An apparatus for texturing winding of a plurality of yarns

Abstract

The application relates to the technical field of textile equipment, and in particular provides a device for the texturing winding of multiple yarns. The device for the texturing winding of multiple yarns comprises a mounting base, multiple yarn feeders, a lifting tensioning assembly, a winding mounting assembly, a flattening assembly, a doubling and twisting assembly and a rewinding assembly. The application can apply pre-tension to the yarns to improve the uniformity of subsequent tension distribution, and the flattening assembly and the rewinding assembly are used to flatten and compress the yarns to ensure the neatness of the arrangement of the yarns during the processes of yarn feeding and winding, prevent the compression or stretching of a certain yarn from causing uneven tension and torsion during the twisting process, and cause the yarn to break. Meanwhile, the doubling and twisting assembly is used to repeatedly apply tension and relax the yarns, so that the yarns can obtain more uniform tension distribution during the twisting process, the yarns can maintain certain flexibility during the twisting process, and brittle breakage caused by excessive stretching can be avoided.

Description

Technical Field

[0001] This invention relates to the field of textile equipment technology, and in particular to a device for the deformation and winding of multiple yarns. Background Technology

[0002] Textured winding equipment is a type of machinery used to mix and twist multiple yarns of different compositions or properties. Because different yarns have different physical properties such as material, strength, and elasticity—for example, some yarns may be softer while others are more durable—soft yarns may be stretched excessively during the twisting process, while durable yarns may be subjected to excessive torque, leading to damage.

[0003] Chinese patent application publication number CN210194076U, invention title: A yarn multi-ply twisting mechanism. The inventor believes that the yarn multi-ply twisting mechanism disclosed in this patent application can use a broken yarn detector to monitor whether the yarn is broken and shut it down in time, so as to detect and deal with the broken yarn situation in a timely manner. However, it can only monitor whether the yarn breaks occur during the mixing and twisting process. It cannot adjust when some yarns are subjected to uneven friction and tension when passing through the equipment. As a result, the yarn breaks are still likely to occur repeatedly during the subsequent mixing and twisting process. Summary of the Invention

[0004] Therefore, it is necessary to provide a device for the deformation winding of multiple yarns to solve at least one of the technical problems in the background art.

[0005] A device for deforming and winding multiple yarns includes a mounting base, multiple yarn feeders, a tensioning and raising assembly, a winding mounting assembly, a leveling assembly, a twisting and plying assembly, and a take-up assembly. A mounting control box is located at one end of the top surface of the mounting base. The mounting control box has a hollow interior forming a mounting cavity. A vertical tensioning groove is recessed on the top surface of the mounting cavity. An array of multiple yarn feeders is mounted on the top surface of the mounting base away from the mounting control box. The tensioning and raising assembly includes a tensioning adjustment motor, four rotating mounting cylinders, four threaded rotating rings, four first threaded posts, and a tensioning adjustment slide plate. The tensioning and raising motor is mounted in the middle of the bottom surface of the mounting cavity, and a drive wheel is mounted on the output shaft of the motor. The bottoms of the four rotating mounting cylinders are respectively mounted on four... At each corner, the bottom of four threaded rotating rings are rotatably mounted on the top of four rotating mounting cylinders, and the outer walls of the four threaded rotating rings are fitted with transmission belts on the drive wheels to achieve transmission connection. The bottom ends of the four first threaded columns are threadedly connected to the inner walls of the four threaded rotating rings. The outer wall of the tension control slide plate is slidably mounted in the vertical tensioning groove, and the top ends of the four first threaded columns are rotatably connected to the four corners of the bottom of the tension control slide plate. A winding motor mounting platform is provided on the inner side of the top surface of the tension control slide plate away from the wire output device. The bottom of the winding mounting assembly is mounted in the tension control slide plate. The leveling assembly is mounted on the end of the winding mounting assembly near the wire output device. The twisting assembly is mounted in the winding mounting assembly. The take-up assembly is mounted on the other end of the winding mounting assembly.

[0006] As a further improvement of the present invention, the winding mounting assembly includes two mounting vertical plates, a mounting horizontal plate, two mounting arc-shaped guide plates, multiple guide rollers, a pushing threaded rotary column, a pushing motor, two pushing guide shafts, two pushing sliders, and four pushing rollers. The bottom of the two mounting vertical plates is respectively mounted on the outer side and the middle of the top surface of the tension control slide plate. The two sides of the bottom surface of the mounting horizontal plate are respectively mounted on the top of the two mounting vertical plates. The two mounting arc-shaped guide plates are respectively mounted on the bottom of the two mounting vertical plates near the end of the wire exit device. Each mounting arc-shaped guide plate has a first rotating hole recessed in the middle of its side wall. The two ends of the multiple guide rollers are respectively spaced apart along the circumferential direction. The push threaded column is mounted on the top of the inner wall of two mounting arc-shaped guide plates. The two ends of the push threaded column are rotatably mounted in the two first rotating holes. The push motor is mounted on the outside of one of the mounting arc-shaped guide plates, and the output shaft of the push motor is connected to one end of the push threaded column. The two ends of the push guide shaft are respectively mounted in the middle of the inner wall of the two mounting arc-shaped guide plates. The two ends of the push slider are respectively slidably mounted on the two ends of the push guide shaft and are inclined inward. Each push slider has a threaded hole in the middle, which is threadedly connected to the end wall of the push threaded column. The bottom ends of the four push rollers are respectively rotatably mounted on the top surfaces of the two push sliders.

[0007] As a further improvement of the present invention, each mounting vertical plate sidewall is provided with a first vertical groove at one end near the wire feeder, and a second vertical groove at the other end of the mounting vertical plate sidewall. A twisting groove is provided in the middle of the mounting vertical plate sidewall. Multiple transmission rotating holes are provided at intervals along the length of the middle of the mounting vertical plate sidewall. A leveling rotating hole and a leveling transmission rotating hole are respectively provided at the bottom of one end of the mounting vertical plate sidewall near the wire feeder. A drive rotating hole and a re-rolling transmission rotating hole are respectively provided at the bottom of the other end of the mounting vertical plate sidewall. A leveling mounting groove is provided on both sides of one end of the mounting horizontal plate top surface near the wire feeder. A re-rolling turntable is provided on both sides of the other end of the mounting horizontal plate top surface. A preset passage groove is provided in the middle of the mounting horizontal plate top surface. A twisting drive turntable is protruded in the middle of the mounting horizontal plate top surface. Synchronous adjustment grooves are provided at the four corners of the middle of the mounting horizontal plate top surface.

[0008] As a further improvement of the present invention, the leveling assembly includes two leveling cylinders, a leveling plate, a leveling pressure roller, a leveling rotary roller, a leveling drive shaft, and multiple power drive shafts. The two leveling cylinders are respectively installed in two leveling mounting slots. The two ends of the leveling plate are slidably installed in two first vertical sliding grooves. The output shafts of the two leveling cylinders are respectively connected to the two ends of the top surface of the leveling plate. Pressure roller mounting plates are protruding from both ends of the top surface of the leveling plate. The two ends of the leveling pressure roller are rotatably installed in the two pressure roller mounting plates. A first leveling rotary wheel is provided at one end of the leveling pressure roller. The two ends of the leveling rotary roller are rotatably installed in the two pressure roller mounting plates. The roller is installed in a leveling rotating hole, and a leveling gear is provided at one end of the leveling rotating roller. The inner end of the leveling drive shaft is rotatably installed in the re-rolling drive rotating hole. The outer end of the leveling drive shaft is provided with a leveling drive gear and a second leveling roller. The leveling gear and the leveling drive gear are meshed and connected. A first elastic drive belt is sleeved between the second leveling roller and the first leveling roller to realize the drive connection. The inner ends of multiple power drive shafts are rotatably installed in multiple drive rotating holes respectively. The outer end of each power drive shaft is provided with a drive gear. The multiple drive gears are meshed and connected, and the drive gear near the end of the yarn exit is meshed and connected with the leveling gear.

