A strip and profile automatic cutting production line and production method

CN119566837BActive Publication Date: 2026-10-23SHIPBUILDING TECHNOLOGY RESEARCH INSITITUTE (NO 11 INSTITUTE OF CSSC)
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Patent Information

Application Number
CN202411831093.2
Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
Filing Date
2024-12-12
Publication Date
2026-10-23
Estimated Expiration
2044-12-12

AI Technical Summary

Technical Problem

1、兼容性不高,只能进行条材或型材切割,无法兼容两种;

Benefits of technology

[0012]本发明配置自动化切割生产线,原材料上料后依次经过切割拉条、条材转运、自动倒棱、喷码划线和切割出料分拣的工序,操作简单、自动化程度高;

✦ Generated by Eureka AI based on patent content.

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Abstract

The application provides a strip material and profile automatic cutting production line and production method, which comprises a strip material blanking area, an inverted edge buffer area, a slag cleaning and inverted edge area, a cutting buffer area, a cutting feeding area, a cutting area, a short material discharging area, a long material polishing area and a long material discharging area, the strip material blanking area is provided with a multi-head cutting machine and a rolling workbench, the rolling workbench conveys the strip material to the inverted edge buffer area, the inverted edge buffer area is provided with a conveying roller way, the slag cleaning and inverted edge area is provided with a feeding roller way, a polishing slag cleaning machine, an inverted edge machine and a discharging roller way, a length detection mechanism divides the strip material or profile cut by the cutting area into long material and short material according to the set length, the long material is conveyed to the long material polishing area through a conveying device, and the short material is pushed into a material frame through a pushing rod; the application is configured with an automatic cutting production line, raw materials are sequentially subjected to the processes of cutting a strip, strip material transfer, automatic inverted edge, code spraying and line marking and cutting and discharging and sorting after feeding, and the operation is simple and the degree of automation is high.
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Description

Technical Field

[0001] This invention relates to the field of ship bar processing technology, and in particular to an automated production line and method for cutting both bar and profile. Background Technology

[0002] Marine reinforcement mainly includes strips (flat steel), equal angle steel, unequal angle steel, bulb flat steel, flat steel, and T-sections. Currently, there are some devices on the market specifically designed for strips or sections, but they mainly have the following problems: 1. It has low compatibility, and can only cut strips or profiles, not both. 2. The production line has a single function, basically only capable of cutting, and does not have functions such as grinding, chamfering, or inkjet printing; 3. Low level of automation, many operators, and hoisting required between workstations. Summary of the Invention

[0003] The purpose of this invention is to provide an automated production line and method for cutting strips and profiles.

[0004] To achieve the above objectives, the technical solution of the present invention is as follows: An automated strip / profile cutting production line includes, from front to back, a strip feeding area, a chamfering buffer area, a slag removal and chamfering area, a cutting buffer area, a cutting loading area, a cutting area, a short material discharge area, a long material grinding area, and a long material discharge area. The strip cutting area is equipped with a multi-head cutting machine and a rotating worktable. The multi-head cutting machine cuts the steel plate into strips, and the rotating worktable conveys the strips to the chamfering buffer area. The chamfering buffer area is equipped with conveyor rollers in two directions. One conveyor roller is set along the production line direction to receive strips from the strip feeding area, while the other conveyor roller buffer uses a magnetic attraction mechanism to separate the strips and then transport them to the slag cleaning and chamfering area. The slag removal and chamfering area is equipped with a feeding roller conveyor, a grinding and slag removal machine, a chamfering machine, and a discharge roller conveyor. The feeding roller conveyor feeds the strip material, while the grinding and slag removal machine and the chamfering machine grind and chamfer the four corners of the strip panel. The discharge roller conveyor transports the strip material to the cutting buffer area. A profile feeding area is located on the side of the slag removal and chamfering area, where profiles are fed. The cutting buffer area includes a first cutting buffer area and a second cutting buffer area that are symmetrically arranged from left to right. The first and second cutting buffer areas are respectively equipped with a transverse conveyor chain and a marking and engraving gantry. The transverse conveyor chain conveys the strips or profiles from the discharge roller conveyor to the marking and engraving gantry. The marking and engraving gantry is equipped with a laser marking and engraving unit, which marks and engraves the strips or profiles. The marked and engraved strips or profiles are buffered on the transverse conveyor chain and then conveyed to the cutting and loading area. The cutting and feeding area includes a first cutting and feeding area and a second cutting and feeding area that are symmetrically arranged from left to right. The first cutting and feeding area and the second cutting and feeding area are respectively provided with a feeding conveyor roller line and a clamping and feeding mechanism. The clamping and feeding mechanism clamps one end of the strip or profile and feeds it to the cutting area along the feeding conveyor roller line. The cutting area includes a first cutting area and a second cutting area that are symmetrically arranged from left to right. Each of the first and second cutting areas is equipped with a cutting robot, which cuts strips or profiles. The short material discharge area includes a first short material discharge area and a second short material discharge area that are symmetrically arranged on both sides. The first short material discharge area and the second short material discharge area are respectively equipped with a length detection mechanism, a pusher rod, and a conveying device. The length detection mechanism divides the cut strips or profiles into long materials and short materials according to a set length. The long materials are conveyed to the long material grinding area by the conveying device, and the short materials are pushed into the material frame by the pusher rod. The long material grinding area includes a first long material grinding area and a second long material grinding area that are symmetrically arranged from left to right. The first long material grinding area and the second long material grinding area are respectively equipped with a long material turning mechanism and a long material grinding mechanism. The long material grinding machine grinds the cut surfaces of strips or profiles. The long material discharge area includes a first long material discharge area and a second long material discharge area that are symmetrically arranged on the left and right. The first long material discharge area and the second long material discharge area are respectively equipped with discharge push rods. The processed long material is pushed into the tray through the discharge push rods.

