Automatic compound die-cutting machine

Abstract

The invention belongs to the technical field of die-cutting machines, particularly relates to an automatic compound die-cutting machine, and provides the following scheme aiming at solving the problems that drawn wires which are difficult to clean are possibly generated along with the proceeding of machining, and the generated drawn wires are difficult to effectively and quickly clean, so that equipment needs to be shut down for cleaning, and the die-cutting machining efficiency is influenced. Comprising a die cutting base frame, a die cutting base is arranged on one side of the die cutting base frame, and a plurality of tool apron frames are arranged on the die cutting base. The automatic composite die-cutting machine has the effects of improving the die-cutting machining efficiency and the die-cutting machining quality, during die cutting, the device can strip drawn wires generated on the circular knife die without shutdown, the drawn wires are cleaned in real time after stripping, the situation that follow-up die cutting is affected by the drawn wires is avoided, and the production efficiency is improved. And in addition, wind power generated by the device during stripping can also cool the circular knife mold, so that the using effect of the device is further improved.

Description

Technical Field

[0001] This invention relates to the field of die-cutting machine technology, and in particular to an automated composite die-cutting machine. Background Technology

[0002] The FPC isolation film in mobile phone and tablet displays plays a key role in production and assembly. Its main function is to protect the circuit from scratches and contamination during the complex manufacturing, transportation and assembly process of FPC, and to isolate and prevent sticking, which directly affects the yield and reliability of the final product.

[0003] Rotary die-cutting machines are indispensable high-efficiency precision processing equipment in modern manufacturing. They achieve precise forming of various roll materials at high speed through continuous rotary die-cutting, greatly improving production efficiency and product quality. They enable high-speed, continuous cutting and waste removal, making them very suitable for the mass precision processing of lightweight and flexible materials such as FPC.

[0004] Existing die-cutting machines generate heat from the blades during FPC release film processing. As processing progresses, this may cause the adhesive to melt, overflow, or contaminate the die and material. In severe cases, it may produce stringy residue that is difficult to clean. This stringy residue is difficult to clean effectively and quickly, requiring the equipment to be shut down for cleaning and affecting the die-cutting efficiency. Summary of the Invention

[0005] This invention discloses an automated composite die-cutting machine, which aims to solve the technical problem in the background art that difficult-to-clean filaments may be generated during processing, and it is difficult to effectively and quickly clean the generated filaments, thus requiring the equipment to be stopped for cleaning and affecting the die-cutting efficiency.

[0006] The present invention proposes an automated composite die-cutting machine, comprising: A die-cutting base frame is provided on one side of the die-cutting base frame, and multiple knife holder frames are provided on the die-cutting base frame, and multiple die-cutting guide rollers are provided on each knife holder frame; Multiple film feeding rollers are mounted on the die-cutting base frame; Y-axis adjustment mechanism, the Y-axis adjustment mechanism is set on the tool holder frame, and a circular tool mold is set on the Y-axis adjustment mechanism; A die-cutting bottom roller is mounted on a blade holder frame and is located below a circular blade mold. A wire drawing and cleaning unit is mounted on a knife holder frame. The wire drawing and cleaning unit includes two air knives and a negative pressure chamber pipe. The negative pressure chamber pipe has multiple negative pressure ports. The film cutting and cleaning module is set on two adjacent cutter holder frames. The film cutting and cleaning module includes a switching frame and multiple dust-adhesive rollers.

[0007] In a preferred embodiment, the wire-drawing cleaning unit further includes: Two mounting rods are provided, both of which are mounted on the tool holder frame. The two mounting rods are mounted on the same fixed frame, and the negative pressure chamber pipe is mounted on the fixed frame. A guide frame is set on a fixed frame. The guide frame has two guide openings, and each guide opening has a guide frame inside. Two air blades are respectively set on the two guide frames.