[0009] As a further improvement of the present invention, the parallel twisting assembly includes a twisting adjustment cylinder, an adjustment push arm, four synchronous motors, a twisting element, and a twisting roller element. The twisting adjustment cylinder is rotatably mounted in the twisting drive turntable. The top end of the adjustment push arm is rotatably mounted in the output shaft of the twisting adjustment cylinder. The bottom end of the adjustment push arm passes through a preset through groove and is set between two mounting vertical plates. The bottom end of the adjustment push arm is provided with a push arm linkage shaft. A push cam is provided in the middle of the push arm linkage shaft. The four synchronous motors are respectively installed in four synchronous adjustment grooves. The twisting element is installed in the output shaft of the four synchronous motors and is rotatably connected to the push arm linkage shaft. The twisting roller element is installed in the twisting element and multiple power transmission shafts.

[0010] As a further improvement of the present invention, the twisting element includes a twisting top plate, two twisting buffers, a twisting turntable, a twisting bottom plate, two twisting mounting vertical plates, and two parallel rollers. The four corners of the top surface of the twisting top plate are respectively connected to the output shafts of four synchronous motors. Connecting mounting turntables protrude from both sides of the top surface of the twisting top plate near the end of the yarn exit. The two connecting mounting turntables are rotatably connected to both ends of the push arm linkage shaft. A preset groove is recessed on the top surface of the twisting top plate, and the preset groove is located between the two connecting mounting turntables. The tops of the two twisting buffers are respectively installed on both sides of the middle of the bottom surface of the mounting horizontal plate, and the bottoms of the two twisting buffers are respectively installed on both sides of the middle of the twisting top plate. The twisting turntable is installed at the end of the twisting top plate away from the yarn exit. The twisting bottom plate... One end is rotatably mounted on the twisting turntable via a torsion spring. A trigger base plate is protruding from the middle of the top surface of the twisting base plate near the end of the yarn exiter. The top surface of the trigger base plate abuts against the outer wall of the push cam. An arc-shaped groove is recessed in the middle of the bottom surface of the twisting base plate. An arc-shaped elastic guide plate is provided at the bottom of the arc-shaped groove. An adjustment motor is provided between the top of the arc-shaped elastic guide plate and the bottom of the arc-shaped groove. The top plates of the two twisting mounting vertical plates are respectively mounted on both sides of the bottom surface of the twisting base plate. Twisting rotating holes are recessed on both sides of the side wall of each twisting mounting vertical plate. Multiple upper paralleling rotating holes are recessed at intervals along the length direction in the middle of the side wall of the twisting mounting vertical plate. Arc-shaped surfaces are formed on both sides of the twisting mounting vertical plate, and the arc-shaped surfaces are slidably mounted in the twisting groove. The two paralleling rollers are rotatably mounted in the four twisting rotating holes at both ends.

[0011] As a further improvement of the present invention, a sliding trigger groove is recessed on one of the arc surfaces of each twisting mounting vertical plate, and the sliding trigger groove of one twisting mounting vertical plate is located at the top of the arc surface near the end of the wire feeder, while the sliding trigger groove of the other twisting mounting vertical plate is located at the bottom of the arc surface away from the end of the wire feeder. A connecting groove is provided inside each sliding trigger groove, and a retaining slider is slidably provided at the outer end of the sliding trigger groove. The outer end of the retaining slider abuts against the inner wall of the twisting groove, and a compression spring is provided between the inner end of the retaining slider and the sliding trigger groove. An inclined push rod is protruding from the inner side of the retaining slider.

[0012] As a further improvement of the present invention, each paralleling roller includes an air guide shaft, two mounting bearings and a sliding conical cylinder. The two ends of the air guide shaft are rotatably mounted in two twisting holes, and the inner end of the air guide shaft is recessed with an air guide hole. The inner wall of the air guide hole is recessed with a plurality of air outlet connecting holes at intervals along the length direction. The two mounting bearings are respectively mounted on the two ends of the outer wall of the air guide shaft. The two ends of the inner wall of the sliding conical cylinder are slidably mounted in the two mounting bearings, and the inner wall of the sliding conical cylinder is recessed with a plurality of air outlet holes. The sliding conical cylinders on the two paralleling rollers are arranged in opposite directions. One end of the sliding conical cylinder is recessed with an inclined annular surface, and the inclined push rod slides against the inclined annular surface.

[0013] As a further improvement of the present invention, the twisting roller element includes multiple upper twisting rollers and multiple lower twisting rollers. The two ends of the multiple upper twisting rollers are respectively rotatably installed in multiple upper parallel rotation holes of two twisting mounting vertical plates. The two ends of the multiple lower twisting rollers are respectively rotatably installed in multiple transmission rotation holes of two mounting vertical plates, and the outer ends of the multiple lower twisting rollers are respectively connected to multiple power transmission shafts.

[0014] As a further improvement of the present invention, the re-rolling and take-up assembly includes two re-rolling cylinders, a re-rolling rotating shaft, two re-rolling crank arms, a drive roller, a winding drive motor, a re-rolling transmission shaft, a re-rolling roller, a take-up plate, and a take-up roller. The two re-rolling cylinders are rotatably mounted in two re-rolling rotating tables, and the two ends of the re-rolling rotating shaft are respectively mounted at the middle of the ends of two mounting vertical plates away from the yarn exiter. The middle parts of the two re-rolling crank arms are respectively rotatably mounted at the two ends of the re-rolling rotating shaft, and the top ends of the two re-rolling crank arms are respectively rotatably connected to the output shafts of the two re-rolling cylinders. The two ends of the drive roller are respectively rotatably mounted in two drive rotating holes, and a drive gear is provided at the outer end of the drive roller. The drive gear meshes with the transmission gear at the end away from the yarn exiter. The winding drive motor is installed in the winding motor mounting platform, and the output shaft of the winding drive motor is connected to the inner end of the drive roller. The inner end of the re-rolling drive shaft is rotatably installed in the re-rolling drive rotating hole. The outer end of the re-rolling drive shaft is provided with a re-rolling drive gear and a first re-rolling roller. The re-rolling drive gear is meshed with the drive gear. The two ends of the re-rolling roller are respectively installed on the bottom plates of the two re-rolling crank arms, and the outer end of the re-rolling roller is provided with a second re-rolling roller. A second elastic transmission belt is sleeved between the first re-rolling roller and the second re-rolling roller to realize the transmission connection. The take-up plate is installed on the end of the tension control slide away from the wire output device. The top surface of the take-up plate is provided with a take-up turntable at the end away from the wire output device. The take-up roller is rotatably installed in the take-up turntable.

[0015] The beneficial effects of this invention are as follows:

[0016] 1. This invention can apply pretension to the yarn to improve the uniformity of subsequent tension distribution. It utilizes a leveling component and a re-winding component to level and compress the yarn, ensuring the neatness of the yarn arrangement during lead-out and take-up processes. This prevents excessive compression or stretching of any yarn, which could lead to uneven tension and torque during twisting and breakage. Simultaneously, the doubling and twisting component repeatedly applies tension and relaxes the yarn, resulting in a more uniform tension distribution during twisting and maintaining a certain degree of flexibility to prevent brittle breakage due to excessive stretching. Furthermore, the use of two doubling rollers promotes yarn doubling and twisting, ensuring the stability and efficiency of the production process.

[0017] 2. This invention can achieve appropriate humidity, making the yarn smoother during twisting, reducing friction, reducing yarn brittleness, reducing the possibility of yarn breakage, and can dynamically adjust according to the yarn humidity, responding to changes in yarn humidity, ensuring that a suitable humidity level is maintained under different conditions and with different types of yarn, reducing yarn breakage due to insufficient humidity. Attached Figure Description

[0018] Figure 1 This is a three-dimensional schematic diagram of an embodiment of the present invention.

