Display screen-based intelligent labbon machine

Abstract

The application relates to the field of rabbet machines, and provides an intelligent rabbet machine based on a display screen, which comprises a main body mechanism and a controller which are electrically connected with each other, the main body mechanism is connected with a main shaft transmission mechanism, a needle bar mechanism, a hook needle mechanism, a presser foot mechanism, a small press wheel transmission mechanism, a thread cutting and feeding mechanism and a gas valve mechanism, a single-chip microcomputer is arranged in the controller, and the single-chip microcomputer comprises a control module and a data storage module. The application can improve the sewing quality of soles and rabbets and make the needle distances equal.

Description

Technical Field

[0001] This invention relates to the field of laminating machine technology, and more specifically to an intelligent laminating machine based on a display screen. Background Technology

[0002] A sewing machine is a sewing device used for sewing shoe uppers and soles. Its operation is semi-automatic (e.g., intermittently driven by a motor). It primarily involves clamping two layers of workpiece material between the feed teeth and a small presser wheel. The presser wheel rotates intermittently in sync with the feed wheel, allowing the user to hold both ends of the workpiece and push it along in coordination with the feed speed to complete the sewing operation.

[0003] However, the sewing quality of current lapping machines needs improvement, as inconsistent stitch lengths are common. Summary of the Invention

[0004] To address the aforementioned technical problems, this invention aims to provide a smart laminating machine based on a display screen. To solve these problems, this invention employs the following technical solution:

[0005] A smart stretching machine based on a display screen includes a main body mechanism and a controller that are electrically connected to each other. The main body mechanism is connected to a main shaft transmission mechanism, a needle bar mechanism, a hook needle mechanism, a presser foot mechanism, a small pressure roller transmission mechanism, a wire cutting and feeding mechanism, and an air valve mechanism. The controller is equipped with a microcontroller, which includes a control module and a data storage module.

[0006] The main structure includes the main body of the machine housing, the main body cover, and the oil pan cover. The wire hook cover is connected to the main body of the machine housing, the motor cover is connected to the main body of the machine housing, the main body cover is connected to the main body of the machine housing, the oil pan cover is connected to the main body of the machine housing, the movable leaf body is connected to the main body of the machine housing, and the movable leaf body is equipped with a movable leaf shaft. Wire clamp one and wire clamp two are both connected to the main body cover. The wire clamp rod and wire clamp plate are both connected between wire clamp one and wire clamp two. The oil window is connected to the main body cover. Side seat one is connected to the main body of the machine housing through side seat one and side seat two. The wire clamping electromagnet is connected to the main body cover. The goggle lens is connected to the main body cover through the goggle bracket. The wire guide post is connected to the main body cover. The hexagonal nut is connected to the wire guide post. The wire hook cover pressure plate is connected to the main body of the machine housing, and the wire hook cover pressure plate and the wire hook cover abut against each other. The belt guard is connected to the main body of the machine housing.

[0007] Furthermore, the main spindle transmission mechanism includes a main spindle body, a motor claw, a first deep groove ball bearing, a first oil seal, a main spindle claw, a main spindle bearing sleeve, a second deep groove ball bearing, a motor, a rubber motor claw, a second oil seal, a pulley, an oil pump body, and an oil pump plastic gear and an oil pump gear.

[0008] The motor claw is connected to the rotor of the motor, and a motor claw rubber is attached to the motor claw. The spindle claw is connected to the motor claw, and the spindle body is connected to the spindle claw. Deep groove ball bearing 1 and deep groove ball bearing 2 are both rotatably connected to the spindle body. Deep groove ball bearing 1 and deep groove ball bearing 2 are both connected to the machine housing body. Oil seal 1 is connected to deep groove ball bearing 1, and oil seal 2 is connected to deep groove ball bearing 2. The spindle body is connected to the pulley through the spindle bearing sleeve. The oil pump gear is connected to the spindle body, and the oil pump plastic gear is connected to the oil pump body. The oil pump gear and the oil pump plastic gear mesh. The oil pump body is connected to the machine housing body.

[0009] Furthermore, the needle bar mechanism includes a needle bar crank arm assembly, a needle bar crank body, a needle bar crank baffle, a needle bar crank seat, a needle bar crank sleeve, a gasket, a needle bar slider, a needle bar chuck, an open retaining ring, a needle bar sleeve one, a needle bar sleeve two, a needle bar body, a needle bar slider seat, a needle grenade body, and a sewing needle.

[0010] The needle bar crank body is connected to the needle bar crank arm assembly, the needle bar crank arm assembly is connected to the needle bar crank seat, the needle bar crank seat is connected to the machine housing body, the needle bar crank baffle is connected to the needle bar crank arm assembly, the needle bar crank sleeve, gasket, needle bar slider, and open retaining ring are all connected to the needle bar crank body, the needle bar chuck is connected to the needle bar crank arm assembly, the needle bar chuck passes through the needle bar crank arm assembly, the needle bar chuck is connected to the needle bar slider, the needle bar slider is slidably connected to the needle bar slider seat, the needle bar slider seat is connected to the machine housing body, the needle bar body is connected to the needle bar chuck through the second needle bar sleeve, the needle grenade body is connected to the needle bar body through the first needle bar sleeve, the sewing needle is connected to the needle grenade body, and the needle grenade body is connected to the first needle grenade assembly and the second needle grenade assembly.

[0011] Furthermore, the hook mechanism includes a hook frame eccentric connecting rod one, a hook frame lower seat, a hook frame seat gasket, a hook frame eccentric connecting rod two, a hook frame, a hook frame upper seat, a hook frame upper seat gasket, a connecting rod chuck, a crank shaft retaining ring one, a retaining ring with a notch, a pin, a hook eccentric hole connecting rod, a hook eccentric block, a swing hook frame eccentric baffle, a hook rod retaining ring, a hook rod, a hook body, a large disc body, a large disc bead, and a large disc chuck;

[0012] The first eccentric connecting rod of the hook hook holder is rotatably connected to the lower seat of the hook hook holder. The hook hook holder seat gasket is connected to the lower seat of the hook hook holder. The lower seat of the hook hook holder is connected to the machine housing. The second eccentric connecting rod of the hook hook holder is connected to the eccentric hole connecting rod of the hook hook. The second eccentric connecting rod of the hook hook holder is rotatably connected to the upper seat of the hook hook holder. The hook hook holder and the first eccentric connecting rod of the hook hook holder are rotatably connected. The hook hook holder and the second eccentric connecting rod of the hook hook holder are rotatably connected. The upper seat of the hook hook holder is connected to the machine housing. The upper seat gasket of the hook hook holder is connected to the upper seat of the hook hook holder. The connecting rod chuck is connected to the second eccentric connecting rod. The connecting rod chuck is connected to the hook hook holder. The first retaining ring of the crank shaft is connected to the lower seat of the hook hook holder. The large disc chuck passes through the retaining ring with a notch and the large disc. The bead is connected to the hook holder, the pin is connected to the hook eccentric hole connecting rod, the hook eccentric hole connecting rod is connected to the hook eccentric block, the eccentric baffle of the swing needle holder is connected to the hook eccentric block, the hook eccentric block is connected to the main spindle body, the hook rod retaining ring is connected to the large disc chuck, the hook rod is connected to the hook rod retaining ring, the hook body is connected to the hook rod, the large disc body is connected to the hook holder, the large disc body is connected to the main spindle body, the large disc body is connected to the large disc chuck, four copper washers and two needle roller bearings are connected to the hook holder, the hook holder eccentric connecting rod 1 is rotatably connected to one of the needle roller bearings, and the hook holder eccentric connecting rod 2 is rotatably connected to the other needle roller bearing.

[0013] Furthermore, the presser foot mechanism includes a presser foot shaft, a presser foot screw shaft, a presser rod limiter, a presser rod limiter block seat, a heavy-duty cylindrical tension spring with a circular cross-section, a presser foot pressure nut, a presser foot lifting wire, a presser foot lifting lever, a presser foot lifting shaft, a presser foot lifting sheet, an O-ring, a presser wheel shaft groove, a presser foot lifting cylinder, a cylinder tube, a presser foot lifting push rod, an oil seal, a presser foot lifting cylinder oil gasket, a presser foot slider, a right-angle attached threaded pipe joint, a flat washer, and a pin type.

[0014] The presser foot shaft is connected to the presser rod limiter, the presser rod limiter is connected to the presser foot lifting push rod, the presser foot lifting push rod is connected to the cylinder tube of the presser foot lifting cylinder, the oil seal is connected to the presser foot lifting cylinder, the presser foot lifting cylinder oil gasket is connected to the presser foot lifting cylinder, the presser foot slider is connected to the presser rod limiter block seat, the presser rod limiter block seat is connected to the presser rod limiter, the presser foot lifting shaft is connected to the presser foot lifting lever, the presser foot lifting lever is connected to the presser foot shaft, the O-ring is connected to the presser foot lifting shaft, and the presser foot lifting plate is connected to... On the lifting foot shaft, a right-angle attached threaded pipe joint is connected to the lifting foot cylinder, and a flat washer is connected to the lifting foot iron plate; the pressure nut of the pressure foot is connected to the pressure foot screw shaft, a heavy-duty cylindrical tension spring with a circular cross-section is sleeved on the pressure foot screw shaft, a heavy-duty cylindrical tension spring with a circular cross-section is sleeved on the pin shaft, the pin shaft is connected to the pressure foot shaft, the lifting foot iron wire is connected to the pressure rod limit, the lifting foot iron wire is connected to the lifting foot lever, and the pressure roller shaft slide groove is connected to the machine housing body.

