A fully automatic laser processing production line for uncoiling and cutting aluminum veneer
By designing a fully automatic laser processing production line for unrolling and cutting of aluminum veneer, the problem of low transfer efficiency in front and after process in aluminum veneer processing is solved, and automatic cutting and sorting of coil materials to finished parts is realized, saving raw materials and reducing costs , improve production efficiency and management convenience.
Patent Information
- Application Number
- CN201910774692.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2019-08-21
- Publication Date
- 2024-12-20
- Estimated Expiration
- 2039-08-21
AI Technical Summary
The existing laser cutting equipment has problems of front and after process transfer in aluminum veneer processing, resulting in low production efficiency, high time and labor costs, complex operation and inconvenient management.
A fully automatic laser processing production line for unwinding and unwinding of aluminum veneer is designed, including unwinding machine, leveling machine, long measuring wheel, shearing machine, conveyor belt, automatic material storage library, laser cutting device and sorting and conveying device to realize Fully automated cutting and sorting from coils to finished parts reduce manual operations and improve production efficiency.
It realizes fully automated processing of aluminum veneer, saves 15% of raw materials, reduces workpiece costs, improves production capacity and production efficiency, reduces labor costs, and simplifies operation management.
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Figure CN110394662B_ABST
Abstract
Description
Technical Field
[0001] The invention relates to the field of laser cutting, and in particular to a fully automatic laser processing production line for uncoiling and blanking aluminum veneer. Background Art
[0002] Laser cutting uses a high-energy-density laser beam to heat the workpiece, causing the temperature to rise rapidly and reach the boiling point of the material in a very short time. The material begins to vaporize and form steam. The steam is ejected at a very high speed. As the steam is ejected, an incision is formed on the material, thereby achieving cutting of the material.
[0003] At present, the existing laser cutting processing equipment on the market is mainly single equipment, working independently. Single laser cutting processing equipment will have the problem of front-end and back-end process transportation during use. Mainly for aluminum veneer cutting processing, the raw materials of aluminum veneer on the current market are mainly stored and transported in the form of rolls. Before processing the finished aluminum plate, the customer needs to pass the roll through the unwinding and leveling equipment to form a flat plate, and then cut it into a suitable size, and then send it to the laser cutting processing equipment for laser cutting of complex graphics. In this way, before laser cutting, in order to ensure cutting efficiency, customers need to stack the flattened plates, and then cut and cut them in batches. This processing method occupies production land, and the transportation of plates requires more labor and time costs, the operation is complicated, it is inconvenient to manage, and the production efficiency is relatively low. Summary of the invention
[0004] The technical problem to be solved by the present invention is to provide a fully automatic laser processing production line for unwinding and cutting aluminum veneer which can improve production efficiency, reduce time and labor costs, and facilitate operation and management.
[0005] In order to solve the above technical problems, the present invention is achieved through the following technical solutions: a fully automatic laser processing production line for uncoiling and cutting aluminum veneer, comprising a support seat, on which are arranged, from left to right, an uncoiler, a leveling machine, a length measuring wheel, a shearing machine, a conveyor belt, an automatic storage warehouse, a laser cutting device and a sorting and conveying device; an aluminum material roll is installed on the uncoiler, and the aluminum material roll is supported by a roll supporting device arranged on the left side of the uncoiler; a material guiding platform is arranged on the right side of the uncoiler between the left side of the leveling machine, and the right end of the material guiding platform is connected to the leveling machine and corresponds to the feed port of the leveling machine, the left side of the length measuring wheel is connected to the discharge port of the leveling machine, and the right side is connected to the feed port of the shearing machine, the conveyor belt is arranged horizontally, the left end of which is connected to the discharge port of the shearing machine, and the right end corresponds to the feed port of the automatic storage warehouse, and the discharge port of the automatic storage warehouse corresponds to the laser cutting device, and the laser cutting device cuts the aluminum veneer and then sorts and conveys it through the sorting and conveying device arranged on its right side.
[0006] Preferably, the right end of the material guiding platform is axially connected to the leveling machine, and a first hydraulic rod inclined to the lower right is provided at the bottom center thereof.
[0007] Preferably, the automatic material storage warehouse comprises two symmetrically arranged front and rear brackets, a plurality of parallel rotating shafts are longitudinally arranged between the symmetrically arranged brackets, a horizontal conveyor belt is sleeved on the outside of the rotating shaft, and the horizontal conveyor belt and the rotating shaft together form a material storage and feeding unit; bearings are arranged at the front and rear ends of the rotating shaft, and the bearings are fixed by bearing seats symmetrically arranged on the brackets, wherein the front end of the rotating shaft passes through the corresponding bearing and extends outside the bearing, and a gear is arranged on the extended end of the rotating shaft, a driving motor is arranged on the outside of the gear, and a main transmission gear meshing with the gear is arranged on the transmission shaft of the driving motor.
