Glass fiber drawing machine with multi-beam-splitting winding displacement mechanism

Abstract

The utility model belongs to the technical field of wire drawing machines, and discloses a glass fiber wire drawing machine with a multi-bundle splitting and wire arranging mechanism, which comprises a rack, the rack is provided with a substrate, a main shaft impeller mechanism, a wire blocking mechanism, a turnover mechanism, an arranging mechanism, a forced bundle splitting mechanism and an integrated automatic yarn hanging mechanism, the arranging mechanism comprises a supporting seat, a supporting arm and a wire arranging mechanism, the wire arranging mechanism comprises a wire arranging box, an upper wire arranging guide rail, a lower wire arranging guide rail, a wire arranging base, a first beam splitting plate, a first beam splitting groove and a driving mechanism, the forced beam splitting mechanism comprises a fixing plate, a transverse moving plate, a reciprocating plate, a wire guiding shaft and a beam splitting assembly, and the beam splitting assembly comprises a square pipe, a strip-shaped groove, a rodless air cylinder, an I-shaped base, a multi-stage electric cylinder, a beam splitting support, a second beam splitting plate and a second beam splitting groove. The yarn is divided into a plurality of strands through the first beam splitting groove and the second beam splitting groove, the multiple strands of yarn are kept in a separated state all the time and do not interfere with one another to cause the phenomena of crossing, stranding and the like, the TEX number is stable, and the yarn forming effect is guaranteed.

Description

TECHNICAL FIELD

[0001] The utility model relates to glass fiber drawing machine technical field, especially in kind of multi -split beam wire arrangement mechanism glass fiber drawing machine. BACKGROUND

[0002] Glass fiber drawing machine is a kind of mechanical equipment that high-speed glass melt is drawn into fiber and is wound into fiber yarn according to certain rule.

[0003] When drawing yarn, the yarn is wound on the reel on the impeller by the rotation of the main shaft impeller mechanism and the reciprocating movement of the arrangement mechanism.The arrangement mechanism includes reciprocating mechanism, transverse mechanism and wire arrangement mechanism, the yarn is wound uniformly on the reel by the reciprocating movement of the wire arrangement mechanism along the length direction of the reel driven by the reciprocating mechanism, and the wire arrangement mechanism is moved transversely driven by the transverse mechanism as the yarn increases.But at present, in the ply yarn glass fiber drawing machine, the wire arrangement component of the wire arrangement mechanism is wire arrangement steel wire, which is mainly driven by the motor to rotate the wire arrangement shaft with the wire arrangement steel wire to arrange the yarn, and the yarn will cross each other in the process of arranging the yarn, causing the ply phenomenon, which will also cause the unstable TEX number, resulting in the undesirable yarn forming. SUMMARY

[0004] In order to solve the above problems, the utility model provides a kind of multi -split beam wire arrangement mechanism glass fiber drawing machine.

[0005] The above technical purpose of the utility model is realized by the following technical scheme: a kind of multi -split beam wire arrangement mechanism glass fiber drawing machine, including rack, the rack is provided with base plate, main shaft impeller mechanism, fender mechanism, turnover mechanism, arrangement mechanism, forced split beam mechanism, integral type automatic hanging yarn mechanism, the arrangement mechanism includes the support seat being set in the rack, the support arm is slidably arranged on the support seat along the length direction perpendicular to the main shaft impeller mechanism, the base plate is provided with the through hole for the support arm to pass through and slide transversely, one end of the support arm extending to the base plate is provided with wire arrangement mechanism, the wire arrangement mechanism includes the wire arrangement box being set in the end of support arm, the wire arrangement box is open near the side of main shaft impeller mechanism, the wire arrangement box is located at the upper and lower sides of opening and is respectively provided with upper wire arrangement guide rail and lower wire arrangement guide rail, a plurality of wire arrangement seats are slidably arranged between the upper wire arrangement guide rail and the lower wire arrangement guide rail, the first split beam plate is arranged on the wire arrangement seat and extends to the direction of main shaft impeller mechanism, a plurality of first split beam grooves are formed in the first split beam plate, and the drive mechanism for driving the wire arrangement seat to move along the wire arrangement guide rail is arranged in the wire arrangement box.