[0015] Furthermore, the small pressure roller transmission mechanism includes a second crank shaft retaining ring, a crank body, a crank cover, a lower crank seat, a feeding seat, a short bevel gear, a first transmission gear, a second transmission gear, a module spur gear, a crank gear sleeve, a crank shaft, a feeding spur gear, a third deep groove ball bearing, a fourth deep groove ball bearing, a fifth deep groove ball bearing, an upper feeding motor, a gear shaft, an upper stepper housing, a fan, a feeding gear shim, and a manual switch. Two short bevel gears are provided.

[0016] The fan and the upper feed motor are both connected inside the upper stepper housing, which is connected to the machine housing body. Transmission gear one is connected to the rotor of the upper feed motor, transmission gear two meshes with transmission gear one, and transmission gear two is connected to the crank shaft through the crank gear sleeve. One of the bevel gears is shortly connected to the crank shaft. The crank body is connected to the machine housing body, the manual switch is connected to the crank body, the crank shaft retaining ring two is connected to the crank body, and the crank cover is connected to the crank body.

[0017] Another bevel gear is shortly connected to the gear shaft. The two bevel gears mesh with each other. The third deep groove ball bearing is connected to the crank body. The gear shaft is rotatably connected to the third deep groove ball bearing. The fourth deep groove ball bearing is connected to the lower crank seat. The lower crank seat is connected to the crank body. The gear shaft is rotatably connected to the fourth deep groove ball bearing. The module spur gear is connected to the gear shaft.

[0018] The feeding seat is connected to the crank body, the feeding spur gear is rotatably connected to the feeding seat, the deep groove ball bearing is connected to the feeding seat, the gear shaft is rotatably connected to the deep groove ball bearing, the feeding spur gear is connected to the gear shaft, and the feeding gear shim is connected to the gear shaft.

[0019] Furthermore, the wire cutting and feeding mechanism includes a fixed blade, a fixed blade holder, a movable blade disc, a movable blade disc pull rod holder, a new movable blade, a short wire cutting connecting rod, an extended pull rod, a wire cutting connecting rod holder, a wire loosening plate, a wire loosening plate holder, feeding teeth, a blade disc stator, a cylinder fixing plate, a type of thrust needle roller and cage assembly, a transmission cylinder, a second needle roller bearing, a pin shaft, a cylindrical pin type, a sixth deep groove ball bearing, a lower feeding shaft, a steel sleeve, a one-way bearing, a first synchronous pulley, a second synchronous pulley, a motor base, a lower feeding motor, and a belt;

[0020] The motor base is connected to the lower feed motor, and the second synchronous pulley is connected to the rotor of the lower feed motor;

[0021] The lower feed shaft is rotatably connected to the deep groove ball bearing 6, the lower feed shaft is rotatably connected to the one-way bearing, the steel sleeve is connected to the lower feed shaft, the first synchronous pulley is connected to the lower feed shaft, the first synchronous pulley is connected to the second synchronous pulley via a belt, the feed teeth are connected to the lower feed shaft, the type thrust needle roller and cage assembly are connected to the lower feed shaft, the movable cutter head is connected to the lower feed shaft, and the cutter head stator is connected to the lower feed shaft;

[0022] The short wire-cutting connecting rod is connected to the second needle roller bearing. The short wire-cutting connecting rod is rotatably connected to the wire-cutting connecting rod seat through a pin. The wire-cutting connecting rod seat is connected to the transmission cylinder. The cylinder is connected to the cylinder fixing plate. The cylinder fixing plate is connected to the main body mechanism.

[0023] The fixed blade is connected to the extended pull rod, the fixed blade holder is connected to the fixed blade, the movable blade disc pull rod seat is connected to the extended pull rod, the new movable blade is rotatably connected to the extended pull rod via a cylindrical pin, the extended pull rod is connected to the short wire cutting connecting rod, the loosening plate is connected to the loosening plate seat, and the loosening plate seat is connected to the fixed blade holder.

[0024] Furthermore, the air valve mechanism includes a solenoid valve, a connector, a baffle plate, an AFC dual-unit air filter assembly, a plug, a muffler, a threaded straight connector, an air valve switch, and a quick connector, with two threaded straight connectors provided.

[0025] The connector is connected to the solenoid valve, the solenoid valve is connected to the guide plate, the plug is connected to the guide plate, the muffler is connected to the guide plate, the AFC dual-unit air filter assembly is connected to the guide plate through one of the threads, the air valve switch is connected to the AFC dual-unit air filter assembly through the other thread, the quick connector is connected to the air valve switch, and the AFC dual-unit air filter assembly is connected to the main body.

[0026] Furthermore, the controller includes a display screen mounting bracket tube, a display screen, a display screen mounting base, and a display screen bracket tube. The display screen is connected to the display screen mounting base, the display screen mounting base is connected to the display screen bracket tube, and the display screen bracket tube is connected to the display screen mounting bracket tube.

[0027] Furthermore, the goggle lens is connected to the goggle bracket via Phillips head screws and hex socket countersunk screws.

[0028] Furthermore, a first needle grenade assembly and a second needle grenade assembly are connected to the needle grenade body.

[0029] Furthermore, the hook frame is connected to four copper washers and two needle roller bearings. The eccentric connecting rod of the hook frame is rotatably connected to one of the needle roller bearings, and the eccentric connecting rod of the hook frame is rotatably connected to the other needle roller bearing.

[0030] The present invention has the following beneficial effects:

[0031] The microcontroller's control module and data storage module can improve the sewing quality of the sole and upper, ensuring equal stitch spacing, and can automatically record adjustment data to facilitate subsequent automatic equal stitch spacing operations. Attached Figure Description

[0032] The present invention will be further described with reference to the accompanying drawings, but the embodiments in the drawings do not constitute any limitation on the present invention. For those skilled in the art, other drawings can be obtained based on the following drawings without creative effort.

[0033] Figure 1 This is a schematic diagram of the structure of an intelligent laminating machine based on a display screen according to the present invention;

[0034] Figure 2 This is a schematic diagram of another angle of the intelligent laminating machine based on a display screen according to the present invention;

[0035] Figure 3 This is an exploded view of an intelligent laminating machine based on a display screen according to the present invention;

[0036] Figure 4 This is a schematic diagram of the main shaft transmission mechanism in an intelligent laminating machine based on a display screen according to the present invention;

[0037] Figure 5 This is a schematic diagram of the needle bar mechanism in an intelligent laminating machine based on a display screen according to the present invention;

[0038] Figure 6 This is a schematic diagram of the hook mechanism in an intelligent laminating machine based on a display screen according to the present invention;

[0039] Figure 7 This is a schematic diagram of the presser foot mechanism in an intelligent stretching machine based on a display screen according to the present invention;

[0040] Figure 8 This is a schematic diagram of the small pressure roller transmission mechanism in an intelligent laminating machine based on a display screen according to the present invention;

[0041] Figure 9 This is a schematic diagram of the wire cutting and feeding mechanism in an intelligent stretching machine based on a display screen according to the present invention;

[0042] Figure 10 This is a schematic diagram of the air valve mechanism in an intelligent lapping machine based on a display screen according to the present invention.

[0043] Reference numerals: Main body 1; Housing body 11; Wire hook cover 12; Motor cover 13; Housing cover 14; Oil pan cover 15; Hinged leaf body 16; Hinged leaf shaft 17; Wire clamp one 18; Wire clamp two 19; Wire clamp rod 111; Wire clamp plate 112; Oil window 113; Side seat one 114; Side seat body 115; Side seat two 116; Wire clamping electromagnet 117; Display screen mounting bracket tube seat 118; Goggles lens 119; Goggles bracket 120; Phillips head pan screw 121; Hex socket countersunk screw 122; Wire guide post 123; Hex nut 124; Wire hook cover pressure plate 127; Display screen 128; Display screen mounting base 129; Display screen bracket tube 130; Belt guard 131;

[0044] 2. Main spindle drive mechanism; 21. Main spindle body; 22. Motor claw; 23. Deep groove ball bearing I; 24. Oil seal I; 25. Main spindle claw; 26. Main spindle bearing sleeve; 27. Deep groove ball bearing II; 28. Motor claw rubber; 29. ​​Oil seal II; 211. Pulley; 212. Oil pump body; 213. Oil pump plastic gear; 214. Oil pump gear; 215. Needle bar mechanism 3. Needle bar crank assembly; 31. Needle bar crank body; 32. Needle bar crank baffle; 33. Needle bar crank seat; 34. Needle bar crank sleeve; 35. Washer; 36. Needle bar slider; 37. Needle bar chuck; 38. Open retaining ring; 39. Needle bar sleeve I; 312. Needle bar sleeve II; 313. Needle bar body; 314. Needle bar slider seat; 315. Needle grenade body; 316. Needle grenade assembly I; 317. Needle grenade assembly II; 318. Sewing needle.

[0045] 4. Hook mechanism; 41. Hook frame eccentric connecting rod 1; 42. Hook frame lower seat; 43. Hook frame seat gasket; 44. Hook frame eccentric connecting rod 2; 45. Hook frame; 46. Copper gasket; 47. Needle roller bearing 1; 48. Hook frame upper seat; 49. Hook frame upper seat gasket; 411. Connecting rod chuck; 412. Crankshaft retaining ring 1; 413. Retaining ring with notch; 414. Pin; 415. Hook eccentric hole connecting rod; 416. Hook eccentric block; 417. Swing needle frame eccentric baffle; 418. Hook rod retaining ring; 419. Hook rod; 420. Hook body; 421. Large disc body; 422. Large disc beads; 423. Large disc chuck.