[0019] Figure 2 This is a perspective view of an embodiment of the present invention after removing the mounting base and the wire feeder.

[0020] Figure 3 This is a schematic diagram of the interior after removing the mounting base and the wire feeder according to an embodiment of the present invention.

[0021] Figure 4 This is an internal schematic diagram of the winding and mounting assembly, leveling assembly, twisting and rewinding assembly, and take-up assembly in one embodiment of the present invention.

[0022] Figure 5 This is an internal schematic diagram of the winding and mounting assembly, leveling assembly, twisting and rewinding assembly, and take-up assembly in another embodiment of the present invention.

[0023] Figure 6 This is a three-dimensional schematic diagram of a parallel twisting assembly according to an embodiment of the present invention.

[0024] Figure 7 This is a schematic diagram of the internal structure of the parallel twisting assembly in one embodiment of the present invention.

[0025] Figure 8 for Figure 7 Enlarged view of point A in the middle.

[0026] Figure 9 This is a bottom view of the parallel twisting assembly in one embodiment of the present invention.

[0027] In the picture:

[0028] 10. Mounting base; 11. Mounting control box; 12. Mounting cavity; 13. Vertical tensioning chute; 20. Coil outlet; 30. Lifting tensioning assembly; 31. Lifting adjustment motor; 32. Rotating mounting cylinder; 33. Threaded rotating ring; 34. First threaded column; 35. Tensioning adjustment slide plate; 36. Drive wheel; 37. Transmission belt; 38. Winding motor mounting platform; 40. Winding mounting assembly; 41. Mounting vertical plate; 42. Mounting horizontal plate; 43. Mounting arc-shaped guide plate; 44. Guide roller; 45. Pushing threaded rotating column; 46. Pushing motor; 47. Pushing guide shaft; 48. Pushing slider; 49. Pushing roller; 481. Threaded hole; 411. First vertical chute; 412. Second vertical chute; 413, twisting chute; 414, transmission rotating hole; 415, leveling rotating hole; 416, leveling transmission rotating hole; 417, drive rotating hole; 418, re-rolling transmission rotating hole; 421, leveling mounting groove; 422, re-rolling turntable; 423, preset passage groove; 424, twisting drive turntable; 425, synchronous adjustment groove; 50, leveling assembly; 51, leveling cylinder; 52, leveling plate; 53, leveling pressure roller; 54, leveling rotating roller; 55, leveling transmission shaft; 56, power transmission shaft; 521, pressure roller mounting plate; 531, first leveling roller; 541, leveling gear; 551, leveling transmission gear; 552, second leveling roller; 561, transmission gear 60. Wheel; 61. Twisting assembly; 62. Twisting adjusting cylinder; 63. Adjusting push arm; 64. Synchronous motor; 65. Twisting element; 66. Twisting roller element; 621. Push arm linkage shaft; 622. Pushing cam; 641. Twisting top plate; 642. Twisting buffer; 643. Twisting turntable; 644. Twisting bottom plate; 645. Twisting mounting vertical plate; 646. Twining roller; 647. Connecting mounting turntable; 640. Preset groove; 670. Trigger bottom plate; 691. Arc groove; 692. Arc elastic guide plate; 648. Twisting rotating hole; 649. Upper twinning rotating hole; 671. Arc surface; 672. Sliding trigger groove; 673. Connecting slide groove; 674. Supporting slider 675. Compression spring; 676. Inclined push rod; 677. Air guide shaft; 678. Mounting bearing; 679. Sliding conical cylinder; 681. Air guide hole; 682. Air outlet connecting hole; 683. Air outlet; 684. Inclined annular surface; 651. Upper twisting roller; 652. Lower twisting roller; 70. Re-rolling take-up assembly; 71. Re-rolling cylinder; 72. Re-rolling shaft; 73. Re-rolling crank arm; 74. Drive roller; 75. Winding drive motor; 79. Re-rolling transmission shaft; 76. Re-rolling roller; 77. Take-up plate; 78. Take-up roller; 741. Drive gear; 791. Re-rolling transmission gear; 792. First re-rolling roller; 761. Second re-rolling roller; 771. Take-up turntable. Detailed Implementation

[0029] To facilitate understanding of the present invention, a more complete description will be given below with reference to the accompanying drawings. Preferred embodiments of the invention are shown in the drawings. However, the invention can be implemented in many different forms and is not limited to the embodiments described herein. Rather, these embodiments are provided to provide a thorough and complete understanding of the disclosure of the invention.

[0030] In the description of this invention, it should be noted that the terms "length", "width", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this invention and 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 this invention.

[0031] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this invention pertains. The terminology used herein is for the purpose of describing particular embodiments only and is not intended to limit the invention. The term "and / or" as used herein includes any and all combinations of one or more of the associated listed items.

[0032] Please see Figures 1 to 9A device for deforming and winding multiple yarns includes a mounting base 10, multiple yarn feeders 20, a lifting and tensioning assembly 30, a winding mounting assembly 40, a leveling assembly 50, a twisting and plying assembly 60, and a rewinding and take-up assembly 70. A mounting control box 11 is provided at one end of the top surface of the mounting base 10. The mounting control box 11 is hollow, forming a mounting cavity 12. A vertical tensioning groove 13 is recessed on the top surface of the mounting cavity 12. Multiple yarn feeders 20 are arrayed and mounted on the top surface of the mounting base 10 at the end away from the mounting control box 11. The lifting and tensioning assembly 30 includes a lifting adjustment motor 31, four rotating mounting cylinders 32, four threaded rotating rings 33, four first threaded posts 34, and a tensioning adjustment slide plate 35. The lifting adjustment motor 31 is mounted in the middle of the bottom surface of the mounting cavity 12, and a drive wheel 36 is provided on the output shaft of the lifting adjustment motor 31. The bottoms of the four rotating mounting cylinders 32 are respectively mounted in the mounting cavity. At the four corners of the bottom surface of 12, four threaded rotating rings 33 are rotatably mounted on the top of four rotating mounting cylinders 32, and the outer walls of the four threaded rotating rings 33 are fitted with transmission belts 37 on the drive wheel 36 to achieve transmission connection. The bottom ends of the four first threaded pillars 34 are threadedly connected to the inner walls of the four threaded rotating rings 33. The outer wall of the tension control slide plate 35 is slidably mounted in the vertical tension slide groove 13, and the top ends of the four first threaded pillars 34 are rotatably connected to the four corners of the bottom of the tension control slide plate 35. A winding motor mounting platform 38 is provided on the inner side of the top surface of the tension control slide plate 35 away from the wire feeder 20. The bottom of the winding mounting assembly 40 is mounted in the tension control slide plate 35. The leveling assembly 50 is mounted on the winding mounting assembly 40 near the wire feeder 20. The twisting assembly 60 is mounted in the winding mounting assembly 40. The take-up assembly 70 is mounted on the other end of the winding mounting assembly 40.