[0006] By adopting the technical scheme, the first beam splitter plate and the first beam splitter groove are arranged in the wire arranging mechanism, the yarn can be divided into several strands through the first beam splitter groove, the several strands of yarn are divided in the several first beam splitter grooves, and the several strands of yarn can be kept in a separated state during the operation of the drawing machine, so that the yarn is not interfered to cause crossing and plying, the TEX number is stable, and the yarn forming effect is ensured.

[0007] Further, two horizontal sliding rails perpendicular to the length direction of the main shaft impeller mechanism are arranged at the top of the support base, two connecting seats are arranged at the bottom of the support arm, the connecting seats are slidingly arranged on the horizontal sliding rails, a first horizontal movement linear motor stator is further arranged between the two horizontal sliding rails at the top of the support base, a mounting seat is arranged between the two connecting seats at the bottom of the support arm, and a first horizontal movement linear motor rotor is arranged at the bottom of the mounting seat.

[0008] By adopting the technical scheme, the horizontal sliding rails, the connecting seats, the mounting seat, the first horizontal movement linear motor stator and the first horizontal movement linear motor rotor are arranged, the support arm can slide on the support base through the horizontal sliding rails and the connecting seats, and the first horizontal movement linear motor stator and the first horizontal movement linear motor rotor are matched to provide power for the sliding of the support arm on the support base.

[0009] Further, the drive mechanism comprises a wire arranging linear motor stator shaft arranged in the wire arranging box, a plurality of wire arranging linear motor rotor sleeves are slidingly arranged on the wire arranging linear motor stator shaft, the number of the wire arranging linear motor rotor sleeves is consistent with the number of the wire arranging seats, two fixed rings are arranged at intervals on the wire arranging linear motor rotor sleeve, the connecting block is arranged on the wire arranging seat and protrudes towards the wire arranging linear motor rotor sleeve, and the horizontal width of the connecting block is consistent with the distance between the two fixed rings.

[0010] By adopting the technical scheme, the wire arranging linear motor stator shaft and the wire arranging linear motor rotor sleeve are arranged, the wire arranging linear motor rotor sleeve moves linearly relative to the wire arranging linear motor stator shaft, the fixed ring and the connecting block are arranged to connect the wire arranging seat and the wire arranging linear motor rotor sleeve in the axial direction, and the wire arranging seat is driven to move on the upper wire arranging guide rail and the lower wire arranging guide rail through the cooperation of the wire arranging linear motor stator shaft and the wire arranging linear motor rotor sleeve.

[0011] Further, the outer side of the upper wire arranging guide rail is provided with a protective plate, the top of the protective plate is connected with the wire arranging box, and the bottom edge of the protective plate is arranged near the root of the first beam splitter groove of the first beam splitter plate.

[0012] By adopting the technical scheme, the protective plate is arranged to shield the opening of the wire arranging box and the upper wire arranging guide rail, so that the yarn is prevented from entering the wire arranging box.

[0013] Further, the first beam splitter is provided below the pressure rod, and the lower wire guide rail is provided with mounting blocks at both ends of the pressure rod, and the pressure rod is rotatably arranged on the mounting blocks, and the lower wire guide rail is provided with a plurality of supporting blocks below the lower part of the pressure rod.

[0014] By adopting the above technical scheme, the pressure rod, the mounting block and the supporting block are arranged, the mounting block and the supporting block are used for mounting and supporting the pressure rod, and the pressure rod is used for resisting the yarn and rolling with the yarn to reduce the friction.

[0015] Further, the forced beam splitting mechanism comprises a fixed plate arranged on the top of the rack, two transverse sliding rails are arranged on the fixed plate in a spaced manner, the length direction of the transverse sliding rail is perpendicular to the length direction of the main shaft impeller mechanism, a transverse plate is slidably arranged on the two transverse sliding rails, a second transverse linear motor stator is arranged between the two transverse sliding rails on the fixed plate, a second transverse linear motor mover is arranged on the bottom of the transverse plate in a corresponding manner, two reciprocating sliding rails are arranged on the transverse plate in a spaced manner, the length direction of the reciprocating sliding rail is perpendicular to the length direction of the transverse sliding rail, a reciprocating plate is slidably arranged on the two reciprocating sliding rails, a reciprocating linear motor stator is arranged between the two reciprocating sliding rails on the transverse plate, a reciprocating linear motor mover is arranged on the bottom of the reciprocating plate in a corresponding manner, a wire guide shaft is arranged on the reciprocating plate, a strip-shaped hole is arranged on the base plate for the wire guide shaft to pass through and slide transversely, and a beam splitting assembly is arranged on one end of the wire guide shaft extending out of the base plate.