[0005] Furthermore, one of the conveyor rollers is equipped with a lifting mechanism to avoid another conveyor roller.

[0006] Furthermore, the feeding roller conveyor and the discharging roller conveyor of the slag cleaning and chamfering zone adopt a roller conveyor line, and the grinding and slag cleaning machine adopts abrasive belt and abrasive wheel grinding.

[0007] Furthermore, the inkjet marking gantry has the freedom to move along the length of the strip or profile and to rise and fall vertically. The inkjet marking gantry is equipped with a position detection sensor, which detects the position of the strip or profile.

[0008] Furthermore, the clamping and feeding mechanism in the cutting and feeding area adopts precision guide rail guidance and gear rack transmission, and the feeding of the feeding conveyor roller line is controlled by a servo motor. The servo motor is the external axis of the cutting robot and is controlled by the cutting robot.

[0009] Furthermore, the first cutting area and the second cutting area are respectively equipped with a cutting chamber and a fume processor. The cutting chamber controls the fume from cutting strips or profiles inside, and the fume from the cutting chamber is discharged after being treated by the fume processor.

[0010] Furthermore, the length detection mechanism defines strips or profiles with a length less than 4m as short materials and strips or profiles with a length greater than 4m as long materials.

[0011] The production method of the aforementioned automated strip and profile cutting production line includes the following steps: Step 1) Use the workshop overhead crane to lift the steel plate onto the rolling worktable in the strip cutting area; Step 2) Use a multi-head cutting machine to cut the steel plate into strips for strip cutting. Step 3) Start the rolling worktable to convey the strip to the conveyor rollers of the chamfered buffer area; Step 4) The strips in the chamfered buffer zone are sequentially fed into the slag-cleaning and chamfering zone feeding roller conveyor by magnetic adsorption or clamping. Step 5) Turn on the slag cleaning machine and chamfering machine in the slag cleaning and chamfering area. After the strip is cleaned and chamfered, it is conveyed to the discharge roller conveyor. Step 6) The strip is conveyed to the marking and scribing gantry in the cutting buffer area, and the laser marking and scribing unit is started to perform marking and scribing. The workpiece after marking and scribing is moved laterally and buffered on the transverse conveyor chain. Step 7) The clamp carriage pushes the strip to be cut into the cutting area, where the plasma cutter performs the cutting in a closed space; Step 8) The length detection mechanism divides the cut strips into long and short pieces according to the set length; Step 9) The short material is pushed into the material frame by the pusher rod for unloading; Long materials are conveyed to the long material grinding area, and after grinding, they are conveyed to the long material discharge area for unloading. The production method of profiles includes the following steps: Step 1) Use the workshop overhead crane to lift the profiles to the profile loading area; Step 2) After the profile passes through the slag removal and chamfering area, the grinding and slag removal machine and the chamfering machine are not working, and the profile is directly conveyed to the discharge roller conveyor; Step 3) The profile is conveyed to the inkjet marking gantry in the cutting buffer area, and the laser marking unit is started to perform inkjet marking. After inkjet marking, the profile is moved laterally and buffered on the transverse conveyor chain. Step 4) The clamp carriage pushes the profile to be cut into the cutting area, where plasma cutting is performed in a closed space; Step 5) The length detection mechanism divides the cut profiles into long and short pieces according to the set length; Step 6) The short material is pushed into the material frame by the pusher rod for unloading; Long materials are conveyed to the long material grinding area, and after grinding, they are conveyed to the long material discharge area for unloading.