[0008] Preferably, the storage and feeding unit in the automatic material storage warehouse has multiple layers, which are parallel up and down; a layered moving rack is arranged at the front end of the bracket, which is located on the left side of the extended end of the rotating shaft, and a base with an L-shaped structure is arranged on the right side thereof; a slider is arranged on the left side of the vertical surface of the base, which is clamped together with a slide groove arranged on the right side of the layered moving rack and slides up and down in cooperation; a servo motor is fixedly arranged on the right side of the vertical surface of the base, and the transmission shaft of the servo motor passes through the base and a transmission gear is fixedly arranged on its head, and the transmission gear is meshed with a rack arranged on the right side of the layered moving rack, and the servo motor drives the transmission gear to move on the rack, thereby driving the base to move up and down on the layered moving rack; a cylinder is fixedly arranged on the horizontal surface of the base, and the driving motor is connected to the cylinder, and the cylinder drives the driving motor to move left and right, thereby realizing the mutual clutch between the main transmission gear on the driving motor and the gear at the extended end of the rotating shaft.
[0009] Preferably, the left and right ends of the automatic material storage warehouse are provided with symmetrical swinging conveyor belts, the swinging conveyor belts are composed of a base and a conveyor belt, the left end of the conveyor belt is connected to the base through an axis, and a second hydraulic rod is provided at the bottom of the right end.
[0010] Preferably, a pre-marking machine capable of marking the back of the aluminum veneer is provided at the left end of the laser cutting device.
[0011] Preferably, the laser cutting device consists of a laser cutting machine and a rolling tooth feeding device, and the laser cutting machine is arranged on the rolling tooth feeding device.
[0012] Preferably, the laser cutting machine is a double-beam laser cutting machine.
[0013] Preferably, the sorting and conveying device consists of a sorting conveyor belt and a sorting robot. The sorting robot is arranged on the side of the sorting conveyor belt, and the sorting robot is used to sort the cut aluminum veneers on the sorting conveyor belt.
[0014] Compared with the prior art, the advantages of the present invention are: this fully automatic laser processing production line for unwinding and cutting aluminum veneer can be fully automated from raw materials to finished parts, and can be used for various coil raw materials. By using laser cutting, the system can automatically and continuously cut out various workpieces. By directly connecting the coil unwinding to the laser cutting unit, up to 15% of raw materials can be saved, and better utilization of various raw materials can be achieved, and minimum material consumption can be achieved, thereby lowering the cost of workpieces, improving production capacity, stabilizing the operating rhythm, eliminating the time loss of plate loading and unloading, and no molds are required, which greatly improves production efficiency, reduces time and labor costs, and makes operation and management more convenient. BRIEF DESCRIPTION OF THE DRAWINGS
[0015] The present invention is further described below in conjunction with the accompanying drawings.
[0016] Figure 1 This is a structural schematic diagram of a fully automatic laser processing production line for uncoiling and unloading aluminum veneer of the present invention;
[0017] Figure 2 It is a structural schematic diagram of an automatic material storage warehouse in a fully automatic laser processing production line for uncoiling and unloading aluminum veneer of the present invention.
[0018] In the figure: 1. bracket seat; 2. uncoiler; 3. roll support device; 4. aluminum roll; 5. material guiding platform; 51. first hydraulic rod; 6. leveler; 7. measuring wheel; 8. shearing machine; 9. swing conveyor belt; 101. shaft; 102. second hydraulic rod; 11. automatic material storage; 111. bracket; 112. bearing seat; 113. horizontal conveyor belt; 114. layered moving frame; 115. servo motor; 116. driving motor; 117. cylinder; 12. processing pre-marking machine; 13. laser cutting machine; 14. toothed feeding device; 15. sorting robot; 16. sorting conveyor belt. DETAILED DESCRIPTION
[0019] The present invention is described in detail below with reference to the accompanying drawings and specific embodiments:
[0020] Figure 1The fully automatic laser processing production line for unwinding and unloading aluminum veneer shown in the figure comprises a support seat 1, on which are arranged, from left to right, an unwinding machine 2, a leveling machine 6, a length measuring wheel 7, a shearing machine 8, a conveyor belt 9, an automatic material storage warehouse 11, a laser cutting device and a sorting and conveying device; an aluminum material roll 4 is installed on the unwinding machine 2, and the aluminum material roll 4 is supported by a roll support device 3 arranged on the left side of the unwinding machine 2; a material guide flat is arranged on the right side of the unwinding machine 2 between the left side of the leveling machine 6 The right end of the material guiding platform 5 is connected to the leveling machine 6 and corresponds to the feed port of the leveling machine 6. The left side of the measuring wheel 7 is connected to the discharge port of the leveling machine 6, and the right side is connected to the feed port of the chasing shearing machine 8. The conveyor belt 9 is arranged horizontally, and its left end is connected to the discharge port of the chasing shearing machine 8, and the right end corresponds to the feed port of the automatic storage warehouse 11. The discharge port of the automatic storage warehouse 11 corresponds to the laser cutting device. The laser cutting device cuts the aluminum veneer and then sorts and transports it through the sorting and conveying device arranged on its right side.