[0033] The winding mounting assembly 40 includes two mounting vertical plates 41, a mounting horizontal plate 42, two mounting arc-shaped guide plates 43, multiple guide rollers 44, a pushing threaded rotating column 45, a pushing motor 46, two pushing guide shafts 47, two pushing sliders 48, and four pushing rollers 49. The bottom of the two mounting vertical plates 41 is respectively mounted on the outer side and the middle of the top surface of the tension control slide plate 35. The two sides of the bottom surface of the mounting horizontal plate 42 are respectively mounted on the top of the two mounting vertical plates 41. The two mounting arc-shaped guide plates 43 are respectively mounted on the bottom of the two mounting vertical plates 41 near the end of the wire exit 20. Each mounting arc-shaped guide plate 43 has a first rotating hole recessed in the middle of its side wall. The two ends of the multiple guide rollers 44 are respectively mounted at intervals along the circumferential direction on the two vertical plates 41. The top of the inner wall of the arc-shaped guide plate 43 is installed. The two ends of the push threaded rotating column 45 are respectively rotatably installed in the two first rotating holes. The push motor 46 is installed on the outside of one of the arc-shaped guide plates 43, and the output shaft of the push motor 46 is connected to one end of the push threaded rotating column 45. The two ends of the two push guide shafts 47 are respectively installed in the middle of the inner wall of the two arc-shaped guide plates 43. The two ends of the two push sliders 48 are respectively slidably installed on the two ends of the two push guide shafts 47 and are inclined inward. Each push slider 48 has a threaded hole 481 recessed in the middle. The threaded hole 481 is threadedly connected to the end wall of the push threaded rotating column 45. The bottom ends of the four push rollers 49 are respectively rotatably installed on the top surfaces of the two push sliders 48.

[0034] Each mounting plate 41 has a first vertical groove 411 recessed at one end of its sidewall adjacent to the wire feeder 20, and a second vertical groove 412 at the other end of its sidewall. A twisting groove 413 is recessed in the middle of the sidewall of the mounting plate 41. Multiple drive holes 414 are recessed at intervals along the length of the middle of the sidewall of the mounting plate 41. A leveling hole 415 and a leveling drive hole 416 are respectively recessed at the bottom of one end of the sidewall of the mounting plate 41 adjacent to the wire feeder 20. The other end of the sidewall of the mounting plate 41... The bottom of the mounting plate 42 is recessed with a drive rotating hole 417 and a re-rolling transmission rotating hole 418. The top surface of the mounting plate 42 is recessed with a leveling mounting groove 421 on both sides of one end near the yarn output device 20. The other end of the top surface of the mounting plate 42 is provided with a re-rolling turntable 422 on both sides. The top surface of the mounting plate 42 is recessed with a preset passage groove 423 in the middle. The top surface of the mounting plate 42 is protruding with a twisting drive turntable 424 in the middle. The four corners of the top surface of the mounting plate 42 are recessed with synchronous adjustment grooves 425.

[0035] The leveling assembly 50 includes two leveling cylinders 51, a leveling plate 52, a leveling pressure roller 53, a leveling rotary roller 54, a leveling drive shaft 55, and multiple power drive shafts 56. The two leveling cylinders 51 are respectively installed in two leveling mounting slots 421. The two ends of the leveling plate 52 are slidably installed in two first vertical sliding grooves 411, and the output shafts of the two leveling cylinders 51 are respectively connected to the two ends of the top surface of the leveling plate 52. The two ends of the top surface of the leveling plate 52 are respectively provided with pressure roller mounting rotary plates 521. The two ends of the leveling pressure roller 53 are respectively rotatably installed in the two pressure roller mounting rotary plates 521, and one end of the leveling pressure roller 53 is provided with a first leveling rotary wheel 531. The two ends of the leveling rotary roller 54 are respectively rotatably installed in the leveling rotating holes 415. A leveling gear 541 is provided at one end of the leveling roller 54. The inner end of the leveling drive shaft 55 is rotatably installed in the re-rolling drive hole 418. The outer end of the leveling drive shaft 55 is provided with a leveling drive gear 551 and a second leveling roller 552. The leveling gear 541 is meshed with the leveling drive gear 551. A first elastic drive belt is sleeved between the second leveling roller 552 and the first leveling roller 531 to achieve a drive connection. The inner ends of multiple power drive shafts 56 are rotatably installed in multiple drive holes 414. The outer end of each power drive shaft 56 is provided with a drive gear 561. The multiple drive gears 561 are meshed with each other, and the drive gear 561 adjacent to the end of the yarn exiter 20 is meshed with the leveling gear 541.

[0036] The parallel twisting assembly 60 includes a twisting adjustment cylinder 61, an adjustment push arm 62, four synchronous motors 63, a twisting element 64, and a twisting roller element 65. The twisting adjustment cylinder 61 is rotatably mounted in the twisting drive turntable 424. The top end of the adjustment push arm 62 is rotatably mounted in the output shaft of the twisting adjustment cylinder 61. The bottom end of the adjustment push arm 62 passes through a preset through groove 423 and is set between two mounting vertical plates 41. The bottom end of the adjustment push arm 62 is provided with a push arm linkage shaft 621. A push cam 622 is provided in the middle of the push arm linkage shaft 621. The four synchronous motors 63 are respectively installed in four synchronous adjustment grooves 425. The twisting element 64 is installed in the output shaft of the four synchronous motors 63 and is rotatably connected to the push arm linkage shaft 621. The twisting roller element 65 is installed in the twisting element 64 and multiple power transmission shafts 56.

[0037] The twisting element 64 includes a twisting top plate 641, two twisting buffers 642, a twisting turntable 643, a twisting bottom plate 644, two twisting mounting vertical plates 645, and two paralleling rollers 646. The four corners of the top surface of the twisting top plate 641 are respectively connected to the output shafts of four synchronous motors 63. The top surface of the twisting top plate 641 is provided with connecting mounting turntables 647 on both sides of one end near the yarn exit 20. The two connecting mounting turntables 647 are respectively linked to the push arm linkage shaft. The two ends of 621 are rotatably connected. The top surface of the twisting top plate 641 is recessed with a preset groove 640, which is located between the two connecting and mounting turntables 647. The tops of the two twisting buffers 642 are respectively installed on both sides of the middle of the bottom surface of the mounting horizontal plate 42, and the bottoms of the two twisting buffers 642 are respectively installed on both sides of the middle of the twisting top plate 641. The twisting turntable 643 is installed at the end of the twisting top plate 641 away from the yarn exit 20. One end of the twisting bottom plate 644 is connected by a torsion mechanism. A spring is rotatably mounted on the twisting turntable 643. A trigger plate 670 protrudes from the center of one end of the top surface of the twisting base plate 644 near the yarn exit 20. The top surface of the trigger plate 670 abuts against the outer wall of the push cam 622. An arc-shaped groove 691 is recessed in the center of the bottom surface of the twisting base plate 644. An arc-shaped elastic guide plate 692 is provided at the bottom of the arc-shaped groove 691. A regulating motor is located between the top of the arc-shaped elastic guide plate 692 and the bottom of the arc-shaped groove 691. Two twisting mounting vertical plates 645 are mounted on top... The plates are respectively installed on both sides of the bottom surface of the twisting base plate 644. Each twisting mounting vertical plate 645 has a twisting rotating hole 648 recessed on both sides of its side wall. The middle of the side wall of the twisting mounting vertical plate 645 has multiple upper paralleling rotating holes 649 recessed at intervals along the length direction. The twisting mounting vertical plate 645 has an arc-shaped surface 671 formed on both sides, and the arc-shaped surface 671 is slidably installed in the twisting groove 413. The two paralleling rollers 646 are rotatably installed in the four twisting rotating holes 648 at both ends.

[0038] Each twisting mounting plate 645 has a sliding trigger groove 672 recessed on one of its arc surfaces 671. The sliding trigger groove 672 of one twisting mounting plate 645 is located at the top of the arc surface 671 near the end of the yarn feeder 20, and the sliding trigger groove 672 of the other twisting mounting plate 645 is located at the bottom of the arc surface 671 away from the end of the yarn feeder 20. Each sliding trigger groove 672 has a connecting groove 673 inside. A retaining slider 674 is slidably provided at the outer end of the sliding trigger groove 672. The outer end of the retaining slider 674 abuts against the inner wall of the twisting groove 413. A compression spring 675 is provided between the inner end of the retaining slider 674 and the sliding trigger groove 672. An inclined push rod 676 is protruding from the inner side of the retaining slider 674.