[0012] This invention features an automated cutting production line. After the raw materials are fed in, they sequentially undergo cutting and pulling, strip transfer, automatic chamfering, inkjet marking and marking, and cutting and sorting. The operation is simple and highly automated. This invention optimizes the production process and layout of strip and profile materials, enabling it to be compatible with the cutting and processing of both types of workpieces. The workstation layout is compact, the floor space is small, and the production capacity is high. Attached Figure Description

[0013] Figure 1 This is a schematic diagram of the system structure of the present invention.

[0014] Figure label: 1. Strip cutting area; 2. Beveling and buffer area; 3. Slag removal and beveling area. 4 First Segment Buffer Area, 5 Second Segment Buffer Area, 6 First Segment Area 7 First short material discharge area, 8 First long material grinding area, 9 First long material discharge area 10 Second cutting buffer area, 11 Second cutting loading area, 12 Second cutting area, 13 Second short material discharge area, 14 Second long material grinding area, 15 Second long material discharge area 16 Profile feeding area. Detailed Implementation

[0015] The technical solution of the present invention will now be clearly and completely described with reference to the accompanying drawings. Obviously, the described embodiments are only some, not all, of the embodiments of the present invention. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0016] This invention discloses an automated production line for cutting strips and profiles, such as... Figure 1 As shown, it includes, from front to back, the strip feeding area 1, the chamfering buffer area 2, the slag cleaning and chamfering area 3, the cutting buffer area, the cutting and feeding area, the cutting area, the short material discharge area, the long material grinding area, and the long material discharge area.

[0017] The strip cutting area 1 is equipped with a multi-head cutting machine and a rolling worktable. The multi-head cutting machine can use flame cutting, plasma cutting or laser cutting to cut the whole steel plate into strips of the required width. After cutting, the rolling worktable works to transport the strips to the chamfering buffer area.

[0018] The chamfering buffer area 2 is equipped with conveyor rollers or chains in two directions. One conveyor roller or chain is set along the flow line to receive the strips from the strip feeding area 1. The other conveyor roller or chain buffers the strips and separates them through a magnetic attraction mechanism before conveying them to the slag cleaning and chamfering area 3. One of the conveyor rollers or chains is equipped with a lifting mechanism to avoid the other conveyor roller or chain.

[0019] The slag removal and chamfering zone 3 is equipped with a feeding roller conveyor, a grinding and slag removal machine, a chamfering machine, and a discharge roller conveyor. The feeding and discharge roller conveyors in the slag removal and chamfering zone 3 adopt roller conveyor lines. The grinding and slag removal machine uses abrasive belts and grinding wheels for grinding, so as to avoid being squeezed into the parent material by the subsequent chamfering machine and affecting the quality. The feeding roller conveyor feeds the strip material, and the grinding and slag removal machine and the chamfering machine grind and chamfer the four corners of the strip panel. The chamfering machine completes the chamfering of the four corners of the panel, and the chamfering radius is about R2-R3. The grinding and slag removal machine and the chamfering machine are arranged in series, and the two processes are completed in one line.

[0020] like Figure 1 As shown, the side of the slag cleaning and chamfering zone 3 is provided with a profile feeding zone 16. Profiles are directly fed in the profile feeding zone 16. When passing through the slag cleaning and chamfering zone 3, the grinding and slag cleaning machine and the chamfering machine do not work. The profiles are directly conveyed to the chamfering discharge roller conveyor. The subsequent process flow is the same as that of the strip material.

[0021] The processed strips or profiles that are directly fed are conveyed to the cutting buffer area via the discharge roller conveyor. The cutting buffer area includes a first cutting buffer area 4 and a second cutting buffer area 10 that are symmetrically arranged on the left and right. The first cutting buffer area 4 and the second cutting buffer area 10 are respectively equipped with a transverse conveyor chain and a coding and marking gantry. The transverse conveyor chain conveys the strips or profiles from the discharge roller conveyor to the coding and marking gantry for positioning and clamping, ensuring the workpiece position of the strips or profiles.