[0021] In order to adapt to the thickness of the aluminum roll 4 and facilitate the leading out of the aluminum, the right end of the material leading platform 5 is axially connected to the leveling machine 6, and a first hydraulic rod 51 inclined to the lower right is provided at the bottom center thereof. Under the action of the first hydraulic rod 51, the material leading platform 5 uses the right end axial connection as a turning point to adjust the upper and lower height position of its left end.
[0022] Since the hardness of aluminum veneer is low, the unwinding speed is fast, and the unwinding and leveling process cannot be interrupted, otherwise it will produce indentations that affect the quality of the sheet. In order to facilitate the storage of aluminum veneer, the length of the sheet that can be leveled at one time should be increased as much as possible. Figure 2As shown, the automatic material storage warehouse 11 includes two front and rear symmetrically arranged brackets 111, and a plurality of mutually parallel rotating shafts are longitudinally arranged between the symmetrically arranged brackets 111. A horizontal conveyor belt 113 is sleeved on the outside of the rotating shaft, and the horizontal conveyor belt 113 and the rotating shaft together form a material storage and feeding unit; bearings are arranged at the front and rear ends of the rotating shaft, and the bearings are fixed by bearing seats 112 symmetrically arranged on the brackets 111, wherein the front end of the rotating shaft passes through the corresponding bearing and extends outside the bearing, and a gear is arranged on the extended end of the rotating shaft, and a driving motor 116 is arranged on the outer side of the gear, and a main transmission gear meshing with the gear is arranged on the transmission shaft of the driving motor 116. The material storage and feeding unit in the automatic material storage warehouse 11 has multiple layers, which are parallel up and down; a layered moving frame 114 is arranged at the front end of the bracket 111, and the layered moving frame 114 is located on the left side of the extended end of the rotating shaft, and a base with an L-shaped structure is arranged on the right side thereof, and a slider is arranged on the left side of the vertical surface of the base, and the slider is engaged with the slide groove arranged on the right side of the layered moving frame 114, and slides up and down in cooperation, and a servo motor 115 is fixedly arranged on the right side of the vertical surface of the base, and the transmission shaft of the servo motor 115 passes through the base and a transmission gear is fixedly arranged on its head, and the transmission gear is meshed with the rack arranged on the right side of the layered moving frame 114, and the servo motor 115 drives the transmission gear to move on the rack, thereby driving the base to move up and down on the layered moving frame 114; a cylinder 117 is fixedly arranged on the horizontal surface of the base, and the drive motor 116 is connected to the cylinder 117, and the cylinder 117 drives the drive motor 116 to move left and right, thereby realizing the mutual clutch between the main transmission gear on the drive motor 116 and the gear at the extended end of the rotating shaft.
[0023] In order to enable automatic loading and feeding of materials on each layer of the multi-layer automatic material storage warehouse 11, symmetrical swinging conveyor belts 10 are provided at the left and right ends of the automatic material storage warehouse 11. The swinging conveyor belt 10 consists of a base and a conveyor belt. The left end of the conveyor belt is connected to the base through an axis 101, and a second hydraulic rod 102 is provided at the bottom of the right end. Under the action of the second hydraulic rod 102, the conveyor belt takes the axis 101 as the turning point, and the second hydraulic rod 102 drives the conveyor belt to adjust the upper and lower angle positions, thereby facilitating the docking of the corresponding storage and feeding units of the automatic material storage warehouse 11.
[0024] In order to facilitate the classification of the cut products after laser cutting of the aluminum veneer, a pre-marking machine 12 capable of marking the back of the aluminum veneer is arranged at the left end of the laser cutting device. It can mark the designated position in advance according to customer needs, and after marking, it is sent to the designated position for laser cutting and unloading, which can ensure the accuracy of the marking position, and marking on the back will not affect the quality of the board surface.