[0039] Each paralleling roller 646 includes an air guide shaft 677, two mounting bearings 678, and a sliding conical cylinder 679. The two ends of the air guide shaft 677 are rotatably mounted in two twisting holes 648, and the inner end of the air guide shaft 677 is recessed with an air guide hole 681. The inner wall of the air guide hole 681 is recessed with multiple air outlet connecting holes 682 at intervals along the length direction. The two mounting bearings 678 are respectively mounted on the two ends of the outer wall of the air guide shaft 677. The two ends of the inner wall of the sliding conical cylinder 679 are slidably mounted in the two mounting bearings 678, and the inner wall of the sliding conical cylinder 679 is recessed with multiple air outlet holes 683 in an array. The sliding conical cylinders 679 on the two paralleling rollers 646 are arranged oppositely. One end of the sliding conical cylinder 679 is recessed with an inclined annular surface 684, and the inclined push rod 676 slides against the inclined annular surface 684.

[0040] The twisting roller element 65 includes multiple upper twisting rollers 651 and multiple lower twisting rollers 652. The two ends of the multiple upper twisting rollers 651 are respectively rotatably installed in multiple upper parallel rotation holes 649 of two twisting mounting vertical plates 645. The two ends of the multiple lower twisting rollers 652 are respectively rotatably installed in multiple transmission rotation holes 414 of two mounting vertical plates 41, and the outer ends of the multiple lower twisting rollers 652 are respectively connected to multiple power transmission shafts 56.

[0041] The re-rolling and take-up assembly 70 includes two re-rolling cylinders 71, a re-rolling rotating shaft 72, two re-rolling crank arms 73, a drive roller 74, a winding drive motor 75, a re-rolling transmission shaft 79, a re-rolling roller 76, a take-up plate 77, and a take-up roller 78. The two re-rolling cylinders 71 are rotatably mounted in two re-rolling rotating tables 422. The two ends of the re-rolling rotating shaft 72 are respectively mounted at the middle of the ends of two mounting vertical plates 41 away from the yarn exiter 20. The middle portions of the two re-rolling crank arms 73 are rotatably mounted at both ends of the re-rolling rotating shaft 72, and the top ends of the two re-rolling crank arms 73 are rotatably connected to the output shafts of the two re-rolling cylinders 71. The two ends of the drive roller 74 are rotatably mounted in two drive rotating holes 417. A drive gear 741 is provided at the outer end of the drive roller 74, and the drive gear 741 meshes with a transmission gear 561 at the end away from the yarn exiter 20. The winding drive motor 75... The winding motor 75 is installed in the winding motor mounting platform 38, and the output shaft of the winding drive motor 75 is connected to the inner end of the drive roller 74. The inner end of the re-rolling drive shaft 79 is rotatably installed in the re-rolling drive rotating hole 418. The outer end of the re-rolling drive shaft 79 is provided with a re-rolling drive gear 791 and a first re-rolling roller 792. The re-rolling drive gear 791 is meshed with the drive gear 741. The two ends of the re-rolling roller 76 are respectively installed on the bottom plates of the two re-rolling crank arms 73, and the outer end of the re-rolling roller 76 is provided with a second re-rolling roller 761. A second elastic transmission belt is sleeved between the first re-rolling roller 792 and the second re-rolling roller 761 to realize the transmission connection. The take-up plate 77 is installed on the tension control slide plate 35 at the end away from the wire output device 20. The top surface of the take-up plate 77 at the end away from the wire output device 20 is provided with a take-up turntable 771. The take-up roller 78 is rotatably installed in the take-up turntable 771.

[0042] For example, in one embodiment: the threaded holes 481 on the two push sliders 48 have opposite thread directions, and the multiple upper twisting rollers 651 and multiple lower twisting rollers 652 are arranged alternately. A connecting conduit is rotatably provided on the air guide hole 681 of the air guide shaft 677, and the connecting conduit is connected to an external atomizing device. A take-up motor is provided at one end of the take-up roller 78. Push springs are respectively provided at both ends of the inner side of the twisting mounting vertical plate 645, and one end of the push spring rotatably abuts against one end of the sliding conical cylinder 679.

[0043] For example, in one embodiment: before winding, four synchronous motors 63 are started according to the twisting requirements, which in turn drive the twisting element 64 and multiple upper twisting rollers 651 to move up and down to the position to be twisted. Then, the yarns output from multiple yarn feeders 20 are sequentially wound around multiple guide rollers 44, leveling rollers 54, paralleling rollers 646 adjacent to yarn feeders 20, twisting roller elements 65, another paralleling roller 646 and drive rollers 74 and then wound onto take-up rollers 78. Then, the lifting adjustment motor 31 is started, which drives four threaded rotating rings 33 to rotate, which causes four first threaded columns 34 to rotate and move upward, which causes the tension control slide plate 35 to move upward. At the same time, the push motor 46 is started, which drives the push threaded rotating column 45 to rotate. Since the thread directions of the threaded holes 481 on the two push sliders 48 are opposite, the two push sliders 48 and the four push rollers 49 therein will move towards the center, which will tighten multiple yarns and apply pretension.

[0044] At the same time, the two leveling cylinders 51 will be activated, which will cause the leveling plate 52 to move downward, and then the leveling pressure roller 53 will move accordingly, thereby leveling and pressing the multiple yarns on the leveling roller 54 to ensure the stability of the multiple yarns in the subsequent twisting process.

[0045] Subsequently, the winding drive motor 75 and the take-up motor will be started. The winding drive motor 75 will drive the drive roller 74 to rotate, causing the drive gear 741 to rotate, which in turn drives the re-twisting transmission gear 791 and multiple transmission gears 561 to rotate, and drives the leveling gear 541 and leveling transmission gear 551 to rotate, which in turn causes multiple lower twisting rollers 652 and leveling rollers 54 to rotate, thereby causing multiple yarns to rotate. At the same time, the twisting adjustment cylinder 61 will be activated, causing the output shaft of the twisting adjustment cylinder 61 to reciprocate and extend, which in turn drives the adjustment push arm 62 to move, thereby causing the push arm linkage shaft 621 to rotate. The rotation causes the push cam 622 to reciprocate. Since the top surface of the trigger plate 670 abuts against the outer wall of the push cam 622, and the twisting plate 644 is rotatably mounted on the twisting turntable 643 via a torsion spring, the twisting plate 644 will reciprocate around the twisting turntable 643 at a small angle. This causes the two parallel rollers 646 and multiple upper twisting rollers 651 below to move accordingly, thereby causing the yarn to reciprocate through tensioning and relaxation. This results in a more uniform tension distribution in the yarn during twisting and maintains a certain degree of flexibility in the yarn during twisting, preventing brittle breakage due to excessive stretching. Simultaneously, when the twisting base plate 644 rotates, the twisting mounting vertical plate 645 will move accordingly. Since the arc-shaped surface 671 is slidably disposed in the twisting groove 413, and the outer end of the abutting slider 674 abuts against the inner wall of the twisting groove 413, the sliding trigger groove 672 disposed on the twisting mounting vertical plate 645 is located at the bottom of the arc-shaped surface 671 at the end away from the wire feeder 20, and the abutting slider 674 will move towards the end adjacent to the wire feeder 20. The compression spring 675 is compressed, which causes the tilting push rod 676 to move accordingly. Since the tilting push rod 676 slides against the tilting ring, On surface 684, one of the sliding conical cylinders 679 is pushed to slide to one side, and one of the pushing springs is compressed. Since the sliding conical cylinders 679 on the two twinning rollers 646 are arranged oppositely, the abutting slider 674 on the top of the arc-shaped surface 671 located near one end of the yarn exiter 20 moves away from the yarn exiter 20, thereby causing the other sliding conical cylinder 679 to move to the other side. This results in the two sliding conical cylinders 679 moving in an alternating manner, thereby generating an inward twinning force and a twisting rotational force on the multiple yarns to accelerate the twinning and twisting process.