[0022] The inkjet marking and marking gantry has the freedom to move along the length of the strip or profile and to rise and fall vertically. The inkjet marking and marking gantry is equipped with a position detection sensor to detect the position of the strip or profile. The inkjet marking and marking gantry is equipped with a laser engraving and marking unit to inkjet mark and mark the strip or profile. The inkjet-marked strip or profile is buffered on the transverse conveyor chain and then conveyed to the cutting and feeding area.

[0023] like Figure 1 As shown, the cutting and feeding area includes a first cutting and feeding area 5 and a second cutting and feeding area 11 that are symmetrical from left to right. The first cutting and feeding area 5 and the second cutting and feeding area 11 are respectively provided with a feeding conveyor roller line and a clamping and feeding mechanism. The feeding is controlled by a servo motor. The clamping and feeding mechanism clamps one end of the strip or profile and feeds it to the cutting area along the feeding conveyor roller line.

[0024] The cutting area includes a first cutting area 6 and a second cutting area 12 that are symmetrical from left to right. Each of the first cutting area 6 and the second cutting area 12 is equipped with a cutting robot. The cutting robot cuts strips or profiles. The clamping and feeding mechanism of the cutting and feeding area adopts precision guide rail guidance and gear rack transmission. The feeding of the feeding conveyor roller line is controlled by a servo motor. The servo motor is the external axis of the cutting robot and is controlled by the cutting robot.

[0025] The first cutting zone 6 and the second cutting zone 12 are also equipped with a cutting chamber and a fume processor, respectively. The cutting chamber controls the fume from cutting strips or profiles inside, and the fume from the cutting chamber is discharged after being treated by the fume processor.

[0026] The short material discharge area includes a first short material discharge area 7 and a second short material discharge area 13, which are symmetrically arranged on the left and right. The first short material discharge area 7 and the second short material discharge area 13 are respectively equipped with a length detection mechanism, a pusher rod and a conveying device. The length detection mechanism divides the cut strips or profiles into long materials and short materials according to the set length. The length detection mechanism defines strips or profiles with a length of less than 4m as short materials and strips or profiles with a length of more than 4m as long materials. Long materials are conveyed to the long material grinding area by the conveying device, and short materials are pushed into the material frame by the pusher rod.

[0027] The long material grinding area includes a first long material grinding area 8 and a second long material grinding area 14 that are symmetrically arranged on the left and right. The first long material grinding area 8 and the second long material grinding area 14 are respectively equipped with a long material turning mechanism and a long material grinding mechanism. The long material grinding machine grinds the cut surface of strips or profiles. In actual operation, manual grinding can also be used to grind the cut surface of the workpiece.

[0028] like Figure 1 As shown, the long material discharge area includes a first long material discharge area 9 and a second long material discharge area 15 that are symmetrically arranged on the left and right. The first long material discharge area 9 and the second long material discharge area 15 are respectively equipped with discharge push rods. The processed long material is pushed into the tray through the discharge push rods.

[0029] When using, such as Figure 1 As shown, the first cutting buffer area 4 and the second cutting buffer area 10, the first cutting feeding area 5 and the second cutting feeding area 11, the first cutting area 6 and the second cutting area 12, the first short material discharge area 7 and the second short material discharge area 13, the first long material grinding area 8 and the second long material grinding area 14, the first long material discharge area 9 and the second long material discharge area 15 can all be... The production method using an automated strip / profile cutting production line includes the following steps: Step 1) Use the workshop overhead crane to lift the steel plate to the rolling worktable in the strip cutting area 1; Step 2) Use a multi-head cutting machine to cut the steel plate into strips for strip cutting. Step 3) Start the rolling worktable and convey the strip to the conveyor rollers of the chamfered buffer area 2; Step 4) The strips in the chamfered buffer zone 2 are sequentially fed into the feeding roller conveyor of the chamfered cleaning zone 3 by magnetic adsorption or clamping. Step 5) Open the slag cleaning machine and chamfering machine in the slag cleaning and chamfering zone 3. After the strip is cleaned and chamfered, it is conveyed to the discharge roller conveyor. Step 6) The strip is conveyed to the marking and engraving gantry in the cutting buffer area. The laser marking and engraving unit is started to perform marking and engraving (QR code, Chinese and English characters). The workpiece after marking and engraving is moved laterally and buffered on the transverse conveyor chain. Step 7) The clamp carriage pushes the strip to be cut into the cutting area, where the plasma cutter performs the cutting in a closed space; Step 8) The length detection mechanism divides the cut strips into long and short pieces according to the set length; Step 9) The short material is pushed into the material frame by the pusher rod for unloading; Long materials are conveyed to the long material grinding area, and after grinding, they are conveyed to the long material discharge area for unloading.