[0016] By adopting the above technical scheme, the fixed plate, the transverse sliding rail, the transverse plate, the second transverse linear motor stator, the second transverse linear motor mover, the reciprocating sliding rail, the reciprocating plate, the reciprocating linear motor stator, the reciprocating linear motor stator and the beam splitting assembly are arranged, the beam splitting assembly is driven to move transversely and reciprocally through the cooperation of the second transverse linear motor stator and the second transverse linear motor mover and the reciprocating linear motor stator and the reciprocating linear motor stator, and the beam splitting assembly is arranged on one end of the wire guide shaft extending out of the base plate.

[0017] Further, the beam splitting assembly comprises a square tube arranged at the end of the wire guide shaft, a strip-shaped groove is vertically arranged on one side plate of the wire guide shaft near the wire guide mechanism, a rodless cylinder is vertically arranged in the square tube, a I-shaped seat is arranged on the sliding block of the rodless cylinder, two wing plates of the connecting seat are respectively arranged on both sides of the side plate of the square tube near the wire guide mechanism, and the web plate penetrates through the strip-shaped groove, a multi-stage electric cylinder is arranged on one side of the square tube outside the connecting seat, a beam splitting support is arranged at the lower end of the multi-stage electric cylinder, a plurality of second beam splitters are arranged on the beam splitting support, a plurality of second beam splitting grooves are arranged on the second beam splitters, and the second beam splitters and the second beam splitting grooves are one-to-one corresponding to the first beam splitters and the first beam splitting grooves.

[0018] By adopting the technical scheme, the square tube, the strip-shaped groove, the rodless air cylinder, the I-shaped seat, the multi-stage electric cylinder, the beam splitting support, the second beam splitting plate, the second beam splitting groove, the second beam splitting plate and the second beam splitting groove are used for corresponding cooperation with the first beam splitting plate and the first beam splitting groove to split the yarn into strands, and the rodless air cylinder, the I-shaped seat and the multi-stage electric cylinder are used for driving the beam splitting support to move up and down.

[0019] In conclusion, the utility model has the following beneficial effects: in the application, the yarn can be split into several strands through the first beam splitting groove and the second beam splitting groove, so that the several strands of yarn can be kept in a separated state during the operation of the wire drawing machine, and the crossing and stranding of the yarn can be avoided, the TEX number is stable, and the yarn forming effect is ensured. BRIEF DESCRIPTION OF DRAWINGS

[0020] Figure 1 is the overall structure schematic diagram of the initial state of the embodiment of the utility model;

[0021] Figure 2 is the overall structure schematic diagram of the multi-stage electric cylinder in the extended state of the embodiment of the utility model;

[0022] Figure 3 is the overall structure schematic diagram of the wire drawing state of the embodiment of the utility model;

[0023] Figure 4 is the overall structure schematic diagram of the arrangement mechanism of the embodiment of the utility model;

[0024] Figure 5 is the structure schematic diagram of the wire arranging mechanism of the embodiment of the utility model;

[0025] Figure 6 is the overhead view of the wire arranging mechanism of the embodiment of the utility model after hiding the wire arranging box;

[0026] Figure 7 is Figure 4 the enlarged schematic diagram of A of

[0027] Figure 8 is the structure schematic diagram of the forced beam splitting mechanism of the embodiment of the utility model;

[0028] Figure 9 is the enlarged schematic diagram of B of Figure 6 ;

[0029] Figure 10 is the structure schematic diagram of the beam splitting assembly of the embodiment of the utility model after hiding the square tube.