[0046] 5. Presser foot mechanism; 51. Presser foot shaft; 52. Presser foot screw shaft; 53. Presser rod limit; 54. Presser rod limit block seat; 55. Heavy-duty cylindrical tension spring with circular cross-section; 56. Presser foot pressure nut; 57. Presser foot lifting wire; 58. Presser foot lifting lever; 59. Presser foot lifting shaft; 511. Presser foot lifting sheet; 512. O-ring; 513. Presser wheel shaft groove; 514. Presser foot lifting cylinder; 515. Cylinder tube; 516. Presser foot lifting push rod; 517. Oil seal three; 518. Presser foot lifting cylinder oil gasket; 519. Presser foot slider; 520. Right-angle type attached threaded pipe joint; 521. Flat washer; 522. Pin type.

[0047] 6. Small pressure roller transmission mechanism; 61. Crankshaft retaining ring II; 62. Crankshaft body; 63. Crankshaft cover; 64. Crankshaft lower seat; 65. Feeding seat; 66. Short bevel gear; 67. Transmission gear I; 68. Transmission gear II; 69. Module spur gear; 611. Crankshaft gear sleeve; 612. Feeding spur gear; 613. Deep groove ball bearing III; 614. Deep groove ball bearing IV; 615. Deep groove ball bearing V; 616. Upper feeding motor; 617. Gear shaft; 618. Upper stepper housing; 619. Fan; 620. Feeding gear shim; 621. Manual switch; 622.

[0048] 7. Wire cutting and feeding mechanism; 71. Fixed blade; 72. Fixed blade holder; 73. Movable blade disc; 74. Movable blade disc tie rod holder; 75. New movable blade; 76. Short wire cutting connecting rod; 77. Extended tie rod; 78. Wire cutting connecting rod holder; 79. Wire loosening plate; 711. Wire loosening plate holder; 712. Feeding tooth; 713. Blade disc stator; 714. Cylinder fixing plate; 715. Thrust needle roller and cage assembly; 716. Transmission cylinder; 717. Needle roller bearing II; 718. Pin shaft; 719. Cylindrical pin type; 720. Deep groove ball bearing VI; 721. Lower feeding shaft; 722. Steel sleeve; 723. One-way bearing; 724. Synchronous pulley I; 725. Synchronous pulley II; 726. Motor base; 727. Lower feeding motor; 728. Belt;

[0049] 8. Air valve mechanism; 81. Solenoid valve; 82. Connector; 83. Baffle plate; 84. AFC dual-unit air filter assembly; 85. Plug; 86. Silencer; 87. Straight thread; 88. Air valve switch; 89. Quick connector;

[0050] 9. Microcontroller. Detailed Implementation

[0051] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. 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.

[0052] In the description of this invention, it should be noted that the terms "vertical," "upper," "lower," and "horizontal," etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are used only for the convenience of describing the invention and for simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on the invention. Furthermore, "first," "second," "third," and "fourth" are used for descriptive purposes only and should not be construed as indicating or implying relative importance.

[0053] In the description of this invention, it should also be noted that, unless otherwise explicitly specified and limited, the terms "set," "install," "connect," and "link" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or a connection through an intermediate medium; and they can refer to the internal communication between two components. Those skilled in the art can understand the specific meaning of the above terms in this invention according to the specific circumstances.

[0054] like Figure 1 , 2 As shown in Figure 3, an intelligent sizing machine based on a display screen includes a main body 1 and a controller. The main body 1 is connected to a main shaft transmission mechanism 2, a needle bar mechanism 3, a hook needle mechanism 4, a presser foot mechanism 5, a small pressure roller transmission mechanism 6, a thread cutting and feeding mechanism 7, and a valve mechanism 8. The controller is equipped with a microcontroller, which includes a control module and a data storage module. The control module of the microcontroller can control the operation of all electrical components in the main body 1. The control module controls the operation of the small pressure roller transmission mechanism 6 and the thread cutting and feeding mechanism 7 according to the actual situation, so that the stitch distance is equal when sewing the sole and the upper. This realizes the function of one microcontroller controlling all motors and cylinders. The controller housing can be made of plastic or stainless steel.

[0055] The main body 1 includes a housing body 11, a housing cover 14, and an oil pan cover 15. A wire hook cover 12 is connected to the housing body 11, a motor cover 13 is connected to the housing body 11, the housing cover 14 is connected to the housing body 11, the oil pan cover 15 is connected to the housing body 11, and a movable leaf body 16 is connected to the housing body 11. A movable leaf shaft 17 is provided on the movable leaf body 16. A first wire clamp 18 and a second wire clamp 19 are both connected to the housing cover 14. A wire clamp rod 111 and a wire clamp plate 112 are both connected between the first wire clamp 18 and the second wire clamp 19. Oil window 113 is connected to housing cover 14. Side body 115 is connected to housing body 11 via side seat one 114 and side seat two 116. Wire clamping electromagnet 117 is connected to housing cover 14. Goggle lens 119 is connected to housing cover 14 via goggle bracket 120. Wire guide post 123 is connected to housing cover 14. Hex nut 124 is connected to wire guide post 123. Wire hook cover pressure plate 127 is connected to housing body 11. Wire hook cover pressure plate 127 and wire hook cover 12 abut against each other. Belt guard 131 is connected to housing body 11.

[0056] The housing body 11, as the core part of the main structure 1, is used to support and protect the internal mechanical and electrical components, and to provide structural stability.

[0057] The cover 14 is installed on the housing body 11 to seal and protect it, preventing dust or debris from entering the housing body 11, while also providing a certain degree of sound insulation and mechanical protection.

[0058] The oil pan cover 15 covers and protects the oil pan, preventing oil from splashing out or becoming contaminated, and facilitates maintenance and cleaning, ensuring that the oil pan is in a sealed state.

[0059] The hook cover 12 protects the working area of ​​the hook, prevents foreign objects from interfering with the hooking operation, and also provides a certain degree of safety protection.

[0060] The motor cover 13 is used to cover and protect the motor 28 of the lapaning machine, preventing dust and debris from entering the motor 28, while providing additional protection for the motor 28 and extending its service life.

[0061] The movable leaf body 16 is mounted on the machine housing body 11. As the main moving part, it realizes the wire pulling action through the rotation of the movable leaf shaft 17, which is in line with the overall working process of the wire pulling machine.

[0062] The wire clamp 18 is used to clamp and secure wires, ensuring that the wires remain stable during operation and do not loosen or shift.

[0063] The wire clamp rod 111 and the wire clamp plate 112 serve to fix the wire and ensure its stability. At the same time, the tightness of the clamp can be adjusted as needed.

[0064] Oil window 113 provides a visual window for the oil level, allowing operators to easily check the oil level and condition for timely maintenance or lubrication.

[0065] Side support 114 and side support 116 are used to support and position related mechanical components, respectively, to ensure the stability and accurate working position of the components.

[0066] The wire clamping electromagnet 117 controls the working state of the wire clamp through electromagnetic force, realizing automated control and precise clamping of the wire.

[0067] The goggle lens 119 is connected to the housing cover 14 via the goggle bracket 120, providing safety protection to prevent operators from being accidentally injured by flying objects or wires during operation.

[0068] The guide post 123 is used for the passage and guidance of the wire, ensuring that the wire can pass smoothly through each working area and stay on the correct track.

[0069] The hexagonal nut 124 is connected to the wire guide post 123 to fix and tighten the wire guide post 123, ensuring its stability and reliability, and preventing the wire from shifting or loosening during operation.

[0070] The thread hook cover pressure plate 127 serves to fix the thread hook cover 12, keeping the thread hook cover 12 stable and preventing vibration or displacement during operation.

[0071] The belt cover 131 is connected to the housing body 11, covering and protecting the belt 728, preventing foreign objects from entering the belt 728 transmission area, and reducing safety hazards during operation.

[0072] like Figure 4 As shown, in an optional embodiment of the present invention, the spindle transmission mechanism 2 includes a spindle body 21, a motor claw 22, a first deep groove ball bearing 23, a first oil seal 24, a spindle claw 25, a spindle bearing sleeve 26, a second deep groove ball bearing 27, a motor 28, a motor claw rubber 29, a second oil seal 211, a pulley 212, an oil pump body 213, and an oil pump plastic gear 214 and an oil pump gear 215;

[0073] The main spindle drive mechanism 2 is the core power source of the entire sewing machine, transmitting power to other components. The rotation of the main spindle drives the needle bed, needle bar, hook needle, and other mechanisms to perform sewing.

[0074] Motor claw 22 is connected to the rotor of motor 28. Motor claw 22 ensures that power can be smoothly transmitted from motor 28 to spindle body 21 and provides buffering to prevent excessive mechanical stress during transmission. Motor claw rubber 29 is connected to motor claw 22. Motor claw rubber 29 is used to buffer mechanical vibration between motor 28 and spindle body 21, reduce noise and impact during transmission, and protect motor 28 and spindle body 21 from excessive wear. Spindle claw 25 is connected to motor claw 22, and spindle body 21 is connected to spindle claw 25. Deep groove ball bearing 1 23 and deep groove ball bearing 27 are both rotatably connected to spindle body 21. Deep groove ball bearing 1 23 is connected to the housing body 11. Deep groove ball bearing 1 23 and deep groove ball bearing 27 can reduce friction when spindle body 21 rotates, ensuring high-speed operation of spindle body 21. To ensure smooth operation, improve transmission efficiency, and reduce wear, oil seal 24 is connected to deep groove ball bearing 23, and oil seal 211 is connected to deep groove ball bearing 27. Oil seals 24 and 211 prevent lubricating oil leakage, ensuring lubrication of the spindle body 21 during operation, while preventing dust or other contaminants from entering deep groove ball bearing 23 and deep groove ball bearing 27. The spindle body 21 is connected to the pulley 212 via the spindle bearing sleeve 26. Oil pump gear 215 is connected to the spindle body 21, and oil pump plastic gear 214 is connected to the oil pump body 213. Oil pump gear 215 and oil pump plastic gear 214 mesh. The oil pump body 213 is connected to the housing body 11. When oil pump gear 215 rotates, it can drive oil pump plastic gear 214 to rotate, thereby driving the oil pump body 213 to work, ensuring that lubricating oil can be delivered to the parts that need lubrication as needed.