[0008] In a preferred embodiment, the wire-drawing cleaning unit further includes: A lateral plate frame is mounted on a guide frame. Two telescopic springs are mounted on the lateral plate frame, and one end of each telescopic spring is mounted on one of the two air knife components. Two connecting hoses are respectively installed on two air knife components. The two connecting hoses pass through two telescopic springs respectively. One end of the two connecting hoses is provided with the same connecting chamber, which is installed on the side plate frame.

[0009] In a preferred embodiment, the wire-drawing cleaning unit further includes: An air pump body is installed on the connecting chamber, and an air purifier is installed at the input end of the air pump body. Connecting wire harnesses are installed on the two air knife components; A fixed horizontal plate is set on the guide frame. Two shaft members are set on the fixed horizontal plate, one of which is equipped with a reciprocating wheel, and the connecting wire harness is located on the reciprocating wheel.

[0010] In a preferred embodiment, the wire-drawing cleaning unit further includes: A reciprocating motor is mounted on a fixed horizontal plate, and the output shaft of the reciprocating motor is connected to one end of one of the shaft members via a coupling. A pressing and applicating roller is mounted on another shaft member, and the outer wall of the pressing and applicating roller contacts the outer wall of the connecting wire harness; A driving gear is mounted on one of the shaft members, and a driven gear is mounted on the other shaft member. The driven gear meshes with the driving gear.

[0011] In a preferred embodiment, the wire-drawing cleaning unit further includes: Cleaning pump, the cleaning pump is installed on the negative pressure chamber pipe; An air filter frame is installed inside a negative pressure chamber pipe. The negative pressure chamber pipe has an insertion section, and the insertion section has a multi-stage telescopic rod. The output end of the multi-stage telescopic rod is equipped with a filament-adhesive plate seat, which is located inside the insertion section.

[0012] In a preferred embodiment, the membrane cleaning module further includes: Two fixed plates are mounted on the tool holder frame. The two fixed plates are provided with the same fixed shaft, and the fixed shaft is provided with a bearing bottom roller. Gear component one, gear component one is mounted on the bearing bottom roller; A general-purpose motor is mounted on one of the fixed plates, and the output shaft of the general-purpose motor is connected to one end of a fixed shaft via a coupling.

[0013] In a preferred embodiment, the membrane cleaning module further includes: A fixed bracket is mounted on one of the fixed plates. A servo motor is mounted on the fixed bracket. A switching frame is mounted on the output shaft of the servo motor via a coupling. The switching frame has multiple movable openings. Multiple active blocks are set inside multiple active ports.

[0014] In a preferred embodiment, the membrane cleaning module further includes: Multiple push rods, each set on a different movable block; An electric telescopic rod is mounted on a fixed bracket. The output end of the electric telescopic rod is equipped with a push plate, and the outer wall of the push plate contacts the outer wall of one of the push rods. Multiple rotating rod seats are respectively set on multiple movable blocks. Each of the multiple rotating rod seats is equipped with a gear component 2, one of which meshes with a gear component 1. Multiple dust-adhesive rollers are respectively set on the multiple rotating rod seats.

[0015] In a preferred embodiment, the membrane cleaning module further includes: Multiple limiting screw holes are respectively opened on multiple rotating rod seats, and each of the multiple limiting screw holes is provided with a limiting bolt; Multiple retraction springs are respectively disposed inside multiple movable openings, and one end of each of the multiple retraction springs is respectively disposed on multiple movable blocks.