[0030] The production method of profiles includes the following steps: Step 1) Use the workshop overhead crane to lift the profiles to the profile loading area 16; Step 2) After the profile passes through the slag removal and chamfering zone 3, the grinding and slag removal machine and the chamfering machine are not working, and the profile is directly conveyed to the discharge roller conveyor; Step 3) The profile is conveyed to the inkjet marking gantry in the cutting buffer area, and the laser marking unit is started to perform inkjet marking (QR code, Chinese and English characters). After inkjet marking, the profile is moved laterally and buffered on the transverse conveyor chain. Step 4) The clamp carriage pushes the profile to be cut into the cutting area, where plasma cutting is performed in a closed space; Step 5) The length detection mechanism divides the cut profiles into long and short pieces according to the set length; Step 6) The short material is pushed into the material frame by the pusher rod for unloading; Long materials are conveyed to the long material grinding area, and after grinding, they are conveyed to the long material discharge area for unloading.

[0031] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention, and not to limit them; although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some or all of the technical features; and these modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the scope of the technical solutions of the embodiments of the present invention.

Claims

1. An automated production line for cutting strips and profiles, characterized in that, The system includes, from front to back, a strip feeding area (1), a chamfering buffer area (2), a slag cleaning and chamfering area (3), a cutting buffer area, a cutting and feeding area, a cutting area, a short material discharge area, a long material grinding area, and a long material discharge area. The strip feeding area (1) is equipped with a multi-head cutting machine and a rolling worktable. The multi-head cutting machine cuts steel plates into strips, and the rolling worktable transports the strips to the chamfering buffer area (2). The chamfering buffer area (2) is equipped with conveyor rollers in two directions. One conveyor roller is set along the flow line to receive the strips from the strip feeding area (1), and the other conveyor roller buffers and uses a magnetic suction mechanism to separate the strips before transporting them to the slag cleaning and chamfering area (3). The slag cleaning and chamfering area (3) is equipped with a feeding roller. The system includes a grinding and slag-removing machine, a chamfering machine, and a discharge roller conveyor. The feeding roller conveyor feeds the strip material, while the grinding and slag-removing machine and the chamfering machine grind and chamfer the four corners of the strip material panel. The discharge roller conveyor transports the strip material to the cutting buffer area. The chamfering and slag-removing area (3) has a profile feeding area (16) on its side, which feeds the profile material. The cutting buffer area includes a first cutting buffer area (4) and a second cutting buffer area (10) that are symmetrically arranged. The first cutting buffer area (4) and the second cutting buffer area (10) are respectively equipped with a transverse conveyor chain and a marking and scribing gantry. The transverse conveyor chain transports the strip material or profile material from the discharge roller conveyor to the marking and scribing gantry. The marking and scribing gantry is equipped with a laser engraving and scribing unit. The laser marking and scribing unit marks and engraves strips or profiles. The marked strips or profiles are buffered on a transverse conveyor chain before being transported to the cutting and feeding area. The cutting and feeding area includes a first cutting and feeding area (5) and a second cutting and feeding area (11) that are symmetrically arranged. The first cutting and feeding area (5) and the second cutting and feeding area (11) are respectively equipped with a feeding conveyor roller line and a clamping and feeding mechanism. The clamping and feeding mechanism clamps one end of the strip or profile and transports it to the cutting area along the feeding conveyor roller line. The cutting area includes a first cutting area (6) and a second cutting area (12) that are symmetrically arranged. The first cutting area (6) and the second cutting area (12) are respectively equipped with a cutting robot. The cutting robot cuts the strip or profile. The short material discharge area includes a first short material discharge area (7) and a second short material discharge area (13) symmetrically arranged on both sides. The first short material discharge area (7) and the second short material discharge area (13) are respectively equipped with a length detection mechanism, a pusher rod and a conveying device. The length detection mechanism divides the cut strips or profiles into long materials and short materials according to a set length. The long materials are conveyed to the long material grinding area by the conveying device, and the short materials are pushed into the material frame by the pusher rod. The long material grinding area includes a first long material grinding area (8) and a second long material grinding area (14) symmetrically arranged on both sides. The first long material grinding area (8) and the second long material grinding area (14) are respectively equipped with a long material turning mechanism and a long material grinding mechanism. The long material grinding machine grinds the cut surface of the strips or profiles.The long material discharge area includes a first long material discharge area (9) and a second long material discharge area (15) symmetrically arranged on both sides. Each of the first long material discharge area (9) and the second long material discharge area (15) is equipped with a discharge pusher. The processed long material is pushed into the tray by the discharge pusher.