[0030] In the diagram: 10. Frame; 11. Base plate; 12. Main shaft impeller mechanism; 13. Wire blocking mechanism; 14. Tilting mechanism; 15. Arrangement mechanism; 16. Forced yarn splitting mechanism; 17. Integrated automatic yarn hanging mechanism; 18. Through hole; 19. Strip hole; 20. Support base; 21. Support arm; 22. Horizontal slide rail; 23. Connecting seat; 24. First transverse linear motor stator; 25. Mounting seat; 26. First transverse linear motor mover; 30. Wire laying mechanism; 31. Wire laying box; 32. Upper wire laying guide rail; 33. Lower wire laying guide rail; 34. Wire laying seat; 35. First yarn splitting plate; 36. First yarn splitting groove; 37. Connecting block; 38. Protective plate; 39. Pressure rod 391. Mounting block; 392. Support block; 40. Drive mechanism; 41. Stator shaft of linear motor; 42. Mover sleeve of linear motor; 43. Fixing ring; 50. Fixing plate; 51. Transverse slide rail; 52. Transverse plate; 53. Stator of second transverse linear motor; 54. Mover of second transverse linear motor; 55. Reciprocating slide rail; 56. Reciprocating plate; 57. Stator of reciprocating linear motor; 58. Mover of reciprocating linear motor; 59. Guide wire shaft; 60. Bundle assembly; 61. Square tube; 62. Strip groove; 63. Rodless cylinder; 64. I-beam base; 65. Multi-stage electric cylinder; 66. Bundle bracket; 67. Second bundle plate; 68. Second bundle groove. Detailed Implementation

[0031] The technical solutions in the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, and not all embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of this application without creative effort are within the scope of protection of this application.

[0032] like Figures 1-10 As shown in the embodiment of this application, a multi-bundle yarn laying mechanism 30 glass fiber drawing machine is disclosed, including a frame 10. The frame 10 is provided with a base plate 11, a main shaft impeller mechanism 12, a yarn blocking mechanism 13, a flipping mechanism 14, a arranging mechanism 15, a forced bundling mechanism 16, and an integrated automatic yarn hanging mechanism 17.

[0033] Specifically, the arrangement mechanism 15 comprises a support base 20 arranged in the rack 10, a support arm 21 is arranged on the support base 20 and horizontally slides along a direction perpendicular to the length direction of the main shaft impeller mechanism 12, and a through hole 18 for the support arm 21 to pass through and horizontally slide is arranged on the base plate 11. When arranged, two horizontal sliding rails 22 perpendicular to the length direction of the main shaft impeller mechanism 12 are arranged at the top of the support base 20, a sliding block is arranged on the horizontal sliding rail 22, two connecting bases 23 are correspondingly arranged at the bottom of the support arm 21, the connecting bases 23 are fixedly connected with the sliding block, so that the support arm 21 can slide on the horizontal sliding rail 22 of the support base 20. A first transverse moving linear motor stator 24 is further arranged at the top of the support base 20 between the two horizontal sliding rails 22, a mounting base 25 is arranged at the bottom of the support arm 21 between the two connecting bases 23, and a first transverse moving linear motor mover 26 is correspondingly arranged at the bottom of the mounting base 25. Through cooperation of the first transverse moving linear motor stator 24 and the first transverse moving linear motor mover 26, the support arm 21 can be driven to slide on the horizontal sliding rail 22 of the support base 20.

[0034] A yarn arranging mechanism 30 is arranged at one end of the support arm 21 extending out of the base plate 11, the yarn arranging mechanism 30 comprises a yarn arranging box 31 arranged at the end of the support arm 21, the yarn arranging box 31 is open near one side of the main shaft impeller mechanism 12, upper and lower yarn arranging guide rails 32 and 33 are arranged at the upper and lower sides of the opening of the yarn arranging box 31, and a plurality of yarn arranging bases 34 are arranged to slide between the upper and lower yarn arranging guide rails 32 and 33. A first dividing plate 35 extending towards the main shaft impeller mechanism 12 is arranged on the yarn arranging base 34, a plurality of first dividing grooves 36 are formed in the first dividing plate 35, and the first dividing grooves 36 are used to divide the yarn into a plurality of strands and ensure that the yarn strands do not interfere with each other when the yarn is drawn.

[0035] A protective plate 38 is arranged outside the upper yarn arranging guide rail 32, the top of the protective plate 38 is connected with the yarn arranging box 31, the bottom edge of the protective plate 38 is arranged near the root of the first dividing groove 36 of the first dividing plate 35, and the protective plate 38 is used to protect the opening of the yarn arranging box 31 and the upper yarn arranging guide rail 32. A pressing rod 39 is further arranged below the first dividing plate 35, mounting blocks 391 are correspondingly arranged at the ends of the pressing rod 39 at the two ends of the lower yarn arranging guide rail 33, the ends of the pressing rod 39 are rotatably arranged on the mounting blocks 391, and a plurality of supporting blocks 392 are arranged below the lower yarn arranging guide rail 33. The pressing rod 39 is used to abut against and roll with the yarn to reduce friction, and the supporting blocks 392 are used to support the rod body of the pressing rod 39 to prevent the pressing rod 39 from being bent and deformed.