[0075] like Figure 5 As shown, in an optional embodiment of the present invention, the needle bar mechanism 3 includes a needle bar crank assembly 31, a needle bar crank body 32, a needle bar crank baffle 33, a needle bar crank seat 34, a needle bar crank sleeve 35, a gasket 36, a needle bar slider 37, a needle bar chuck 38, an open retaining ring 39, a first needle bar sleeve 311, a second needle bar sleeve 312, a needle bar body 313, a needle bar slider seat 314, a needle grenade body 315, and a sewing needle 318.

[0076] The needle bar crank body 32 is connected to the needle bar crank arm assembly 31. The needle bar crank body 32 is the core component of the needle bar movement, responsible for converting rotational motion into vertical reciprocating motion of the needle grenade body 315, ensuring that the needle grenade body 315 moves along a predetermined trajectory during sewing. The needle bar crank arm assembly 31 is connected to the needle bar crank seat 34, which is connected to the machine housing body 11. The needle bar crank seat 34 provides support for the needle bar crank body 32, ensuring that the needle bar crank body 32 can be stably installed and reducing vibration during transmission, thus ensuring the movement of the needle grenade body 315. To ensure stability, the needle bar crank baffle 33 is connected to the needle bar crank arm assembly 31. The function of the needle bar crank baffle 33 is to prevent axial displacement of the needle bar crank body 32 during movement, ensuring that the needle bar crank body 32 always stays on the correct movement path, thereby ensuring the precise and stable movement of the needle bar body 315. The needle bar crank sleeve 35, shim 36, needle bar slider 37, and open retaining ring 39 are all connected to the needle bar crank body 32. The needle bar crank sleeve 35 and shim 36 can reduce friction between moving parts, and the shim 36 is also used to adjust and fix various parts. The gaps between the parts ensure a tight fit. The needle bar slider 37 guides the up-and-down movement of the needle bar body 315. The linear movement of the needle bar slider 37 ensures that the needle bar trajectory is accurate, smooth, and without deviation. The needle bar chuck 38 is connected to the needle bar curved arm assembly 31. The needle bar chuck 38 passes through the needle bar curved arm assembly 31. The needle bar chuck 38 is connected to the needle bar slider 37. The needle bar slider 37 is slidably connected to the needle bar slider seat 314. The needle bar slider seat 314 is connected to the machine housing body 11. The needle bar body 313 is connected to the needle bar chuck through the needle bar sleeve 312. On 38, the needle grenade body 315 is connected to the needle bar body 313 via the needle bar sleeve 311. The sewing needle 318 is connected to the needle grenade body 315. The needle grenade body 315 is mainly used to stabilize the needle bar body 313 and provide additional structural support, so that the movement of the needle bar body 313 is more stable and does not vibrate. The sewing needle 318 is the direct execution tool of the needle bar mechanism 3, responsible for passing through the yarn to form fabric. The accurate movement of the sewing needle 318 makes the sole and the upper of the shoe fixedly connected. The needle grenade body 315 is connected to the needle grenade assembly 316 and the needle grenade assembly 317.

[0077] like Figure 6 As shown, in an optional embodiment of the present invention, the hook mechanism 4 includes a hook frame eccentric connecting rod 41, a hook frame lower seat 42, a hook frame seat pad 43, a hook frame eccentric connecting rod 44, a hook frame 45, a hook frame upper seat 48, a hook frame upper seat pad 49, a connecting rod chuck 411, a crank shaft retaining ring 412, a retaining ring with a notch 413, a pin 414, a hook eccentric hole connecting rod 415, a hook eccentric block 416, a swing hook frame eccentric baffle 417, a hook rod retaining ring 418, a hook rod 419, a hook body 420, a large disc body 421, a large disc bead 422, and a large disc chuck 423.

[0078] The first eccentric connecting rod 41 of the hook hook holder is rotatably connected to the lower seat 42 of the hook hook holder. The first eccentric connecting rod 41 converts the rotational motion into reciprocating motion, causing the hook hook holder 45 to generate eccentric motion, which drives the hook body 420 to move up and down to complete the hooking action. The hook hook holder seat shim 43 is connected to the lower seat 42 of the hook hook holder. The hook hook holder seat shim 43 is used to adjust the height or position of the lower seat 42 of the hook hook holder to ensure the accuracy and smoothness of the movement of the hook hook holder 45, while reducing friction. The lower seat 42 of the hook hook holder is connected inside the housing body 11. The second eccentric connecting rod 44 of the hook hook holder is connected to the hook eccentric hole connecting rod 415. The second eccentric connecting rod 44 of the hook hook holder works in conjunction with the first eccentric connecting rod 41 to further transmit the eccentric motion. The hook frame 45 can move smoothly up and down to complete complex sewing paths. The second eccentric link 44 of the hook frame is rotatably connected to the upper hook frame seat 48. The hook frame 45 is rotatably connected to the first eccentric link 41 and the second eccentric link 44. The hook frame 45 is the supporting structure for the hook body 420. The hook body 420 moves up and down via the hook frame 45, hooking yarn and cooperating with the sewing needle 318 to complete the sewing process. The upper hook frame seat 48 is connected inside the machine housing 11. A shim 49 is connected to the upper hook frame seat 48 and is used to precisely adjust the position of the upper hook frame seat 48 to ensure the vertical movement of the hook frame 45. Smooth and unobstructed, the connecting rod chuck 411 is connected to the eccentric connecting rod 44, and the connecting rod chuck 411 is connected to the hook frame 45. The connecting rod chuck 411 ensures that the movement of the eccentric connecting rod 44 can be transmitted to the hook frame 45, allowing it to move up and down. The crank shaft retaining ring 412 is connected to the hook frame lower seat 42. The large disc chuck 423 is connected to the hook frame 45 through the notched retaining ring 413 and the large disc bead 422. The pin 414 is connected to the hook eccentric hole connecting rod 415. The hook eccentric hole connecting rod 415 is connected to the hook eccentric block 416. The eccentric baffle 417 of the swing needle frame is connected to the hook eccentric block 416. The hook eccentric block 416 is connected to the main shaft body 21. The hook rod... The retaining ring 418 is connected to the large disc chuck 423, the hook bar 419 is connected to the hook bar retaining ring 418, and the hook body 420 is connected to the hook bar 419. The hook body 420 is the part that directly participates in sewing, hooking the yarn and completing the operation of cooperating with the knitting needle to form fabric. The large disc body 421 is connected to the hook frame 45 and the main shaft body 21. The large disc body 421 and the large disc chuck 423 are connected. The hook frame 45 is connected to four copper washers 46 and two needle roller bearings 47. The hook frame eccentric connecting rod 41 is rotatably connected to one of the needle roller bearings 47, and the hook frame eccentric connecting rod 44 is rotatably connected to the other needle roller bearing 47.

[0079] When the main spindle body 21 rotates, it drives the hook eccentric block 416 to rotate eccentrically. The hook eccentric block 416 drives the hook eccentric hole connecting rod 415 and the hook frame eccentric connecting rod 44 to rotate. The hook frame eccentric connecting rod 44 drives the hook frame 45 to move back and forth and up and down. The main spindle body 21 drives the large disc body 421 to rotate. When the large disc body 421 rotates, it drives the large disc beads 422 and the notched retaining ring 413 to move. The notched retaining ring 413 drives the hook rod 419 and the hook body 420 to swing and knit.

[0080] like Figure 7 As shown, in an optional embodiment of the present invention, the presser foot mechanism 5 includes a presser foot shaft 51, a presser foot screw shaft 52, a presser rod limiter 53, a presser rod limiter block seat 54, a heavy-duty cylindrical tension spring with a circular cross-section 55, a presser foot pressure nut 56, a presser foot lifting wire 57, a presser foot lifting lever 58, a presser foot lifting shaft 59, a presser foot lifting sheet 511, an O-ring 512, a presser wheel shaft groove 513, a presser foot lifting cylinder 514, a cylinder tube 515, a presser foot lifting push rod 516, an oil seal 517, a presser foot lifting cylinder oil gasket 518, a presser foot slider 519, a right-angle attached threaded pipe joint 520, a flat washer 521, and a pin type 522;

[0081] The presser foot shaft 51 is connected to the presser rod limit 53, the presser rod limit 53 is connected to the presser foot lifting push rod 516, the presser foot lifting push rod 516 is connected to the cylinder tube 515 of the presser foot lifting cylinder 514, the oil seal 517 is connected to the presser foot lifting cylinder 514, the presser foot lifting cylinder oil gasket 518 is connected to the presser foot lifting cylinder 514, the presser foot slider 519 is connected to the presser rod limit block seat 54, the presser rod limit block seat 54 is connected to the presser rod limit 53, the presser foot lifting shaft 59 is connected to the presser foot lifting lever 58, the presser foot lifting lever 58 is connected to the presser foot shaft 51, the O-ring 512 is connected to the presser foot lifting shaft 59, and the presser foot lifting iron plate 5... 11 is connected to the lifting foot shaft 59; the right-angle attached threaded pipe joint 520 is connected to the lifting foot cylinder 514; the flat washer 521 is connected to the lifting foot iron plate 511; the pressure nut 56 is connected to the pressure foot screw shaft 52; the heavy-duty circular cross-section cylindrical tension spring 55 is sleeved on the pressure foot screw shaft 52; the heavy-duty circular cross-section cylindrical tension spring 55 is sleeved on the pin shaft type 522; the pin shaft type 522 is connected to the pressure foot shaft 51; the lifting foot iron wire 57 is connected to the pressure rod limit 53; the lifting foot iron wire 57 is connected to the lifting foot lever 58; and the pressure roller shaft slide groove 513 is connected to the inside of the machine housing body 11.