2. The automated strip and profile cutting production line according to claim 1, characterized in that, One of the conveyor rollers is equipped with a lifting mechanism to avoid another conveyor roller.

3. The automated strip and profile cutting production line according to claim 1, characterized in that, The feeding roller conveyor and the discharging roller conveyor of the slag cleaning chamfering zone (3) are roller conveyors, and the grinding and slag cleaning machine is made of sand belt and grinding wheel.

4. The automated strip and profile cutting production line according to claim 1, characterized in that, The marking and coding gantry has the freedom to move along the length of the strip or profile and to rise and fall vertically. The marking and coding gantry is equipped with a position detection sensor, which detects the position of the strip or profile.

5. The automated strip and profile cutting production line according to claim 1, characterized in that, The clamping and feeding mechanism in the cutting and feeding area adopts precision guide rail guidance and gear rack transmission. The feeding of the feeding conveyor roller line is controlled by a servo motor. The servo motor is the external axis of the cutting robot and is controlled by the cutting robot.

6. The automated strip and profile cutting production line according to claim 1, characterized in that, The first cutting area (6) and the second cutting area (12) are respectively provided with a cutting chamber and a dust processor. The cutting chamber controls the dust from cutting strips or profiles inside, and the dust from the cutting chamber is discharged after being treated by the dust processor.

7. The automated strip and profile cutting production line according to claim 1, characterized in that, The length detection mechanism defines strips or profiles with a length less than 4m as short materials and strips or profiles with a length greater than 4m as long materials.

8. A production method using the automated strip / profile cutting production line as described in claim 1, characterized in that, The production method of strips includes the following steps: Step 1) Use the workshop crane to lift the steel plate to the strip cutting area (1) rolling worktable; Step 2) Use a multi-head cutting machine to cut the steel plate into strips for strip cutting. Step 3) Start the rolling worktable and convey the strip to the conveyor roller of the chamfered buffer area (2); Step 4) The strips in the chamfered buffer area (2) are sequentially fed into the slag-cleaning chamfered area (3) feeding roller conveyor by magnetic adsorption or clamping. Step 5) Open the slag cleaning machine and chamfering machine in the slag cleaning and chamfering area (3), and after the strip is cleaned and chamfered, it is conveyed to the discharge roller conveyor; Step 6) The strip is conveyed to the marking and scribing gantry in the cutting buffer area, and the laser marking and scribing unit is started to perform marking and scribing. The workpiece after marking and scribing is moved laterally and buffered on the transverse conveyor chain. Step 7) The clamp carriage pushes the strip to be cut into the cutting area, where the plasma cutter performs the cutting in a closed space; Step 8) The length detection mechanism divides the cut strips into long and short pieces according to the set length; Step 9) The short material is pushed into the material frame by the pusher rod for unloading; Long materials are conveyed to the long material grinding area, and after grinding, they are conveyed to the long material discharge area for unloading. The production method of profiles includes the following steps: Step 1) Use the workshop overhead crane to lift the profiles to the profile loading area (16); Step 2) After the profile passes through the slag removal and chamfering area (3), the grinding and slag removal machine and the chamfering machine are not working, and the profile is directly conveyed to the discharge roller conveyor; Step 3) The profile is conveyed to the inkjet marking gantry in the cutting buffer area, and the laser marking unit is started to perform inkjet marking. After inkjet marking, the profile is moved laterally and buffered on the transverse conveyor chain. Step 4) The clamp carriage pushes the profile to be cut into the cutting area, where plasma cutting is performed in a closed space; Step 5) The length detection mechanism divides the cut profiles into long and short pieces according to the set length; Step 6) The short material is pushed into the material frame by the pusher rod for unloading; Long materials are conveyed to the long material grinding area, and after grinding, they are conveyed to the long material discharge area for unloading.

Citation Information

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