is mounted on the suction bracket. The suction nozzle is attached to the conveyor belt. An electric roller is mounted on the conveyor frame, and partition plates are evenly arranged along its circumference on the electric roller. Cleaning rings are symmetrically arranged on the front and rear sides of the electric roller. A cleaning rod is evenly arranged between two cleaning rings via bearings. The cleaning rod is located between two adjacent partition plates and is equipped with a cleaning brush, which is attached to the conveyor belt.

8. The automated production line for laser cutting and sharding glass according to claim 7, characterized in that, The side wall of the cleaning rack is provided with an arc plate, and the surface of the arc plate is irregularly provided with protrusions.

Images