[0082] The presser foot shaft 51 is the core shaft that supports the presser foot pressure nut 56. The rotation of the presser foot shaft 51 ensures the stable up-and-down movement of the presser foot pressure nut 56, thereby adjusting the pressure of the fabric.

[0083] The presser foot screw shaft 52 is used to adjust the height and pressure of the presser foot pressure nut 56. By rotating the presser foot screw shaft 52, the pressure applied to the fabric by the presser foot pressure nut 56 can be changed, ensuring that the fabric is pressed evenly during the sewing process.

[0084] The pressure bar limiter 53 is used to prevent excessive movement of the pressure bar and ensure that the range of movement of the pressure bar is within the design range to avoid damage to the fabric or machine.

[0085] The pressure bar limit block seat 54 is used to provide support for the pressure bar limit 53, fix the position of the limit block, and make the movement of the pressure bar precisely controlled.

[0086] A heavy-duty cylindrical tension spring 55 with a circular cross-section is used to provide elastic pressure to help adjust the downward pressure of the presser foot pressure nut 56 and ensure that the presser foot pressure nut 56 can automatically reset when there is no external pressure.

[0087] The presser foot pressure nut 56 is used to hold the fabric in place, ensuring that the fabric is subjected to even force during sewing.

[0088] The presser foot lifting wire 57 is used to lift the presser foot pressure nut 56, so that the fabric can pass smoothly through the sewing machine at the beginning or end of sewing.

[0089] The presser foot lever 58 is used to connect with the presser foot lifting wire 57 to amplify the torque and help lift or lower the presser foot pressure nut 56, simplifying the operation process.

[0090] The presser foot lifting shaft 59 serves as the rotation axis of the presser foot lifting lever 58, ensuring the stable movement of the presser foot pressure nut 56 when it is lifted and lowered.

[0091] The presser foot plate 511 is used to fix the presser foot wire 57 and the presser foot lever 58 to ensure that they remain stable during movement.

[0092] O-ring 512 is used to seal the connection between moving parts, prevent gas leakage from the presser foot cylinder 514, and reduce friction.

[0093] The pressure roller shaft groove 513 is used to guide the movement of the pressure roller, ensuring that the pressure roller moves along a set trajectory when pressing the fabric.

[0094] The presser foot lifting cylinder 514 is used to provide pneumatic power to control the lifting and lowering of the presser foot pressure nut 56. The presser foot lifting cylinder 514 pushes the piston with compressed air, thereby lifting or lowering the presser foot pressure nut 56.

[0095] Cylinder pipe 515 is used to transmit compressed air, transferring the pressure of the air source to the lifting foot cylinder 514, thus driving its action.

[0096] Oil seal 3 517 is used to prevent leakage of lubricating oil or other fluids in the presser foot cylinder 514, ensuring the sealing performance and long-term operational stability of the presser foot cylinder 514.

[0097] The oil pad 518 for the lifting foot cylinder is used to support the lifting foot cylinder 514 and prevent excessive friction between the lifting foot cylinder 514 and other components during operation, thereby extending the service life of the equipment.

[0098] The presser foot slider 519 is used to provide a smooth sliding support for the presser foot pressure nut 56, ensuring that the presser foot pressure nut 56 can maintain smooth movement during lifting and lowering without jamming.

[0099] The right-angle attached threaded pipe fitting 520 is used to connect the pipeline to the lifting foot cylinder 514 to ensure that the gas can flow stably and smoothly.

[0100] Flat washers 521 are used to distribute the pressure of bolts on components and prevent deformation or damage to components due to overtightening.

[0101] The pin type 522 is used to connect the heavy-duty circular cross-section cylindrical tension spring 55, ensuring a firm connection at the pressure foot screw shaft 52 where swinging is required, while allowing a certain range of flexible movement.

[0102] like Figure 8 As shown, in an optional embodiment of the present invention, the small pressure roller transmission mechanism 6 includes a second crank shaft retaining ring 61, a crank body 62, a crank cover 63, a lower crank seat 64, a feeding seat 65, a short bevel gear 66, a first transmission gear 67, a second transmission gear 68, a module spur gear 69, a crank gear sleeve 611, a crank shaft 612, a feeding spur gear 613, a third deep groove ball bearing 614, a fourth deep groove ball bearing 615, a fifth deep groove ball bearing 616, an upper feeding motor 617, a gear shaft 618, an upper stepper housing 619, a fan 620, a feeding gear washer 621, and a manual switch 622. Two short bevel gears 66 are provided.

[0103] The fan 620 and the upper feed motor 617 are both connected inside the upper stepper housing 619. The upper stepper housing 619 is connected to the machine housing body 11. The first transmission gear 67 is connected to the rotor of the upper feed motor 617. The second transmission gear 68 meshes with the first transmission gear 67. The crank shaft 612 is connected to the crank body 62. The second transmission gear 68 is connected to the crank shaft 612 through the crank gear sleeve 611. One of the bevel gears 66 is connected to the crank shaft 612. The crank body 62 is connected to the machine housing body 11. The manual switch 622 is connected to the crank body 62. The second crank shaft retaining ring 61 is connected to the crank body 62. The crank cover 63 is connected to the crank body 62.

[0104] Another bevel gear 66 is connected to the gear shaft 618. The two bevel gears 66 mesh with each other. The deep groove ball bearing 614 is connected to the crank body 62. The gear shaft 618 is rotatably connected to the deep groove ball bearing 614. The deep groove ball bearing 615 is connected to the lower crank seat 64. The lower crank seat 64 is connected to the crank body 62. The gear shaft 618 is rotatably connected to the deep groove ball bearing 615. The module spur gear 69 is connected to the gear shaft 618.

[0105] The feeding seat 65 is connected to the crank body 62, the feeding spur gear 613 is rotatably connected to the feeding seat 65, the deep groove ball bearing 616 is connected to the feeding seat 65, the gear shaft 618 is rotatably connected to the deep groove ball bearing 616, the feeding spur gear 613 is connected to the gear shaft 618, and the feeding gear washer 621 is connected to the gear shaft 618.

[0106] The handle body 62 is the core part of the entire handle mechanism. The handle body 62 transmits power from the upper feeding motor 617 to the wire cutting and feeding mechanism 7 to realize the movement of the small pressure roller.

[0107] The handle cover 63 is used to protect the handle body 62 and internal components, prevent dust or other external substances from entering, and ensure the smooth operation of the internal transmission mechanism.

[0108] The lower support 64 of the crank handle is used to provide a stable foundation support for the gear shaft 618, ensuring that the crank handle body 62 does not shake or shift during operation.

[0109] The feeder seat 65 serves as a support structure for the feeding section. The feeder seat 65 is responsible for supporting and guiding the movement of materials, ensuring that the materials can be stably delivered to the corresponding positions during the weaving process.

[0110] Two short bevel gears (66) are used to change the direction of rotational force transmission, ensuring the rotation of the small pressure roller.

[0111] Transmission gear 2 68 works in conjunction with transmission gear 1 67 to transmit power to the small pressure roller, ensuring smooth and stable feeding.

[0112] The module spur gear 69 is used to precisely transmit power. Its module determines the size and pitch of the gear, ensuring that the gears in the transmission system can mesh accurately and achieve efficient power transmission.

[0113] The crank shaft 612 is the core shaft in the small pressure roller transmission mechanism 6. It is responsible for connecting the crank body 62 and other transmission components, and indirectly transmitting rotational power to the small pressure roller.

[0114] The feeding spur gear 613 is used to transmit power from the feeding motor 617 to the feeding component, ensuring that the material can be continuously and stably conveyed in the machine.

[0115] The deep groove ball bearing 614 is used to support the gear shaft 618, reduce friction during rotation, and ensure that the gear shaft 618 can operate at high speed and smoothly.

[0116] The deep groove ball bearing 615 is used to support the gear shaft 618, ensuring low friction and high efficiency of the bearing during power transmission.

[0117] The upper feeding motor 617 provides the main power for the small pressure roller, converting electrical energy into mechanical energy through gear transmission to drive the feeding components.

[0118] The gear shaft 618 is used to transmit the power output from the upper feeding motor 617 to drive the small pressure roller and the feeding component.

[0119] The upper stepper housing 619 is used to protect the internal structure of the upper feed motor 617 and provides additional support and fixation to ensure that the upper feed motor 617 is not damaged by external factors during operation.

[0120] Fan 620 is used to cool the feed motor 617 and its surrounding mechanical parts to prevent equipment failure due to overheating during long-term high-speed operation.

[0121] The manual switch 622 is used to manually control the start or stop of the upper feeding motor 617, making it convenient for operators to control the machine when needed.