[0016] As can be seen from the above, the automated composite die-cutting machine provided by the present invention has the function of improving the efficiency and quality of die-cutting. During die-cutting, the device can peel off the filaments generated on the circular die without stopping the machine, and clean the filaments in real time after peeling to avoid affecting the subsequent die-cutting. In addition, the wind generated by the device during peeling can also cool down the circular die, thereby further increasing the effectiveness of the device. Attached Figure Description

[0017] Figure 1 This is a schematic diagram of the overall structure of an automated composite die-cutting machine proposed in this invention; Figure 2 This is a schematic diagram of the combined structure of the die-cutting base and the blade holder frame of an automated composite die-cutting machine proposed in this invention; Figure 3 This is a schematic diagram of the combined structure of a circular die and a die-cutting bottom roller in an automated composite die-cutting machine proposed in this invention; Figure 4 This is a schematic diagram of the wire drawing and cleaning unit structure of an automated composite die-cutting machine proposed in this invention; Figure 5 This is a schematic diagram of the combined structure of the guide frame and negative pressure chamber pipe of an automated composite die-cutting machine proposed in this invention; Figure 6 This is a schematic diagram of the disassembled structure of the air knife and guide frame of an automated composite die-cutting machine proposed in this invention; Figure 7 This is a schematic diagram of the reciprocating wheel and drive gear combination structure of an automated composite die-cutting machine proposed in this invention; Figure 8 This is a schematic diagram of the disassembled structure of the insertion compartment section and the negative pressure compartment pipe of an automated composite die-cutting machine proposed in this invention; Figure 9 This is a schematic diagram of the film-cutting and cleaning module structure of an automated composite die-cutting machine proposed in this invention; Figure 10 This is a schematic diagram of the disassembled structure of the moving parts and switching frame of an automated composite die-cutting machine proposed in this invention.

[0018] In the diagram: 1. Die-cutting base frame; 2. Die-cutting base; 3. Knife holder frame; 4. Film feeding roller shaft; 5. Fiber pulling and cleaning unit; 501. Mounting rod; 502. Fixing frame; 503. Negative pressure chamber pipe; 504. Negative pressure port; 505. Insertion chamber section; 506. Side plate frame; 507. Guide frame; 508. Air knife component; 509. Fixing cross plate; 510. Multi-stage telescopic rod; 511. Shaft component; 512. Reciprocating motor; 513. Connecting harness; 514. Guide frame; 515. Telescopic spring; 516. Connecting hose; 517. Connecting chamber; 518. Air pump body; 519. Air purifier; 520. Guide port; 521. Drive gear; 522. Driven gear; 523. 524. Extrusion roller; 525. Reciprocating roller; 526. Adhesive plate holder; 527. Air filter frame; 528. Cleaning pump; 6. Film cutting and cleaning module; 601. Fixing plate; 602. Gear component one; 603. Dust-adhesive sleeve roller; 604. Limit bolt; 605. Fixing shaft; 606. Bearing bottom roller; 607. Limit screw hole; 608. Rotating rod holder; 609. General motor; 610. Servo motor; 611. Push rod; 612. Gear component two; 613. Contraction spring; 614. Movable block; 615. Switching frame; 616. Fixed bracket; 617. Push plate; 618. Electric telescopic rod; 7. Y-axis adjustment mechanism; 8. Circular knife mold; 9. Die-cutting guide roller; 10. Die-cutting bottom roller. Detailed Implementation

[0019] The technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present invention. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments.

[0020] The automated composite die-cutting machine disclosed in this invention is mainly used in scenarios where difficult-to-clean filaments may be generated during processing, and it is difficult to effectively and quickly clean the generated filaments, thus requiring the equipment to be stopped for cleaning and affecting the die-cutting efficiency.

[0021] Reference Figures 1-10 An automated composite die-cutting machine, comprising: Die-cutting base frame 1, a die-cutting base 2 is provided on one side of the die-cutting base frame 1, a plurality of knife holder frames 3 are provided on the die-cutting base 2, and a plurality of die-cutting guide rollers 9 are provided on each of the knife holder frames 3; Multiple film feeding rollers 4 are mounted on the die-cutting base frame 1; Y-axis adjustment mechanism 7, Y-axis adjustment mechanism 7 is set on tool holder frame 3, and circular tool mold 8 is set on Y-axis adjustment mechanism 7; Die-cutting bottom roller 10 is mounted on the knife holder frame 3 and is located below the circular knife mold 8; The wire drawing and cleaning unit 5 is mounted on the knife holder frame 3. The wire drawing and cleaning unit 5 includes two air knives 508 and a negative pressure chamber pipe 503. The negative pressure chamber pipe 503 is provided with multiple negative pressure ports 504. The film cutting and cleaning module 6 is set on two adjacent knife holder frames 3. The film cutting and cleaning module 6 includes a switching frame 615 and multiple dust-adhesive rollers 603.