[0036] A driving mechanism 40 is arranged in the wire arranging box 31 to drive the wire arranging seats 34 to move along the wire arranging rails. Specifically, the driving mechanism 40 comprises a wire arranging linear motor stator shaft 41 arranged in the wire arranging box 31, a plurality of wire arranging linear motor mover sleeves 42 are slidingly arranged on the wire arranging linear motor stator shaft 41, the number of the wire arranging linear motor mover sleeves 42 is consistent with the number of the wire arranging seats 34, and the wire arranging linear motor mover sleeves 42 can slide on the wire arranging linear motor stator shaft 41 under the cooperation of the wire arranging linear motor stator shaft 41 and the wire arranging linear motor mover sleeves 42. Two fixed rings 43 are arranged on the wire arranging linear motor mover sleeves 42 at intervals, the connecting blocks 37 are arranged on the wire arranging seats 34 in the direction of the wire arranging linear motor mover sleeves 42, the connecting blocks 37 are arranged between the two fixed rings 43, and the horizontal width of the connecting blocks 37 is consistent with the distance between the two fixed rings 43. In this way, the wire arranging seats 34 and the wire arranging linear motor mover sleeves 42 can be connected together, so as to drive the wire arranging seats 34 to slide on the upper wire arranging rail 32 and the lower wire arranging rail 33, and further drive the first beam splitting plate 35 and the first beam splitting groove 36 to reciprocate.

[0037] The forced beam splitting mechanism 16 comprises a fixed plate 50 arranged at the top of the rack 10, two transverse sliding rails 51 are arranged on the fixed plate 50 at intervals, the length direction of the transverse sliding rails 51 is perpendicular to the length direction of the main shaft impeller mechanism 12, a transverse plate 52 is slidingly arranged on the two transverse sliding rails 51, a second transverse linear motor stator 53 is arranged between the two transverse sliding rails 51 on the fixed plate 50, a second transverse linear motor mover 54 is arranged at the bottom of the transverse plate 52 correspondingly, and the transverse plate 52 is driven to move transversely on the fixed plate 50 along the transverse sliding rails 51 under the cooperation of the second transverse linear motor stator 53 and the second transverse linear motor mover 54.

[0038] Two reciprocating sliding rails 55 are arranged on the transverse plate 52 at intervals, the length direction of the reciprocating sliding rails 55 is perpendicular to the length direction of the transverse sliding rails 51, a reciprocating plate 56 is slidingly arranged on the two reciprocating sliding rails 55, a reciprocating linear motor stator 57 is arranged between the two reciprocating sliding rails 55 on the transverse plate 52, a reciprocating linear motor mover 58 is arranged at the bottom of the reciprocating plate 56 correspondingly, and the reciprocating plate 56 is driven to move reciprocally on the transverse plate 52 along the reciprocating sliding rails 55 under the cooperation of the reciprocating linear motor stator 57 and the reciprocating linear motor mover.

[0039] The reciprocating plate 56 is provided with a wire guide shaft 59, the base plate 11 is provided with a strip-shaped hole 19 through which the wire guide shaft 59 passes and slides transversely, and an end of the wire guide shaft 59 extending out of the base plate 11 is provided with a beam splitting assembly 60. The beam splitting assembly 60 includes a square tube 61 arranged at the end of the wire guide shaft 59, a strip-shaped groove 62 vertically arranged on a side plate of the wire arranging mechanism 30 adjacent to the square tube 61, and a brush strip arranged at the strip-shaped groove 62, which is used to prevent foreign matter from entering the square tube 61. A rodless air cylinder 63 is vertically arranged in the square tube 61, a I-shaped seat 64 is arranged on a sliding block of the rodless air cylinder 63, two wings of the I-shaped seat 64 are respectively arranged on two sides of the side plate of the wire arranging mechanism 30 adjacent to the square tube 61, and a web penetrates through the strip-shaped groove 62, so that the I-shaped seat 64 is driven by the rodless air cylinder 63 to move up and down along the strip-shaped groove 62. A multi-stage electric cylinder 65 is arranged on a side of the square tube 61, a beam splitting bracket 66 is arranged at a lower end of the multi-stage electric cylinder 65, and the multi-stage electric cylinder 65 can drive the beam splitting bracket 66 to move up and down. A plurality of second beam splitting plates 67 are arranged on the beam splitting bracket 66, a plurality of second beam splitting grooves 68 are arranged on the second beam splitting plates 67, and the second beam splitting plates 67 and the second beam splitting grooves 68 correspond to the first beam splitting plates 35 and the first beam splitting grooves 36 respectively.