[0122] like Figure 9 As shown, in an optional embodiment of the present invention, the wire cutting and feeding mechanism 7 includes a fixed blade 71, a fixed blade holder 72, a movable blade disc 73, a movable blade disc pull rod seat 74, a new movable blade 75, a short wire cutting connecting rod 76, an extended pull rod 77, a wire cutting connecting rod seat 78, a loosening blade 79, a loosening blade seat 711, a feeding tooth 712, a blade disc stator 713, a cylinder fixing plate 714, a type of thrust needle roller and cage assembly 715, a transmission cylinder 716, a second needle roller bearing 717, a pin shaft 718, a cylindrical pin type 719, a sixth deep groove ball bearing 720, a lower feeding shaft 721, a steel sleeve 722, a one-way bearing 723, a first synchronous pulley 724, a second synchronous pulley 725, a motor seat 726, a lower feeding motor 727, and a belt 728.

[0123] The motor base 726 is connected to the lower feed motor 727, and the second synchronous pulley 725 is connected to the rotor of the lower feed motor 727;

[0124] The lower feed shaft 721 is rotatably connected to the deep groove ball bearing 720, the lower feed shaft 721 is rotatably connected to the one-way bearing 723, the steel sleeve 722 is connected to the lower feed shaft 721, the first synchronous pulley 724 is connected to the lower feed shaft 721, the first synchronous pulley 724 is connected to the second synchronous pulley 725 through the belt 728, the feed tooth 712 is connected to the lower feed shaft 721, the type thrust needle roller and cage assembly 715 is connected to the lower feed shaft 721, the movable cutter head 73 is connected to the lower feed shaft 721, and the cutter head stator 713 is connected to the lower feed shaft 721.

[0125] A needle roller bearing 717 is connected to the short wire cutting rod 76. The short wire cutting rod 76 is rotatably connected to the wire cutting rod seat 78 through the pin 718. The wire cutting rod seat 78 is connected to the transmission cylinder 716. The transmission cylinder 716 is connected to the cylinder fixing plate 714. The cylinder fixing plate 714 is connected to the main body mechanism 1.

[0126] The fixed blade 71 is connected to the extended pull rod 77, the fixed blade holder 72 is connected to the fixed blade 71, the movable blade disc pull rod seat 74 is connected to the extended pull rod 77, the new movable blade 75 is rotatably connected to the extended pull rod 77 via a cylindrical pin 719, the extended pull rod 77 is connected to the wire cutting connecting rod short 76, the loosening blade 79 is connected to the loosening blade seat 711, and the loosening blade seat 711 is connected to the fixed blade holder 72.

[0127] The fixed blade 71 is a stationary component used in the wire cutting operation, and works in conjunction with the new movable blade 75 to complete the wire cutting work.

[0128] The fixed tool holder 72 is used to support the fixed tool 71, ensure its stability and fix it in a suitable position so that it can work with the new movable tool 75.

[0129] The movable cutter head 73, which moves during the wire cutting process, is driven by the lower feed motor 727 to perform the wire cutting operation.

[0130] The movable cutter head tie rod seat 74 is used to connect the movable cutter head 73 and the extended tie rod 77 to ensure that the movable cutter head 73 can move stably.

[0131] The new movable blade 75 replaces the old movable blade, performing dynamic wire cutting operations, and works in conjunction with the fixed blade 71 to complete the wire cutting.

[0132] The wire-cutting linkage short 76 transmits the wire-cutting power, ensuring the smooth execution of the wire-cutting action.

[0133] The extended tie rod 77 extends the working distance of the wire cutting link 76, adapting to different working needs and improving the flexibility of the wire cutting mechanism.

[0134] The wire-cutting link seat 78 is used to connect the wire-cutting link short 76, maintain the stability of the wire-cutting link short 76 during operation, and ensure the accuracy of the wire-cutting action.

[0135] The loosening clip 79 is used to loosen the thread end during the thread cutting process to prevent unnecessary tension or knots in the thread end after cutting.

[0136] The loosening plate holder 711 is used to support and fix the loosening plate 79 so that it maintains proper loosening function during the wire cutting process.

[0137] The feed tooth 712 is responsible for gripping and pushing the wire during the feeding process to ensure that the wire can be fed into the working area at the set rhythm.

[0138] The cutter head stator 713 is used to fix the movable cutter head 73, provide stable support, and ensure that the operation of the movable cutter head 73 is within a certain range.

[0139] The cylinder mounting plate 714 is used to fix the transmission cylinder 716, ensuring the stable operation of the transmission cylinder 716 and providing a reliable pneumatic power source.

[0140] The push-type needle roller and cage assembly 715 is used to reduce friction during the movement of the new moving cutter 75, thereby improving movement efficiency and stability.

[0141] The transmission cylinder 716 serves as one of the power sources for the wire cutting mechanism, and pneumatically drives the new movable blade 75 to perform the wire cutting action.

[0142] Needle roller bearing 717 is used to support the rotation of pin 718, reduce its friction, and ensure the smooth rotation of wire shearing link 76.

[0143] Pin 718 provides a pivot point for the wire shearing link short 76.

[0144] The cylindrical pin type 719 is used to connect the movable cutter head tie rod seat 74 and the extended tie rod 77, ensuring the stability and accuracy of the new movable cutter 75 during the wire cutting process.

[0145] The deep groove ball bearing 720 provides support and rotation for the lower feed shaft 721, reducing friction and improving the smoothness of feeding.

[0146] The lower feed shaft 721 is used to transmit feeding power to ensure that the wire is fed into the working area at the appropriate time.

[0147] The steel sleeve 722 protects the lower feed shaft 721 and provides additional support and protection, extending the service life of the lower feed shaft 721.

[0148] The one-way bearing 723 ensures that the lower feed shaft 721 can only rotate in one direction, preventing reverse rotation during the feeding process.

[0149] Synchronous pulley 724 is connected to synchronous pulley 725 via belt 728 to transmit motor power and ensure the synchronous operation of all components.

[0150] Synchronous pulley 2 725 works in conjunction with synchronous pulley 1 724, powered by the rotation of the lower feed motor 727.

[0151] The motor mount 726 is used to support and fix the lower feed motor 727, ensuring the stability of the lower feed motor 727 during operation.

[0152] The lower feed motor 727 provides the power source for the feeding mechanism, drives the lower feed shaft 721 to rotate, and drives the feed gear 712 to rotate.

[0153] When sewing the sole and the upper, the edges of the sole and the upper are sewn together. Since the sole edge is shorter than the upper edge, the upper needs to bulge after sewing, and the sole and upper edges need to be aligned. Therefore, the feeding gear 712, which is in contact with and drives the upper, rotates at a higher speed, while the feeding spur gear 613, which is in contact with and drives the sole, rotates at a lower speed to ensure alignment. However, even when the sole and upper edges are aligned after sewing, current technology still results in different stitch lengths because the sole edge has an irregular shape. This application uses a microcontroller control module to control the lower feeding motor 712... The speed of the feeding tooth 712 is controlled by the feed motor 617, which in turn controls the speed of the feeding spur gear 613. This controls the speed ratio between the feeding tooth 712 and the feeding spur gear 613. When the user sews for the first time, the speed ratio between the feeding tooth 712 and the feeding spur gear 613 is adjusted at different positions on the edge of the sole to make the stitch length equal. The adjustment data is saved to the data storage module. The next time the user sews, the control module will automatically adjust the appropriate speed ratio between the feeding tooth 712 and the feeding spur gear 613 at the appropriate time based on the adjustment data stored in the data storage module. This ensures that the edge of the sole and the edge of the upper are aligned and the stitch length is equal after sewing.

[0154] According to an optional embodiment of the present invention, the air valve mechanism 8 includes a solenoid valve 81, a connector 82, a baffle plate 83, an AFC dual-unit air filter assembly 84, a plug 85, a muffler 86, a threaded straight connector 87, an air valve switch 88, and a quick connector 89, wherein two threaded straight connectors 87 are provided.

[0155] Connector 82 is connected to solenoid valve 81, solenoid valve 81 is connected to guide plate 83, plug 85 is connected to guide plate 83, muffler 86 is connected to guide plate 83, AFC dual air filter assembly 84 is connected to guide plate 83 through one of the threads 87, air valve switch 88 is connected to AFC dual air filter assembly 84 through the other thread 87, quick connector 89 is connected to air valve switch 88, and AFC dual air filter assembly 84 is connected to main body mechanism 1.

[0156] Solenoid valve 81 is responsible for controlling the flow and direction of gas. Solenoid valve 81 can be opened and closed by electrical signals, thereby realizing automatic control of solenoid valve 81.

[0157] Connector 82 is used to connect the solenoid valve 81 to various pipes in the gas circuit to ensure that the gas can flow smoothly between different components. Connector 82 plays a connecting and sealing role to prevent gas leakage.

[0158] The deflector 83 is used to change the direction of gas flow or distribute gas flow, optimize the distribution of airflow, and ensure that the gas flows along the designed path.

[0159] The AFC 2-unit air filter assembly 84 includes an air filter and a pressure regulator. The air filter filters impurities and moisture from the incoming air path while controlling the gas pressure to ensure the gas in the system is clean and maintained within a suitable pressure range.

[0160] The plug 85 seals the gaps in the gas passage to prevent gas leakage.

[0161] The silencer 86 is used to reduce noise during gas exhaust. The noise is effectively reduced when the airflow is discharged, ensuring quiet operation of the lapping machine.

[0162] The threaded connector 87 connects the air deflector 83 and the AFC dual-unit air filter assembly 84 in the air path. The threaded connector 87 allows gas to pass between different threaded interfaces, ensuring the continuity of airflow.