[0046] At the same time, the two re-rolling cylinders 71 will be activated, which will drive the two re-rolling crank arms 73 to rotate around the re-rolling shaft 72, thereby causing the re-rolling roller 76 to move downwards, pressing the yarn below and ensuring the smooth take-up of the yarn.

[0047] For example, in one embodiment: when twisting is performed, an external atomizing device will be activated and generate a humidifying airflow. The humidifying airflow will enter the two air guide shafts 677 along the connecting conduit and flow out to the outside through multiple air outlet holes 682 and multiple air outlet holes 683 to humidify the surrounding yarn.

[0048] When the humidifying airflow flows out of the air outlet 683, it forms a key humidification area between the two twisting rollers 646 under the guidance of the arc-shaped elastic guide plate 692. When the yarn humidity is insufficient, the control motor will start, causing the arc-shaped elastic guide plate 692 to move downward, thereby intensifying the effect of the humidifying airflow on the yarn below, humidifying it, and preventing brittle breakage during twisting.

[0049] Installation process: Multiple wire feeders 20 are arrayed and installed on the top surface of the mounting base 10 at the end furthest from the mounting control box 11. The lifting adjustment motor 31 is installed in the middle of the bottom surface of the mounting cavity 12. The bottoms of four rotating mounting cylinders 32 are respectively installed at the four corners of the bottom surface of the mounting cavity 12. The bottoms of four threaded rotating rings 33 are rotatably installed on the tops of the four rotating mounting cylinders 32. The bottom ends of four first threaded posts 34 are threadedly connected to the inner walls of the four threaded rotating rings 33. The outer wall of the tension control slide plate 35 is slidably installed in the vertical tensioning groove 13, and the tops of the four first threaded posts 34 are rotatably connected to the four corners of the bottom of the tension control slide plate 35. The bottoms of two mounting vertical plates 41 are respectively installed on the outer side and middle of the top surface of the tension control slide plate 35. The bottom sides of the horizontal plate 42 are respectively installed on the top of the two mounting vertical plates 41. Two mounting arc-shaped guide plates 43 are respectively installed on the bottom of the two mounting vertical plates 41 near the end of the wire feeder 20. Multiple guide rollers 44 are respectively installed at intervals along the circumferential direction on the top of the inner wall of the two mounting arc-shaped guide plates 43. The two ends of the pushing threaded rotating column 45 are respectively rotatably installed in the two first rotating holes. The pushing motor 46 is installed on the outside of one of the mounting arc-shaped guide plates 43, and the output shaft of the pushing motor 46 is connected to one end of the pushing threaded rotating column 45. The two ends of the two pushing guide shafts 47 are respectively installed in the middle of the inner wall of the two mounting arc-shaped guide plates 43. The two pushing sliders 48 are respectively slidably installed on the two ends of the two pushing guide shafts 47 and are inclined inward. The threaded hole 4 81 is threaded to the end wall of the push-threaded rotating column 45. The bottom ends of the four push-rollers 49 are rotatably mounted on the top ends of the two push-slider blocks 48. The two leveling cylinders 51 are respectively installed in the two leveling mounting grooves 421. The two ends of the leveling plate 52 are slidably mounted in the two first vertical sliding grooves 411. The output shafts of the two leveling cylinders 51 are respectively connected to the two ends of the top surface of the leveling plate 52. The two ends of the leveling pressure roller 53 are rotatably mounted in the two pressure roller mounting rotating plates 521. The inner end of the leveling drive shaft 55 is rotatably mounted in the re-rolling drive rotating hole 418. The leveling gear 541 is meshed with the leveling drive gear 551. The inner ends of the multiple power drive shafts 56 are rotatably mounted in the multiple drive rotating holes 414. The multiple drive gears 541 and 551 are meshed with each other. The gears 61 and 62 are meshed together, and the transmission gear 561 near the end of the yarn feeder 20 is meshed with the leveling gear 541. The twisting adjustment cylinder 61 is rotatably mounted in the twisting drive turntable 424. The top of the adjusting push arm 62 is rotatably mounted in the output shaft of the twisting adjustment cylinder 61. The bottom of the adjusting push arm 62 passes through a preset through slot 423 and is set between two mounting vertical plates 41. Four synchronous motors 63 are respectively mounted in four synchronous control slots 425. The four corners of the top surface of the twisting top plate 641 are respectively connected to the output shafts of the four synchronous motors 63. The two connecting mounting turntables 647 are respectively rotatably connected to both ends of the push arm linkage shaft 621. The tops of the two twisting buffers 642 are respectively mounted on both sides of the middle of the bottom surface of the mounting horizontal plate 42.Two twisting buffers 642 are respectively installed on both sides of the middle of the twisting top plate 641. The twisting turntable 643 is installed on the end of the twisting top plate 641 away from the yarn exit 20. One end of the twisting bottom plate 644 is rotatably installed on the twisting turntable 643 via a torsion spring, and the top surface of the trigger bottom plate 670 abuts against the outer wall of the push cam 622. The top plates of the two twisting mounting vertical plates 645 are respectively installed on both sides of the bottom surface of the twisting bottom plate 644, and the arc-shaped surface 671 is slidably installed in the twisting groove 413. The two paralleling rollers 646 are respectively rotatably installed in the four twisting rotating holes 648 at both ends, and the air guide shaft is... The two ends of the air guide shaft 677 are rotatably installed in the two twisting holes 648 respectively. The two mounting bearings 678 are respectively installed on the two ends of the outer wall of the air guide shaft 677. The two ends of the inner wall of the sliding conical cylinder 679 are slidably installed in the two mounting bearings 678 respectively, so that the sliding conical cylinders 679 on the two parallel rollers 646 are arranged oppositely. The inclined push rod 676 slides against the inclined annular surface 684. The two ends of the multiple upper twisting rollers 651 are rotatably installed in the multiple upper paralleling holes 649 of the two twisting mounting vertical plates 645 respectively. The two ends of the multiple lower twisting rollers 652 are rotatably installed in the two... Multiple transmission holes 414 are located in the mounting vertical plate 41, and the outer ends of multiple lower twisting rollers 652 are respectively connected to multiple power transmission shafts 56. Two re-rolling cylinders 71 are rotatably mounted in two re-rolling turntables 422. The two ends of the re-rolling shaft 72 are respectively mounted in the middle of the end of the two mounting vertical plates 41 away from the yarn output device 20. The middle parts of two re-rolling crank arms 73 are respectively rotatably mounted in the two ends of the re-rolling shaft 72, and the top ends of the two re-rolling crank arms 73 are respectively rotatably connected to the output shafts of the two re-rolling cylinders 71. The two ends of the drive rollers 74 are respectively rotatably mounted in two drive holes 417, and the drive rollers 74 are respectively rotatably mounted in the two drive holes 417. The driving gear 741 meshes with the transmission gear 561 at the end furthest from the yarn exiter 20. The winding drive motor 75 is mounted in the winding motor mounting platform 38, and the output shaft of the winding drive motor 75 is connected to the inner end of the drive roller 74. The inner end of the re-rolling transmission shaft 79 is rotatably mounted in the re-rolling transmission rotating hole 418, and the re-rolling transmission gear 791 meshes with the drive gear 741. The two ends of the re-rolling roller 76 are respectively mounted on the base plates of the two re-rolling crank arms 73. The take-up plate 77 is mounted on the end of the tension adjustment slide plate 35 furthest from the yarn exiter 20. The take-up roller 78 is rotatably mounted in the take-up turntable 771.