[0022] It should be noted that the Y-axis adjustment mechanism 7 can adjust the distance between the circular die 8 and the die-cutting bottom roller 10 during use to adapt to different thicknesses of film cutting.

[0023] Reference Figures 2-8 In a preferred embodiment, the wire-drawing cleaning unit 5 further includes: Two mounting rods 501 are mounted on the tool holder frame 3. The two mounting rods 501 are mounted on the same fixed frame 502. The negative pressure chamber pipe 503 is mounted on the fixed frame 502. The guide frame 507 is mounted on the fixed frame 502. The guide frame 507 has two guide openings 520. Each of the two guide openings 520 has a guide frame 514 inside. Two air knife components 508 are respectively mounted on the two guide frames 514.

[0024] In this invention, the wire-drawing cleaning unit 5 further includes: A side plate frame 506 is mounted on a guide frame 507. Two telescopic springs 515 are mounted on the side plate frame 506, and one end of each telescopic spring 515 is mounted on a two air knife component 508. Two connecting hoses 516 are respectively installed on two air knife components 508. The two connecting hoses 516 pass through two telescopic springs 515 respectively. One end of the two connecting hoses 516 is provided with the same connecting chamber 517, which is installed on the side plate frame 506.

[0025] In this invention, the wire-drawing cleaning unit 5 further includes: An air pump body 518 is installed on the connecting chamber 517, and an air purifier 519 is installed at the input end of the air pump body 518. Connecting wire harness 513 is provided on the two air knife components 508; A fixed horizontal plate 509 is mounted on a guide frame 507. Two shaft members 511 are mounted on the fixed horizontal plate 509. One of the shaft members 511 is equipped with a reciprocating wheel 524, and the connecting wire harness 513 is located on the reciprocating wheel 524.

[0026] In this invention, the wire-drawing cleaning unit 5 further includes: A reciprocating motor 512 is mounted on a fixed horizontal plate 509. The output shaft of the reciprocating motor 512 is connected to one end of one of the shaft members 511 via a coupling. The extrusion roller 523 is mounted on another shaft member 511, and the outer wall of the extrusion roller 523 is in contact with the outer wall of the connecting wire harness 513. The driving gear 521 is mounted on one of the shaft members 511, and the driven gear 522 is mounted on the other shaft member 511. The driven gear 522 meshes with the driving gear 521.

[0027] In this invention, the wire-drawing cleaning unit 5 further includes: Cleaning pump 527 is installed on negative pressure chamber pipe 503; An air filter frame 526 is disposed inside a negative pressure chamber pipe 503. A plug-in section 505 is disposed on the negative pressure chamber pipe 503. A multi-stage telescopic rod 510 is disposed on the plug-in section 505. A wire-adhesive plate seat 525 is disposed at the output end of the multi-stage telescopic rod 510. The wire-adhesive plate seat 525 is located inside the plug-in section 505.