[0163] The gas valve switch 88 allows for manual control, enabling it to be opened and closed, ensuring that the flow of gas can be manually intervened and stopped when necessary.

[0164] Quick-connector 89 is used for quick connection or disconnection of gas valve switch 88 and other pipelines. Quick-connector 89 enables quick and leak-free connection, facilitating gas circuit maintenance and replacement.

[0165] like Figure 1 , 2As shown in Figure 3, in an optional embodiment of the present invention, the controller includes a display screen mounting bracket 118, a display screen 128, a display screen mounting base 129, and a display screen bracket tube 130. The display screen 128 is connected to the display screen mounting base 129, the display screen mounting base 129 is connected to the display screen bracket tube 130, and the display screen bracket tube 130 is connected to the display screen mounting bracket 118.

[0166] The display screen mounting bracket 118 is used to fix the display screen bracket tube 130, providing a stable mounting base. The display screen mounting bracket 118 is connected to other support structures, the housing body 11, or the housing cover 14 to ensure that the position of the display screen 128 is stable and at the operator's eye level.

[0167] As the main information output device, the display screen 128 is used to display operating status, data, system information and error prompts. Operators can obtain real-time feedback through the display screen 128 to monitor and make adjustments.

[0168] The display mounting base 129 serves as a direct mounting platform for the display screen 128, used to securely fix the display screen to the display screen bracket tube 130. The display mounting base 129 ensures that the display screen 128 is in a suitable angle and position for easy viewing by operators.

[0169] The display stand tube 130 allows for easy adjustment of the display position as needed, enabling operators to comfortably view operational data.

[0170] like Figure 3 As shown, in an optional embodiment of the present invention, the goggle lens 119 is connected to the goggle bracket 120 by a cross-head pan head screw 121 and a hex socket countersunk screw 122.

[0171] like Figure 5 As shown, in an optional embodiment of the present invention, a first needle grenade assembly 316 and a second needle grenade assembly 317 are connected to the needle grenade body 315.

[0172] like Figure 6 As shown, in an optional embodiment of the present invention, four copper washers 46 and two needle roller bearings 47 are connected to the hook frame 45, the hook frame eccentric connecting rod 41 is rotatably connected to one of the needle roller bearings 47, and the hook frame eccentric connecting rod 44 is rotatably connected to the other needle roller bearing 47.

[0173] The components, modules, mechanisms, and devices in this invention that are not described in detail are all general standard parts or components known to those skilled in the art. Their structures and principles can be learned by those skilled in the art through technical manuals or conventional experimental methods.

[0174] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention, and are not intended to limit the scope of protection of the present invention. Although the present invention has been described in detail with reference to preferred embodiments, those skilled in the art should understand that modifications or equivalent substitutions can be made to the technical solutions of the present invention without departing from the essence and scope of the technical solutions of the present invention.

Claims

1. A smart laminating machine based on a display screen, characterized in that, It includes a main body mechanism (1) and a controller (9) that are electrically connected to each other. The main body mechanism (1) is connected to a spindle transmission mechanism (2), a needle bar mechanism (3), a hook needle mechanism (4), a presser foot mechanism (5), a small pressure roller transmission mechanism (6), a wire cutting and feeding mechanism (7), and an air valve mechanism (8). The controller (9) is equipped with a microcontroller, which includes a control module and a data storage module. The main structure (1) includes a housing body (11), a housing cover (14), and an oil pan cover (15). The hook cover (12) is connected to the housing body (11), the motor cover (13) is connected to the housing body (11), the housing cover (14) is connected to the housing body (11), the oil pan cover (15) is connected to the housing body (11), the leaf body (16) is connected to the housing body (11), the leaf body (16) is provided with a leaf shaft (17), the first clamp (18) and the second clamp (19) are connected to the housing cover (14), and the clamp rod (111) and the clamp plate (112) are connected between the first clamp (18) and the second clamp (19). Oil window (113) is connected to the housing cover (14), side body (115) is connected to the housing body (11) through side seat one (114) and side seat two (116), wire clamping electromagnet (117) is connected to the housing cover (14), goggle lens (119) is connected to the housing cover (14) through goggle bracket (120), wire guide post (123) is connected to the housing cover (14), hexagonal nut (124) is connected to the wire guide post (123), wire hook cover pressure plate (127) is connected to the housing body (11), wire hook cover pressure plate (127) and wire hook cover (12) abut against each other, belt guard (131) is connected to the housing body (11); The wire cutting and feeding mechanism (7) includes a fixed blade (71), a fixed blade holder (72), a movable blade disc (73), a movable blade disc pull rod holder (74), a new movable blade (75), a short wire cutting connecting rod (76), an extended pull rod (77), a wire cutting connecting rod holder (78), a loosening blade (79), a loosening blade holder (711), a feeding tooth (712), a blade disc stator (713), a cylinder fixing plate (714), a type of thrust needle roller and cage assembly (715), a transmission cylinder (716), a second needle roller bearing (717), a pin shaft (718), a cylindrical pin type (719), a sixth deep groove ball bearing (720), a lower feeding shaft (721), a steel sleeve (722), a one-way bearing (723), a first synchronous pulley (724), a second synchronous pulley (725), a motor base (726), a lower feeding motor (727), and a belt (728). The motor base (726) is connected to the lower feed motor (727), and the second synchronous pulley (725) is connected to the rotor of the lower feed motor (727); The lower feed shaft (721) is rotatably connected to the deep groove ball bearing (720), the lower feed shaft (721) is rotatably connected to the one-way bearing (723), the steel sleeve (722) is connected to the lower feed shaft (721), the first synchronous pulley (724) is connected to the lower feed shaft (721), the first synchronous pulley (724) is connected to the second synchronous pulley (725) via the belt (728), the feed tooth (712) is connected to the lower feed shaft (721), the type thrust needle roller and cage assembly (715) is connected to the lower feed shaft (721), the movable cutter head (73) is connected to the lower feed shaft (721), and the cutter head stator (713) is connected to the lower feed shaft (721). The short wire cutting link (76) is connected to the second needle roller bearing (717). The short wire cutting link (76) is rotatably connected to the wire cutting link seat (78) through the pin (718). The wire cutting link seat (78) is connected to the transmission cylinder (716). The transmission cylinder (716) is connected to the cylinder fixing plate (714). The cylinder fixing plate (714) is connected to the main body mechanism (1). The fixed blade (71) is connected to the extended pull rod (77), the fixed blade holder (72) is connected to the fixed blade (71), the movable blade plate pull rod holder (74) is connected to the extended pull rod (77), the new movable blade (75) is rotatably connected to the extended pull rod (77) through a cylindrical pin (719), the extended pull rod (77) is connected to the wire cutting connecting rod short (76), the loosening plate (79) is connected to the loosening plate holder (711), and the loosening plate holder (711) is connected to the fixed blade holder (72); The small pressure roller transmission mechanism (6) includes a second retaining ring (61) of the crank shaft, a crank body (62), a crank cover (63), a lower crank seat (64), a feeding seat (65), a short bevel gear (66), a first transmission gear (67), a second transmission gear (68), a module spur gear (69), a crank gear sleeve (611), a crank shaft (612), a feeding spur gear (613), a third deep groove ball bearing (614), a fourth deep groove ball bearing (615), a fifth deep groove ball bearing (616), an upper feeding motor (617), a gear shaft (618), an upper stepper housing (619), a fan (620), a feeding gear washer (621), and a manual switch (622). Two short bevel gears (66) are provided. The fan (620) and the upper feed motor (617) are both connected inside the upper stepper housing (619), the upper stepper housing (619) is connected to the machine housing body (11), the first transmission gear (67) is connected to the rotor of the upper feed motor (617), the second transmission gear (68) meshes with the first transmission gear (67), the crank shaft (612) is connected to the crank body (62), the second transmission gear (68) is connected to the crank shaft (612) through the crank gear sleeve (611), one of the bevel gear shorts (66) is connected to the crank shaft (612), the crank body (62) is connected to the machine housing body (11), the manual switch (622) is connected to the crank body (62), the second crank shaft retaining ring (61) is connected to the crank body (62), and the crank cover (63) is connected to the crank body (62). Another bevel gear short (66) is connected to the gear shaft (618), the two bevel gear shorts (66) mesh with each other, the deep groove ball bearing three (614) is connected to the crank body (62), the gear shaft (618) is rotatably connected to the deep groove ball bearing three (614), the deep groove ball bearing four (615) is connected to the crank lower seat (64), the crank lower seat (64) is connected to the crank body (62), the gear shaft (618) is rotatably connected to the deep groove ball bearing four (615), and the module spur gear (69) is connected to the gear shaft (618); The feeding seat (65) is connected to the handle body (62), the feeding spur gear (613) is rotatably connected to the feeding seat (65), the deep groove ball bearing five (616) is connected to the feeding seat (65), the gear shaft (618) is rotatably connected to the deep groove ball bearing five (616), the feeding spur gear (613) is connected to the gear shaft (618), and the feeding gear washer (621) is connected to the gear shaft (618). The microcontroller's control module controls the speed of the feeding teeth (712) by controlling the lower feeding motor (727) and the speed of the feeding spur gear (613) by controlling the upper feeding motor (617), thereby controlling the speed ratio of the feeding teeth (712) and the feeding spur gear (613). When the user sews for the first time, at different positions on the edge of the shoe sole, the speed ratio of the feeding teeth (712) and the feeding spur gear (613) is adjusted to make the stitch length equal. The adjustment data is saved to the data storage module. The next time the user sews, the control module will automatically adjust the appropriate speed ratio of the feeding teeth (712) and the feeding spur gear (613) at the appropriate time according to the adjustment data stored in the data storage module, so that the edge of the shoe sole and the edge of the shoe upper are aligned and the stitch length is equal after sewing.