[0040] The use principle of the multi-beam wire arranging mechanism 30 of the glass fiber drawing machine in the embodiment is as follows: during yarn drawing, the beam splitting bracket 66 of the forced beam splitting mechanism 16 is located below, the yarn is located in the second beam splitting grooves 68 of the second beam splitting plates 67 of the forced beam splitting mechanism 16 and the first beam splitting grooves 36 of the first beam splitting plates 35 of the wire arranging mechanism 30, and the yarn is split and kept in the grooves through the first beam splitting grooves 36 and the second beam splitting grooves 68, so that the yarns do not interfere with each other during yarn drawing, and the situation that the yarns are combined can be effectively avoided. The forced beam splitting mechanism 16 and the wire arranging mechanism 30 simultaneously perform transverse movement and reciprocating movement as the yarn mass continuously increases, so as to ensure that the yarns are split into several strands and each strand of yarn is always in the beam splitting groove, the beam splitting rate can reach 100%, the yarns are not adhered to each other, the TEX number is stable, the shape of the yarn can be columnar yarn, the yarn forming effect is good, and the quality of the product is high.

[0041] After the yarn drawing operation is completed, the reversing mechanism 14 is actuated to exchange the positions of the working spindle impeller mechanism 12 and the standby spindle impeller mechanism 12. At this time, the beam splitter bracket 66 on the forced beam splitter mechanism 16 is lifted to the uppermost end with the rodless cylinder 63, and the yarn is pushed to the yarn winding ring at the front end of the spindle impeller mechanism 12 by the yarn blocking mechanism 13. After the spindle impeller mechanism 12 completes the yarn grabbing, the yarn blocking rod of the yarn blocking mechanism 13 is retracted. At this time, the rodless cylinder 63 of the forced beam splitter mechanism 16 drives the I-shaped seat 64 and the multi-stage cylinder 65 to descend to the lowermost end. In the process of descending, the multi-stage cylinder 65 is extended to lower the second beam splitter plate 67 of the beam splitter bracket 66 to a position close to the first beam splitter plate 35. The wire arranging mechanism 30 is transversely moved to make the yarns separated by the second beam splitter groove 68 of the second beam splitter plate 67 enter the first beam splitter groove 36 of the first beam splitter plate 35 of the wire arranging mechanism 30 in correspondence. Then, the I-shaped seat 64 drives the multi-stage cylinder 65 to ascend to the working position, and the multi-stage cylinder 65 is retracted to drive the beam splitter bracket 66 to ascend, and a new round of yarn drawing operation is performed.

[0042] The preferred embodiments of the present application have been described above, but the protection scope of the present application is not limited to the above-mentioned embodiments. Any technical solutions falling within the concept of the present application shall fall within the protection scope of the present application. It should be noted that, for ordinary skilled persons in the technical field, some improvements and decorations without departing from the principles of the present application shall also be considered as falling within the protection scope of the present application.