[0028] Specifically, during die-cutting, the air pump body 518 operates, and the air pump body 518, in conjunction with the air purifier 519, delivers clean air into the connecting chamber 517, and then delivers it to the air knife component 508 through the connecting hose 516, so that the air knife component 508 cleans the circular die 8 (at this time, to increase the airflow velocity in the die-cutting area, it plays a role in auxiliary cooling). During cleaning, the reciprocating motor 512 operates, and the reciprocating motor 512 drives the reciprocating wheel 524 and the driving gear 521 to rotate, and due to the interaction between the driving gear 521 and the driven gear 518... With 22 phases meshing, the reciprocating wheel 524 and the pressing wheel 523 operate synchronously to drive the connecting harness 513 to move. In conjunction with the telescopic spring 515, the two air knife components 508 move in opposite directions to increase the cleaning and stripping effect. At this time, when there are filaments on the circular knife mold 8, they can be stripped. During the filament stripping, the cleaning pump 527 is also in operation to discharge the gas inside the negative pressure chamber pipe 503, thereby creating a negative pressure state. This allows the negative pressure chamber pipe 503 to suck the stripped filaments into its interior, completing real-time cleaning. After cleaning, the multi-stage telescopic rod 510 is activated, which can drive the adhesive plate seat 525 to move so that the adhesive plate seat 525 moves to the air filter screen frame 526 and cleans the filaments on it to prevent clogging until the processing is completed. Then, the insertion compartment section 505 is disassembled and the adhesive filaments on the adhesive plate seat 525 are treated. In specific application scenarios, the filament cleaning unit 5 is suitable for the die-cutting process of FPC release film. That is, the filament cleaning unit 5 can peel off the filaments generated on the circular die 8 through the air knife 508 without stopping the machine during die-cutting. After peeling, the filaments are cleaned in real time through the negative pressure chamber 503 to avoid affecting the subsequent die-cutting process, thereby increasing the die-cutting efficiency of the device. The cleaning of filaments can also prevent them from affecting the subsequent die-cutting quality. At the same time, the air force generated by the device during peeling can blow on the circular die 8 and increase the air flow rate in the die-cutting area, thereby playing an auxiliary role in cooling the circular die 8 and further improving the use effect of the device. It should be noted that when peeling with the air knife 508, the two air knives move in an alternating reciprocating motion, so that the device can repeatedly pull, swing and shear the adhesive filaments, making it easier to destroy the micro-adhesion points between the adhesive filaments and the sharp blades, and improving the cleaning power of the device. The adhesive strands sucked in by the negative pressure chamber pipe 503 will fall onto the air filter screen frame 526 with the airflow. The adhesive strands can be bonded and separated in the air chamber by the adhesive strand plate seat 525 to avoid clogging of the air filter screen frame 526 and ensure cleaning effect. At the same time, the plug end is detachable to facilitate centralized processing of the adhesive strands.

[0029] Reference Figure 2 , Figure 3 , Figure 9 and Figure 10 In a preferred embodiment, the film-cutting and cleaning module 6 further includes: Two fixed plates 601 are provided on the tool holder frame 3. The two fixed plates 601 are provided with the same fixed shaft 605. The fixed shaft 605 is provided with a bearing bottom roller 606. Gear component 602 is mounted on the bearing bottom roller 606; A general-purpose motor 609 is mounted on one of the fixed plates 601, and the output shaft of the general-purpose motor 609 is connected to one end of a fixed shaft 605 via a coupling.

[0030] In this invention, the film-cutting and cleaning module 6 further includes: A fixed bracket 616 is mounted on one of the fixed plates 601. A servo motor 610 is mounted on the fixed bracket 616. A switching frame 615 is mounted on the output shaft of the servo motor 610 via a coupling. Multiple movable openings are provided on the switching frame 615. Multiple active blocks 614 are respectively set inside multiple active ports.

[0031] In this invention, the film-cutting and cleaning module 6 further includes: Multiple push rods 611 are respectively set on multiple movable blocks 614; An electric telescopic rod 618 is mounted on a fixed bracket 616. The output end of the electric telescopic rod 618 is provided with a push plate 617, and the outer wall of the push plate 617 contacts the outer wall of one of the push rods 611. Multiple rotating rod seats 608 are respectively disposed on multiple movable blocks 614. Each of the multiple rotating rod seats 608 is provided with a gear component 612, one of which meshes with a gear component 602. Multiple dust-adhesive rollers 603 are respectively disposed on the multiple rotating rod seats 608.