[0050] This invention can achieve:

[0051] 1. This invention can apply pretension to the yarn to improve the uniformity of subsequent tension distribution. The leveling component 50 and the rewinding and take-up component 70 are used to level and compress the yarn to ensure the neatness of the yarn arrangement during the yarn exit and take-up processes. This prevents excessive compression or stretching of a single yarn, which could lead to uneven tension and torque during twisting and breakage. At the same time, the yarn doubling and twisting component 60 repeatedly applies tension and relaxes the yarn, resulting in a more uniform tension distribution during twisting and maintaining a certain degree of flexibility to avoid brittle breakage due to excessive stretching. In addition, the use of two doubling rollers 646 promotes yarn doubling and twisting, ensuring the stability and efficiency of the production process.

[0052] 2. This invention can achieve appropriate humidity, making the yarn smoother during twisting, reducing friction, reducing yarn brittleness, reducing the possibility of yarn breakage, and can dynamically adjust according to the yarn humidity, responding to changes in yarn humidity, ensuring that a suitable humidity level is maintained under different conditions and with different types of yarn, reducing yarn breakage due to insufficient humidity.

[0053] The embodiments described above are merely illustrative of several implementations of the present invention, and while the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the present invention. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of the present invention, and these all fall within the protection scope of the present invention. Therefore, the protection scope of this patent should be determined by the appended claims.

Claims

1. A device for deforming and winding multiple yarns, characterized in that: The assembly includes a mounting base (10), multiple yarn feeders (20), a tensioning assembly (30), a winding mounting assembly (40), a leveling assembly (50), a twisting assembly (60), and a take-up assembly (70). A mounting control box (11) is provided at one end of the top surface of the mounting base (10). The mounting control box (11) is hollow inside, forming a mounting cavity (12). A vertical tensioning groove (13) is recessed on the top surface of the mounting cavity (12). Multiple yarn feeders (20) are arrayed and mounted on the mounting base (10). 0) The top surface away from the mounting control box (11) includes a lifting tensioning assembly (30) comprising a lifting adjustment motor (31), four rotating mounting cylinders (32), four threaded rotating rings (33), four first threaded posts (34), and a tensioning adjustment slide plate (35). The lifting adjustment motor (31) is installed in the middle of the bottom surface of the mounting cavity (12), and a drive wheel (36) is provided on the output shaft of the lifting adjustment motor (31). The bottoms of the four rotating mounting cylinders (32) are respectively installed on the bottom surface of the mounting cavity (12). At the four corners, the bottoms of four threaded rotating rings (33) are rotatably mounted on the tops of four rotating mounting cylinders (32), and the outer walls of the four threaded rotating rings (33) are fitted with transmission belts (37) on the drive wheel (36) to achieve transmission connection. The bottom ends of the four first threaded posts (34) are threadedly connected to the inner walls of the four threaded rotating rings (33), and the outer wall of the tension control slide plate (35) is slidably mounted in the vertical tension slide groove (13), and the top ends of the four first threaded posts (34) are respectively connected to the tension control slide plate. The bottom of the plate (35) is rotatably connected at the four corners. The tension control slide plate (35) is provided with a winding motor mounting platform (38) on the inner side of the top surface away from the wire feeder (20). The bottom of the winding mounting assembly (40) is installed in the tension control slide plate (35). The leveling assembly (50) is installed at the end of the winding mounting assembly (40) near the wire feeder (20). The twisting assembly (60) is installed in the winding mounting assembly (40). The take-up assembly (70) is installed at the other end of the winding mounting assembly (40). The winding mounting assembly (40) includes two mounting vertical plates (41), a mounting horizontal plate (42), two mounting arc-shaped guide plates (43), multiple guide rollers (44), a push threaded rotating column (45), a push motor (46), two push guide shafts (47), two push sliders (48), and four push rollers (49). The bottom of the two mounting vertical plates (41) is respectively mounted on the outer side and the middle of the top surface of the tension control slide plate (35), and the bottom sides of the mounting horizontal plate (42) are respectively mounted on the top of the two mounting vertical plates (41). Each mounting vertical plate (41) has a first vertical groove (411) recessed at one end of its sidewall adjacent to the yarn feeder (20), and a second vertical groove (412) provided at the other end of its sidewall. A twisting groove (413) is recessed in the middle of the sidewall of the mounting vertical plate (41). Multiple transmission rotating holes (414) are recessed at intervals along the length of the middle of the sidewall of the mounting vertical plate (41). A preset passage groove (423) is recessed in the middle of the top surface of the mounting horizontal plate (42). A twisting drive turntable (424) is protruding in the middle of the top surface of the mounting horizontal plate (42). Synchronous adjustment grooves (425) are recessed at the four corners of the top surface of the mounting horizontal plate (42). The leveling assembly (50) includes two leveling cylinders (51), a leveling plate (52), a leveling pressure roller (53), a leveling rotary roller (54), a leveling drive shaft (55), and multiple power drive shafts (56). The inner ends of the multiple power drive shafts (56) are rotatably installed in multiple drive holes (414), and each power drive shaft (56) is provided with a drive gear (561) at its outer end. The multiple drive gears (561) are meshed and connected to each other. The parallel twisting assembly (60) includes a twisting adjustment cylinder (61), an adjustment push arm (62), four synchronous motors (63), a twisting element (64), and a twisting roller element (65). The twisting adjustment cylinder (61) is rotatably mounted in the twisting drive turntable (424). The top end of the adjustment push arm (62) is rotatably mounted in the output shaft of the twisting adjustment cylinder (61). The bottom end of the adjustment push arm (62) passes through a preset through groove (423) and is set between two mounting vertical plates (41). The bottom end of the adjusting push arm (62) is provided with a push arm linkage shaft (621), and the middle part of the push arm linkage shaft (621) is provided with a push cam (622). Four synchronous motors (63) are respectively installed in four synchronous adjustment slots (425). The twisting element (64) is installed in the output shaft of the four synchronous motors (63) and is rotatably connected to the push arm linkage shaft (621). The twisting roller element (65) is installed in the twisting element (64) and multiple power transmission shafts (56). The twisting element (64) includes a twisting top plate (641), two twisting dampers (642), a twisting turntable (643), a twisting bottom plate (644), two twisting mounting vertical plates (645), and two parallel rollers (646). The four corners of the top surface of the twisting top plate (641) are connected to the output shafts of four synchronous motors (63). The tops of the two twisting dampers (642) are respectively installed on both sides of the middle of the bottom surface of the mounting horizontal plate (42), and the bottoms of the two twisting dampers (642) are respectively installed on both sides of the middle of the twisting top plate (641). The twisting turntable (643) is connected to the output shafts of four synchronous motors (63). 43) The twisting top plate (641) is installed at the end away from the wire feeder (20). The twisting bottom plate (644) is rotatably installed on the twisting turntable (643) by a torsion spring. The top surface of the twisting bottom plate (644) is provided with a trigger bottom plate (670) protruding in the middle of the end near the wire feeder (20). The top surface of the trigger bottom plate (670) abuts against the outer wall of the push cam (622). The top plates of the two twisting mounting vertical plates (645) are respectively installed on both sides of the bottom surface of the twisting bottom plate (644). Each twisting mounting vertical plate (645) has a twisting rotating hole (648) recessed on both sides of its side wall. Each twisting mounting plate (645) has a sliding trigger groove (672) recessed on one of its arc surfaces (671). The sliding trigger groove (672) of one twisting mounting plate (645) is located at the top of the arc surface (671) near the end of the yarn feeder (20), and the sliding trigger groove (672) of the other twisting mounting plate (645) is located at the bottom of the arc surface (671) away from the end of the yarn feeder (20). Each sliding trigger groove (672) has a connecting groove (673) inside. A retaining slider (674) is slidably provided at the outer end of the sliding trigger groove (672). The outer end of the retaining slider (674) abuts against the inner wall of the twisting groove (413). A compression spring (675) is provided between the inner end of the retaining slider (674) and the sliding trigger groove (672). An inclined push rod (676) is protruding from the inner side of the retaining slider (674). Each twisting roller (646) includes an air guide shaft (677), two mounting bearings (678), and a sliding conical cylinder (679). The air guide shaft (677) is rotatably mounted at both ends in two twisting holes (648). An air guide hole (681) is recessed at the inner end of the air guide shaft (677). Multiple air outlet connecting holes (682) are recessed at intervals along the length of the inner wall of the air guide hole (681). The two mounting bearings (678) are respectively mounted on the air guide shaft. The two ends of the outer wall of the shaft (677) and the two ends of the inner wall of the sliding conical cylinder (679) are respectively slidably installed in two mounting bearings (678). The inner wall of the sliding conical cylinder (679) is provided with a plurality of air outlet holes (683). The sliding conical cylinders (679) on the two parallel rollers (646) are arranged in opposite directions. One end of the sliding conical cylinder (679) is provided with an inclined annular surface (684). The inclined push rod (676) slides against the inclined annular surface (684).