2. The intelligent laminating machine based on a display screen according to claim 1, characterized in that, The main shaft transmission mechanism (2) includes a main shaft body (21), a motor claw (22), a deep groove ball bearing (23), an oil seal (24), a main shaft claw (25), a main shaft bearing sleeve (26), a deep groove ball bearing (27), a motor (28), a motor claw rubber (29), an oil seal (211), a pulley (212), an oil pump body (213), an oil pump plastic gear (214), and an oil pump gear (215). Motor claw (22) is connected to the rotor of motor (28). Motor claw rubber (29) is connected to motor claw (22). Spindle claw (25) is connected to motor claw (22). Spindle body (21) is connected to spindle claw (25). Deep groove ball bearing one (23) and deep groove ball bearing two (27) are rotatably connected to spindle body (21). Deep groove ball bearing one (23) and deep groove ball bearing two (27) are both connected to housing body (11). Oil seal one (24) is connected to deep groove ball bearing one (28). On 23), oil seal 2 (211) is connected to deep groove ball bearing 2 (27), spindle body (21) is connected to pulley (212) through spindle bearing sleeve (26), oil pump gear (215) is connected to spindle body (21), oil pump plastic gear (214) is connected to oil pump body (213), oil pump gear (215) and oil pump plastic gear (214) mesh, oil pump body (213) is connected to housing body (11).

3. The intelligent laminating machine based on a display screen according to claim 1, characterized in that, The needle bar mechanism (3) includes a needle bar crank assembly (31), a needle bar crank body (32), a needle bar crank baffle (33), a needle bar crank seat (34), a needle bar crank sleeve (35), a gasket (36), a needle bar slider (37), a needle bar chuck (38), an open retaining ring (39), a needle bar sleeve one (311), a needle bar sleeve two (312), a needle bar body (313), a needle bar slider seat (314), a needle grenade body (315), and a sewing needle (318). The needle bar crank body (32) is connected to the needle bar crank arm assembly (31), the needle bar crank arm assembly (31) is connected to the needle bar crank seat (34), the needle bar crank seat (34) is connected to the main shaft body (21), the needle bar crank baffle (33) is connected to the needle bar crank arm assembly (31), the needle bar crank sleeve (35), the washer (36), the needle bar slider (37), and the open retaining ring (39) are all connected to the needle bar crank body (32), the needle bar chuck (38) is connected to the needle bar crank body (32), and the needle bar chuck (38) passes through the needle bar crank body (32). The needle bar chuck (38) and the needle bar slider (37) are connected. The needle bar slider (37) is slidably connected to the needle bar slider seat (314). The needle bar slider seat (314) is connected to the machine housing body (11). The needle bar body (313) is connected to the needle bar chuck (38) through the needle bar sleeve two (312). The needle grenade body (315) is connected to the needle bar body (313) through the needle bar sleeve one (311). The sewing needle (318) is connected to the needle grenade body (315). The needle grenade body (315) is connected to the needle grenade assembly one (316) and the needle grenade assembly two (317).

4. The intelligent laminating machine based on a display screen according to claim 1, characterized in that, The hook mechanism (4) includes a hook frame eccentric connecting rod one (41), a hook frame lower seat (42), a hook frame seat pad (43), a hook frame eccentric connecting rod two (44), a hook frame (45), a hook frame upper seat (48), a hook frame upper seat pad (49), a connecting rod chuck (411), a crank shaft retaining ring one (412), a retaining ring with a notch (413), a pin (414), a hook eccentric hole connecting rod (415), a hook eccentric block (416), a swing hook frame eccentric baffle (417), a hook rod retaining ring (418), a hook rod (419), a hook body (420), a large disc body (421), a large disc bead (422), and a large disc chuck (423). The first eccentric link (41) of the hook frame is rotatably connected to the lower seat (42) of the hook frame. The hook frame seat gasket (43) is connected to the lower seat (42) of the hook frame. The lower seat (42) of the hook frame is connected to the machine housing (11). The second eccentric link (44) of the hook frame is connected to the eccentric hole link (415) of the hook frame. The second eccentric link (44) of the hook frame is rotatably connected to the upper seat (48) of the hook frame. The hook frame (45) and the first eccentric link (41) of the hook frame are rotatably connected. The hook frame (45) and the eccentric link (41) of the hook frame are rotatably connected. The second connecting rod (44) is rotatably connected, the upper seat of the hook frame (48) is connected to the machine housing (11), the upper seat gasket (49) of the hook frame is connected to the upper seat of the hook frame (48), the connecting rod chuck (411) is connected to the second eccentric connecting rod of the hook frame (44), the connecting rod chuck (411) is connected to the hook frame (45), the first retaining ring of the crank shaft (412) is connected to the lower seat of the hook frame (42), and the large disc chuck (423) is connected to the hook frame through the notched retaining ring (413) and the large disc bead (422). (45) Connection: Pin (414) is connected to hook eccentric hole connecting rod (415), hook eccentric hole connecting rod (415) is connected to hook eccentric block (416), eccentric baffle (417) of the oscillating needle frame is connected to hook eccentric block (416), hook eccentric block (416) is connected to spindle body (21), hook rod retaining ring (418) is connected to large disc chuck (423), hook rod (419) is connected to hook rod retaining ring (418), hook body (420) is connected to hook rod. On (419), the large disc body (421) is connected to the hook frame (45), the large disc body (421) is connected to the spindle body (21), the large disc body (421) and the large disc chuck (423) are connected, the hook frame (45) is connected to four copper washers (46) and two needle roller bearings (47), the hook frame eccentric connecting rod (41) is rotatably connected to one of the needle roller bearings (47), and the hook frame eccentric connecting rod (44) is rotatably connected to the other needle roller bearing (47).

5. The intelligent laminating machine based on a display screen according to claim 1, characterized in that, The presser foot mechanism (5) includes a presser foot shaft (51), a presser foot screw shaft (52), a presser rod limiter (53), a presser rod limiter block seat (54), a heavy-duty cylindrical tension spring with a circular cross-section (55), a presser foot pressure nut (56), a presser foot lifting wire (57), a presser foot lifting lever (58), a presser foot lifting shaft (59), a presser foot lifting sheet (511), an O-ring (512), a presser wheel shaft groove (513), a presser foot lifting cylinder (514), a cylinder tube (515), a presser foot lifting push rod (516), an oil seal (517), a presser foot lifting cylinder oil gasket (518), a presser foot slider (519), a right-angle attached threaded pipe joint (520), a flat washer (521), and a pin type (522). The presser foot shaft (51) is connected to the presser rod limiter (53), the presser rod limiter (53) is connected to the presser foot lifting pusher (516), the presser foot lifting pusher (516) is connected to the cylinder tube (515) of the presser foot lifting cylinder (514), the oil seal three (517) is connected to the presser foot lifting cylinder (514), the presser foot lifting cylinder oil gasket (518) is connected to the presser foot lifting cylinder (514), the presser foot slider (519) is connected to the presser rod limiter block seat (54), the presser rod limiter block seat (54) is connected to the presser rod limiter (53), the presser foot lifting shaft (59) is connected to the presser foot lifting lever (58), the presser foot lifting lever (58) is connected to the presser foot shaft (51), the O-ring (512) is connected to the presser foot lifting shaft (59), and the presser foot lifting iron plate (511) Connected to the lifting foot shaft (59), right-angle attached threaded pipe joint (520) connected to the lifting foot cylinder (514), flat washer (521) connected to the lifting foot iron plate (511); pressing foot pressure nut (56) connected to the pressing foot screw shaft (52), heavy-duty circular cross-section cylindrical tension spring (55) sleeved on the pressing foot screw shaft (52), heavy-duty circular cross-section cylindrical tension spring (55) sleeved on the pin shaft type (522), pin shaft type (522) connected to the pressing foot shaft (51), lifting foot iron wire (57) connected to the pressure rod limit (53), lifting foot iron wire (57) connected to the lifting foot lever (58), and pressure wheel shaft slide groove (513) connected to the machine housing body (11).

6. The intelligent laminating machine based on a display screen according to claim 1, characterized in that, The air valve mechanism (8) includes a solenoid valve (81), a connector (82), a baffle plate (83), an AFC dual-unit air filter assembly (84), a plug (85), a muffler (86), a threaded straight connector (87), an air valve switch (88), and a quick connector (89). There are two threaded straight connectors (87). Connector (82) is connected to solenoid valve (81), solenoid valve (81) is connected to guide plate (83), plug (85) is connected to guide plate (83), muffler (86) is connected to guide plate (83), AFC dual air filter assembly (84) is connected to guide plate (83) through one of the straight threads (87), air valve switch (88) is connected to AFC dual air filter assembly (84) through the other straight thread (87), quick connector (89) is connected to air valve switch (88), and AFC dual air filter assembly (84) is connected to main body (1).

7. The intelligent laminating machine based on a display screen according to claim 1, characterized in that, The controller includes a display screen mounting bracket tube (118), a display screen (128), a display screen mounting base (129), and a display screen bracket tube (130). The display screen (128) is connected to the display screen mounting base (129), the display screen mounting base (129) is connected to the display screen bracket tube (130), and the display screen bracket tube (130) is connected to the display screen mounting bracket tube (118).

8. The intelligent laminating machine based on a display screen according to claim 1, characterized in that, The goggle lens (119) is connected to the goggle bracket (120) by a cross-head pan head screw (121) and a hex socket countersunk screw (122).

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