[0032] In this invention, the film-cutting and cleaning module 6 further includes: Multiple limiting screw holes 607 are respectively opened on multiple rotating rod seats 608, and each of the multiple limiting screw holes 607 is provided with a limiting bolt 604; Multiple retraction springs 613 are respectively disposed inside multiple movable openings, and one end of each of the multiple retraction springs 613 is disposed on multiple movable blocks 614.

[0033] Specifically, after die-cutting, the bottom film passes through the supporting bottom roller 606. At this time, the general motor 609 runs to drive the supporting bottom roller 606 and gear component 602 to rotate. Gear component 602 meshes with gear component 612, which can drive one of the rotating rod seats 608 and the dust-adhesive sleeve roller 603 to rotate, so as to adhere and clean the dust generated by die-cutting. During replacement, the electric telescopic rod 618 retracts, causing the push plate 617 to rise. In conjunction with the retraction spring 613, the movable block 614 moves inside the movable opening, thereby disengaging gear component 602 and gear component 612. Then, the servo motor 610 runs to drive the switching frame 615 to rotate, thereby switching the rotating rod seat 608 and the dust-adhesive roller 603. After the switching, the electric telescopic rod 618 is restarted, causing it to push the push rod 611 and the movable block 614 to move until gear component 612 and gear component 602 of the rotating rod seat 608 on the movable block 614 mesh, thus completing the switching. When disassembling and assembling the dust-adhesive roller 603, rotate the limiting bolt 604 to separate the limiting bolt 604 from the limiting screw hole 607, and remove the dust-adhesive roller 603 for replacement. Then, reinstall the limiting bolt 604 to complete the disassembly and replacement of the dust-adhesive roller 603. In specific application scenarios, the film cutting and cleaning module 6 is suitable for the FPC isolation film die-cutting and cleaning process. That is, after the die-cutting is completed, the film cutting and cleaning module 6 can clean the dust of the FPC isolation film that has passed through, so as to avoid the dust generated by the die-cutting remaining on the base film and other film layers, thereby ensuring that no adverse effects such as bubbles or indentations will be caused when the screen or circuit is subsequently bonded, so as to further improve the die-cutting processing effect of the device. It should be noted that during cleaning, the device is equipped with multiple dust-adhesive rollers 603. When the dust-adhesive effect of a single dust-adhesive roller 603 decreases, it can be replaced in a timely manner, and the downtime for replacement is short, which can effectively ensure the processing continuity of the device and further increase the effectiveness of the device.