[0025] In order to shorten the time-consuming cost of laser cutting and improve work efficiency, the laser cutting device is composed of a laser cutting machine 13 and a toothed feeding device 14. The laser cutting machine 13 is arranged on the toothed feeding device 14. The laser cutting machine 13 is a double-beam laser cutting machine.
[0026] In order to quickly classify the finished parts after cutting, the sorting and conveying device is composed of a sorting conveyor belt 16 and a sorting robot 15. The sorting robot 15 is arranged on the side of the sorting conveyor belt 16. The sorting robot 15 is used to sort the cut aluminum veneers on the sorting conveyor belt 16.
[0027] Its working principle is as follows: the uncoiler 2 feeds the aluminum veneer material on the aluminum material roll 4 into the leveling machine 6 through the feeding platform, and the aluminum veneer material is flattened under the action of the leveling machine, and then the aluminum veneer material is conveyed to the measuring wheel 7. According to the set length requirement, the measuring wheel 7 feeds the aluminum veneer material into the chasing shearing machine 8 for cutting. Due to the fast uncoiling speed, the uncoiling and leveling process cannot be interrupted. Therefore, the chasing shearing machine 8 will continuously cut the leveled aluminum veneer material under the condition of the length constraint of the measuring wheel 7. The cut aluminum veneer material is sent to the automatic cutting machine 8 through the conveyor belt 9. On the swing conveyor belt 10 on the left side of the automatic storage warehouse 11, according to the material storage situation of the storage and feeding unit on the automatic storage warehouse 11, the swing conveyor belt 10 on the left side of the automatic storage warehouse 11 adjusts the corresponding angle to feed the cut aluminum veneer material into the corresponding storage and feeding unit for aluminum veneer material storage. At the same time, the driving motor 116 on the layered moving frame 114 in front of the automatic storage warehouse 11 moves up and down on the layered moving frame 114 under the action of the servo motor 115 and moves to the set storage and feeding unit. Under the action of the driving motor 116, the storage and feeding unit The horizontal conveyor belt 113 on the unit rotates. Before that, the swing conveyor belt 10 on the right side of the automatic storage warehouse 11 adjusts the corresponding angle. The horizontal conveyor belt 113 rotates to send the aluminum veneer material on its surface to the swing conveyor belt 10 on the right side of the automatic storage warehouse 11. Then the swing conveyor belt 10 sends the aluminum veneer material to the processing pre-marking machine 12 again. The back of the aluminum veneer material is marked by the processing pre-marking machine 12. The marked aluminum veneer material is sent to the rolling tooth feeding device 14. The laser cutting machine 13 on the rolling tooth feeding device 14 cuts the aluminum veneer material. The single plate material is cut, and the laser cutting machine 13 is a double-beam laser cutting machine. The system automatically divides the whole page program into two. The double-beam laser cutting machines run synchronously and do not interfere with each other, which shortens the time-consuming cost of laser cutting and improves work efficiency. After the aluminum single plate material is cut, it becomes a finished part. After the laser cutting is completed, the feedback system repeats the feeding action, and the new aluminum single plate material enters the cutting area. At the same time, the finished parts enter the sorting conveyor belt 16. The sorting robot 15 recognizes the pre-marked mark on the finished parts and starts to automatically pick up the material. After the sorting is completed, the feeding is started to realize the secondary cycle.
[0028] This fully automatic laser processing production line for unwinding and cutting aluminum veneer can be fully automated from raw materials to finished parts. It can be used for various coil raw materials. By using laser cutting, the system can automatically and continuously cut out various workpieces. By directly connecting the coil unwinding to the laser cutting unit, it can save up to 15% of raw materials, achieve better utilization of various raw materials, and achieve minimum material consumption, thereby lowering the cost of workpieces, improving production capacity, stabilizing the operating rhythm, eliminating the time loss of plate loading and unloading, and no molds are required, which greatly improves production efficiency, reduces time and labor costs, and makes operation and management more convenient.
[0029] It should be emphasized that the above are only preferred embodiments of the present invention and do not limit the present invention in any form. Any simple modifications, equivalent changes and modifications made to the above embodiments based on the technical essence of the present invention are still within the scope of the technical solution of the present invention.