2. The apparatus for deforming and winding multiple yarns according to claim 1, characterized in that: Two mounting arc-shaped guide plates (43) are respectively installed at the bottom of the two mounting vertical plates (41) near the end of the wire feeder (20). Each mounting arc-shaped guide plate (43) has a first rotating hole recessed in the middle of its side wall. Multiple guide rollers (44) are installed at their ends at intervals along the circumferential direction on the top of the inner wall of the two mounting arc-shaped guide plates (43). The two ends of the push threaded rotating column (45) are respectively rotatably installed in the two first rotating holes. The push motor (46) is installed on the outside of one of the mounting arc-shaped guide plates (43), and the output of the push motor (46) is... The shaft is connected to one end of the push threaded rotating column (45). The two ends of the two push guide shafts (47) are respectively installed in the middle of the inner wall of the two mounting arc-shaped guide plates (43). The two ends of the two push sliders (48) are respectively slidably installed at the two ends of the two push guide shafts (47) and are inclined inward. Each push slider (48) has a threaded hole (481) recessed in the middle. The threaded hole (481) is threadedly connected to the end wall of the push threaded rotating column (45). The bottom ends of the four push rollers (49) are respectively rotatably installed at the two ends of the top surface of the two push sliders (48).

3. The apparatus for deforming and winding multiple yarns according to claim 2, characterized in that: The bottom of the side wall of the mounting vertical plate (41) near the end of the wire feeder (20) is respectively provided with a leveling rotating hole (415) and a leveling transmission rotating hole (416). The bottom of the other end of the side wall of the mounting vertical plate (41) is respectively provided with a driving rotating hole (417) and a re-rolling transmission rotating hole (418). The top surface of the mounting horizontal plate (42) near the end of the wire feeder (20) is respectively provided with a leveling mounting groove (421). The top surface of the mounting horizontal plate (42) is respectively provided with a re-rolling rotating table (422) on both sides.

4. The apparatus for deforming and winding multiple yarns according to claim 3, characterized in that: Two leveling cylinders (51) are respectively installed in two leveling mounting slots (421). The two ends of the leveling plate (52) are respectively slidably installed in two first vertical sliding grooves (411). The output shafts of the two leveling cylinders (51) are respectively connected to the two ends of the top surface of the leveling plate (52). The two ends of the top surface of the leveling plate (52) are respectively provided with pressure roller mounting plates (521). The two ends of the leveling pressure roller (53) are respectively rotatably installed in the two pressure roller mounting plates (521). The leveling pressure roller (53) is provided with a first leveling rotating wheel (531) at one end. The two ends of the leveling rotating roller (54) are respectively rotatably installed in the leveling rotating hole ( In 415), a leveling gear (541) is provided at one end of the leveling roller (54), and the inner end of the leveling drive shaft (55) is rotatably installed in the re-rolling drive hole (418). A leveling drive gear (551) and a second leveling roller (552) are provided at the outer end of the leveling drive shaft (55). The leveling gear (541) meshes with the leveling drive gear (551). A first elastic drive belt is sleeved between the second leveling roller (552) and the first leveling roller (531) to achieve a drive connection. The drive gear (561) near the end of the yarn feeder (20) meshes with the leveling gear (541).

5. The apparatus for deforming and winding multiple yarns according to claim 4, characterized in that: The top surface of the twisting top plate (641) is provided with connecting mounting turntables (647) on both sides of one end near the yarn exiter (20). The two connecting mounting turntables (647) are rotatably connected to both ends of the push arm linkage shaft (621). The top surface of the twisting top plate (641) is provided with a pre-set groove (640), and the pre-set groove (640) is located between the two connecting mounting turntables (647). The bottom surface of the twisting bottom plate (644) is provided with an arc-shaped groove (691) in the middle. The bottom of the arc-shaped groove (691) is provided with an arc. An arc-shaped elastic guide plate (692) is provided with a regulating motor between the top of the arc-shaped elastic guide plate (692) and the bottom of the arc-shaped groove (691). The middle of the side wall of the twisting mounting vertical plate (645) is provided with multiple upper twisting rotating holes (649) at intervals along the length direction. Arc-shaped surfaces (671) are formed on both sides of the twisting mounting vertical plate (645), and the arc-shaped surfaces (671) are slidably installed in the twisting groove (413). The two twisting rollers (646) are rotatably installed in four twisting rotating holes (648) at both ends.

6. The apparatus for deforming and winding multiple yarns according to claim 5, characterized in that: The twisting roller element (65) includes multiple upper twisting rollers (651) and multiple lower twisting rollers (652). The two ends of the multiple upper twisting rollers (651) are respectively rotatably installed in multiple upper parallel rotation holes (649) of two twisting mounting vertical plates (645). The two ends of the multiple lower twisting rollers (652) are respectively rotatably installed in multiple transmission rotation holes (414) of two mounting vertical plates (41). The outer ends of the multiple lower twisting rollers (652) are respectively connected to multiple power transmission shafts (56).

7. The apparatus for deforming and winding multiple yarns according to claim 6, characterized in that: The re-rolling take-up assembly (70) includes two re-rolling cylinders (71), a re-rolling rotating shaft (72), two re-rolling crank arms (73), a drive roller (74), a winding drive motor (75), a re-rolling transmission shaft (79), a re-rolling roller (76), a take-up plate (77), and a take-up roller (78). The two re-rolling cylinders (71) are rotatably mounted in two re-rolling turntables (422), and the two ends of the re-rolling rotating shaft (72) are respectively mounted on the two mounting vertical plates (41) away from the yarn exiter (20). In the middle, the two re-rolling crank arms (73) are rotatably mounted at both ends of the re-rolling shaft (72), and the top ends of the two re-rolling crank arms (73) are rotatably connected to the output shafts of the two re-rolling cylinders (71). The two ends of the drive roller (74) are rotatably mounted in the two drive holes (417). The outer end of the drive roller (74) is provided with a drive gear (741). The drive gear (741) meshes with the transmission gear (561) at the end away from the yarn exiter (20). The winding drive motor ( 75) is installed in the winding motor mounting platform (38), and the output shaft of the winding drive motor (75) is connected to the inner end of the drive roller (74). The inner end of the re-rolling drive shaft (79) is rotatably installed in the re-rolling drive rotating hole (418). The outer end of the re-rolling drive shaft (79) is provided with a re-rolling drive gear (791) and a first re-rolling rotating wheel (792). The re-rolling drive gear (791) is meshed with the drive gear (741). The two ends of the re-rolling roller (76) are respectively installed on two re-rolling crank arms (74). 3) The bottom plate and the outer end of the re-roller (76) is provided with a second re-roller (761). A second elastic transmission belt is sleeved between the first re-roller (792) and the second re-roller (761) to realize the transmission connection. The take-up plate (77) is installed on the end of the tension control slide (35) away from the wire feeder (20). The top surface of the take-up plate (77) is provided with a take-up turntable (771) at the end away from the wire feeder (20). The take-up roller (78) is rotatably installed in the take-up turntable (771).

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