[0034] Working principle: During die cutting, the air pump body 518 operates, and the air pump body 518, in conjunction with the air purifier 519, delivers clean air into the connecting chamber 517, and then delivers it to the air knife component 508 through the connecting hose 516, so that the air knife component 508 cleans the circular die 8 (at this time, to increase the airflow velocity in the die cutting area, it plays a role in auxiliary cooling). During cleaning, the reciprocating motor 512 operates, and the reciprocating motor 512 drives the reciprocating wheel 524 and the driving gear 521 to rotate, and due to the interaction between the driving gear 521 and the driven gear 522... The reciprocating wheel 524 and the pressing wheel 523 mesh with each other, so that the reciprocating wheel 524 and the pressing wheel 523 operate synchronously to drive the connecting wire harness 513 to move. In conjunction with the telescopic spring 515, the two air knife components 508 move in opposite directions to increase the cleaning and stripping effect. At this time, when there are filaments on the circular knife mold 8, they can be stripped. When the filaments are stripped, the cleaning pump 527 is also running to discharge the gas inside the negative pressure chamber pipe 503, so that it is in a negative pressure state, so that the negative pressure chamber pipe 503 can suck the stripped filaments into its interior to complete real-time cleaning. After cleaning, the multi-stage telescopic rod 510 is activated, which can drive the adhesive plate seat 525 to move so that the adhesive plate seat 525 moves to the air filter screen frame 526 and cleans the filaments on it to prevent clogging until the processing is completed. Then, the insertion compartment section 505 is disassembled and the adhesive filaments on the adhesive plate seat 525 are treated. After die-cutting, the bottom film passes through the supporting bottom roller 606. At this time, the general motor 609 runs to drive the supporting bottom roller 606 and gear component 602 to rotate. Gear component 602 meshes with gear component 612, which can drive one of the rotating rod seats 608 and the dust sticking sleeve roller 603 to rotate, so as to stick and clean the dust generated by die-cutting. During replacement, the electric telescopic rod 618 retracts, causing the push plate 617 to rise. In conjunction with the retraction spring 613, the movable block 614 moves inside the movable opening, thereby disengaging gear component 602 and gear component 612. Then, the servo motor 610 runs to drive the switching frame 615 to rotate, thereby switching the rotating rod seat 608 and the dust-adhesive roller 603. After the switching, the electric telescopic rod 618 is restarted, causing it to push the push rod 611 and the movable block 614 to move until gear component 612 and gear component 602 of the rotating rod seat 608 on the movable block 614 mesh, thus completing the switching. When disassembling and assembling the dust-adhesive roller 603, rotate the limiting bolt 604 to separate the limiting bolt 604 from the limiting screw hole 607, and remove the dust-adhesive roller 603 for replacement. Then, reinstall the limiting bolt 604 to complete the disassembly and replacement of the dust-adhesive roller 603.

[0035] The above description is only a preferred embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the scope of the technology disclosed in the present invention, based on the technical solution and inventive concept of the present invention, should be covered within the scope of protection of the present invention.

Claims

1. An automated composite die-cutting machine, characterized in that, include: Die-cutting base frame (1), a die-cutting base seat (2) is provided on one side of the die-cutting base frame (1), and multiple knife holder frames (3) are provided on the die-cutting base seat (2), and multiple die-cutting guide rollers (9) are provided on each knife holder frame (3). Multiple film feeding rollers (4) are mounted on the die-cutting base frame (1); Y-axis adjustment mechanism (7) is set on the tool holder frame (3), and a circular tool mold (8) is set on the Y-axis adjustment mechanism (7). Die-cutting bottom roller (10) is mounted on the knife holder frame (3) and is located below the circular knife mold (8); The wire drawing and cleaning unit (5) is set on the knife holder frame (3). The wire drawing and cleaning unit (5) includes two air knife components (508) and a negative pressure chamber pipe (503). Multiple negative pressure ports (504) are opened on the negative pressure chamber pipe (503). The film cutting and cleaning module (6) is set on two adjacent knife holder frames (3). The film cutting and cleaning module (6) includes a switching frame (615) and multiple dust-adhesive rollers (603).

2. The automated composite die-cutting machine according to claim 1, characterized in that, The wire drawing and cleaning unit (5) also includes: Two mounting rods (501) are mounted on the tool holder frame (3), and the two mounting rods (501) are mounted on the same fixed frame (502). The negative pressure chamber pipe (503) is mounted on the fixed frame (502). The guide frame (507) is set on the fixed frame (502). The guide frame (507) has two guide openings (520). The guide frame (520) is provided with guide frames (514) inside the two guide openings (520). Two air knife components (508) are respectively set on the two guide frames (514).

3. The automated composite die-cutting machine according to claim 2, characterized in that, The wire drawing and cleaning unit (5) also includes: A side plate frame (506) is mounted on a guide frame (507). Two telescopic springs (515) are mounted on the side plate frame (506), and one end of each telescopic spring (515) is mounted on one of the two air knife components (508). Two connecting hoses (516) are respectively installed on two air knife components (508). The two connecting hoses (516) pass through two telescopic springs (515). One end of the two connecting hoses (516) is provided with the same connecting chamber (517), which is installed on the side plate frame (506).