Claims
1. A fully automatic laser processing production line for uncoiling and blanking aluminum veneer, characterized by: The invention comprises a support seat (1), on which an uncoiler (2), a leveler (6), a length measuring wheel (7), a shearing machine (8), a conveyor belt (9), an automatic material storage (11), a laser cutting device and a sorting and conveying device are arranged in sequence from left to right; an aluminum material roll (4) is installed on the uncoiler (2), and the aluminum material roll (4) is lifted and supported by a roll supporting device (3) arranged on the left side of the uncoiler (2); a material guiding platform (5) is arranged on the right side of the uncoiler (2) between the left side of the leveler (6), and the right end of the material guiding platform (5) is connected to the leveler (6) and corresponds to the material inlet of the leveler (6), and the left side of the length measuring wheel (7) is connected to the material outlet of the leveler (6). The conveyor belt (9) is arranged horizontally, with its left end connected to the discharge port of the shearing machine (8), and its right end corresponding to the feed port of the automatic storage bin (11). The discharge port of the automatic storage bin (11) corresponds to the laser cutting device. The laser cutting device cuts the aluminum veneer and then sorts and transports it through the sorting and conveying device arranged on its right side. The right end of the material guiding platform (5) is axially connected to the leveling machine (6), and a first hydraulic rod (51) inclined to the lower right is arranged at the center of its bottom. The automatic storage bin (11) includes two brackets (111) arranged symmetrically in front and back, and a plurality of rotating shafts parallel to each other are longitudinally arranged between the symmetrically arranged brackets (111). A horizontal conveyor belt (113) is sleeved on the outside of the rotating shaft, and the horizontal conveyor belt (113) and the rotating shaft together form a material storage and feeding unit; bearings are arranged at the front and rear ends of the rotating shaft, and the bearings are fixed by bearing seats (112) symmetrically arranged on the bracket (111), wherein the front end of the rotating shaft passes through the corresponding bearing and extends outside the bearing, and a gear is arranged on the extended end of the rotating shaft, and a driving motor (116) is arranged on the outside of the gear, and a main transmission gear that meshes with the gear is arranged on the transmission shaft of the driving motor (116); the material storage and feeding unit in the automatic material storage warehouse (11) has multiple layers, which are parallel to each other; a layered moving rack (116) is arranged at the front end of the bracket (111) 114), the layered moving frame (114) is located on the left side of the extended end of the rotating shaft, and a base in an "L"-shaped structure is arranged on the right side thereof, a slider is arranged on the left side of the vertical surface of the base, and the slider is engaged with a slide groove arranged on the right side of the layered moving frame (114) to slide up and down, and a servo motor (115) is fixedly arranged on the right side of the vertical surface of the base, and the transmission shaft of the servo motor (115) passes through the base and a transmission gear is fixedly arranged on the head thereof, and the transmission gear is meshed with a rack arranged on the right side of the layered moving frame (114), and the servo motor (115) drives the transmission gear to move on the rack, thereby driving the base to move up and down on the layered moving frame (114);A cylinder (117) is fixedly arranged on the horizontal surface of the base, and the drive motor (116) is connected to the cylinder (117). The cylinder (117) drives the drive motor (116) to move left and right, thereby realizing mutual clutch between the main transmission gear on the drive motor (116) and the gear at the extension end of the rotating shaft.
2. The fully automatic laser processing production line for uncoiling and blanking aluminum veneer according to claim 1 is characterized by: The left and right ends of the automatic material storage warehouse (11) are provided with symmetrical swing conveyor belts (10), the swing conveyor belt (10) consisting of a base and a conveyor belt, the left end of the conveyor belt is connected to the base via a shaft (101), and the bottom of the right end is provided with a second hydraulic rod (102).
3. The fully automatic laser processing production line for uncoiling and blanking aluminum veneer according to claim 1 is characterized by: A processing pre-marking machine (12) capable of marking the back of the aluminum single plate is arranged at the left end of the laser cutting device.
4. The fully automatic laser processing production line for uncoiling and blanking aluminum veneer according to claim 1 is characterized by: The laser cutting device is composed of a laser cutting machine (13) and a toothed feeding device (14), and the laser cutting machine (13) is arranged on the toothed feeding device (14).
5. The fully automatic laser processing production line for uncoiling and blanking aluminum veneer according to claim 1 is characterized by: The laser cutting machine (13) is a double-beam laser cutting machine.
6. The fully automatic laser processing production line for uncoiling and blanking aluminum veneer according to claim 1 is characterized by: The sorting and conveying device is composed of a sorting conveyor belt (16) and a sorting robot (15); the sorting robot (15) is arranged on the side of the sorting conveyor belt (16); the sorting robot (15) is used to sort the cut aluminum veneers on the sorting conveyor belt (16).
Citation Information
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