4. An automated composite die-cutting machine according to claim 3, characterized in that, The wire drawing and cleaning unit (5) also includes: An air pump body (518) is installed on the connecting chamber (517), and an air purifier (519) is installed at the input end of the air pump body (518). A connecting harness (513) is provided on two air knife components (508); A fixed horizontal plate (509) is provided on the guide frame (507). Two shaft members (511) are provided on the fixed horizontal plate (509). One of the shaft members (511) is provided with a reciprocating wheel (524). The connecting wire harness (513) is located on the reciprocating wheel (524).

5. An automated composite die-cutting machine according to claim 4, characterized in that, The wire-drawing cleaning unit (5) also includes: A reciprocating motor (512) is mounted on a fixed horizontal plate (509). The output shaft of the reciprocating motor (512) is connected to one end of one of the shaft members (511) via a coupling. The extrusion roller (523) is mounted on another shaft member (511), and the outer wall of the extrusion roller (523) is in contact with the outer wall of the connecting wire harness (513). A drive gear (521) is mounted on one of the shaft members (511), and a driven gear (522) is mounted on the other shaft member (511). The driven gear (522) meshes with the drive gear (521).

6. An automated composite die-cutting machine according to claim 5, characterized in that, The wire drawing and cleaning unit (5) also includes: Cleaning pump (527) is installed on negative pressure chamber pipe (503); An air filter frame (526) is provided inside a negative pressure chamber pipe (503). The negative pressure chamber pipe (503) is provided with a plug-in section (505). A multi-stage telescopic rod (510) is provided on the plug-in section (505). A wire-adhesive plate seat (525) is provided at the output end of the multi-stage telescopic rod (510). The wire-adhesive plate seat (525) is located inside the plug-in section (505).

7. An automated composite die-cutting machine according to claim 1, characterized in that, The membrane cutting and cleaning module (6) also includes: Two fixed plates (601) are provided on the tool holder frame (3). The two fixed plates (601) are provided with the same fixed shaft (605). The fixed shaft (605) is provided with a bearing bottom roller (606). Gear component 1 (602) is disposed on the bearing bottom roller (606); A general-purpose motor (609) is mounted on one of the fixed plates (601), and the output shaft of the general-purpose motor (609) is connected to one end of a fixed shaft (605) via a coupling.

8. An automated composite die-cutting machine according to claim 7, characterized in that, The membrane cutting and cleaning module (6) also includes: A fixed bracket (616) is mounted on one of the fixed plates (601). A servo motor (610) is mounted on the fixed bracket (616). A switching frame (615) is mounted on the output shaft of the servo motor (610) via a coupling. The switching frame (615) has multiple movable openings. Multiple active blocks (614) are respectively set inside multiple active ports.

9. An automated composite die-cutting machine according to claim 8, characterized in that, The membrane cutting and cleaning module (6) also includes: Multiple push rods (611) are respectively set on multiple movable blocks (614); An electric telescopic rod (618) is mounted on a fixed bracket (616). The output end of the electric telescopic rod (618) is provided with a push plate (617). The outer wall of the push plate (617) is in contact with the outer wall of one of the push rods (611). Multiple rotating rod seats (608) are respectively disposed on multiple movable blocks (614). Each of the multiple rotating rod seats (608) is provided with a gear component two (612), one of which meshes with a gear component one (602). Multiple dust-adhesive rollers (603) are respectively disposed on the multiple rotating rod seats (608).

10. An automated composite die-cutting machine according to claim 9, characterized in that, The membrane cutting and cleaning module (6) also includes: Multiple limiting screw holes (607) are respectively opened on multiple rotating rod seats (608), and each of the multiple limiting screw holes (607) is provided with a limiting bolt (604). Multiple retraction springs (613) are respectively disposed inside multiple movable openings, and one end of each of the multiple retraction springs (613) is respectively disposed on multiple movable blocks (614).

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