Claims

1. A glass fiber drawing machine with a multi-bundle winding mechanism, characterized in that: The system includes a frame (10), on which a base plate (11), a main shaft impeller mechanism (12), a yarn-blocking mechanism (13), a flipping mechanism (14), a yarn-arranging mechanism (15), a forced yarn-splitting mechanism (16), and an integrated automatic yarn-hanging mechanism (17) are provided. The yarn-arranging mechanism (15) includes a support base (20) disposed within the frame (10). A support arm (21) is horizontally slidably disposed on the support base (20) along the length direction perpendicular to the main shaft impeller mechanism (12). A through hole (18) is provided on the base plate (11) for the support arm (21) to pass through and slide laterally. A yarn-laying mechanism (30) is provided at one end of the support arm (21) extending outside the base plate (11). 30) Includes a cable tray (31) disposed at the end of the support arm (21). The cable tray (31) is open on the side near the main shaft impeller mechanism (12). The upper cable tray (32) and lower cable tray (33) are respectively disposed on the upper and lower sides of the opening of the cable tray (31). A plurality of cable tray seats (34) are slidably disposed between the upper cable tray (32) and the lower cable tray (33). A first splitting plate (35) extending towards the main shaft impeller mechanism (12) is disposed on the cable tray seat (34). A plurality of first splitting slots (36) are opened on the first splitting plate (35). A drive mechanism (40) for driving the cable tray seat (34) to move along the cable tray is disposed inside the cable tray (31).

2. The glass fiber drawing machine with a multi-bundle winding mechanism according to claim 1, characterized in that: The top of the support base (20) is provided with two horizontal slide rails (22) perpendicular to the length direction of the main shaft impeller mechanism (12). The bottom of the support arm (21) is provided with two connecting seats (23). The connecting seats (23) are slidably mounted on the horizontal slide rails (22). The top of the support base (20) is also provided with a first transverse linear motor stator (24) between the two horizontal slide rails (22). The bottom of the support arm (21) is provided with a mounting seat (25) between the two connecting seats (23). The bottom of the mounting seat (25) is correspondingly provided with a first transverse linear motor mover (26).

3. The glass fiber drawing machine with a multi-bundle winding mechanism according to claim 1, characterized in that: The drive mechanism (40) includes a stator shaft (41) of a linear motor disposed in a cable box (31). A plurality of moving sleeves (42) of the linear motor are slidably disposed on the stator shaft (41). The number of moving sleeves (42) of the linear motor is the same as the number of cable holders (34). Two fixing rings (43) are spaced apart on the moving sleeves (42). A connecting block (37) is provided on the cable holder (34) protruding toward the moving sleeves (42). The connecting block (37) is placed between the two fixing rings (43) and the horizontal width of the connecting block (37) is the same as that between the two fixing rings (43).

4. The glass fiber drawing machine with a multi-bundle winding mechanism according to claim 1, characterized in that: A protective plate (38) is provided on the outside of the upper cable guide rail (32). The top of the protective plate (38) is connected to the cable box (31), and the bottom edge is arranged near the root of the first bundle slot (36) of the first bundle plate (35).

5. A glass fiber drawing machine with a multi-bundle winding mechanism according to claim 1, characterized in that: Below the first beam splitter (35), a pressure rod (39) is also provided. At both ends of the lower cable guide rail (33), mounting blocks (391) are provided corresponding to the ends of the pressure rod (39). The two ends of the pressure rod (39) are rotatably mounted on the mounting blocks (391). At the lower part of the pressure rod (39), the lower cable guide rail (33) is also provided with several support blocks (392).

6. A glass fiber drawing machine with a multi-bundle winding mechanism according to claim 1, characterized in that: The forced beam splitting mechanism (16) includes a fixed plate (50) disposed on the top of the frame (10). Two transverse slide rails (51) are spaced apart on the fixed plate (50). The length direction of the transverse slide rails (51) is perpendicular to the length direction of the main shaft impeller mechanism (12). A transverse plate (52) is slidably disposed on the two transverse slide rails (51). A second transverse linear motor stator (53) is disposed between the two transverse slide rails (51) on the fixed plate (50). A second transverse linear motor mover (54) is disposed correspondingly at the bottom of the transverse plate (52). Two reciprocating slide rails (55) are spaced apart on the transverse plate (52). The length direction of the reciprocating slide rail (55) is perpendicular to the length direction of the transverse slide rail (51). The two reciprocating slide rails (55) are slidably provided with reciprocating plates (56). The transverse plate (52) is located between the two reciprocating slide rails (55) and a reciprocating linear motor stator (57) is provided. The bottom of the reciprocating plate (56) is provided with a reciprocating linear motor mover (58). The reciprocating plate (56) is provided with a guide shaft (59). The base plate (11) is provided with a strip hole (19) for the guide shaft (59) to pass through and slide laterally. The end of the guide shaft (59) extending outside the base plate (11) is provided with a bundle splitting assembly (60).

7. A glass fiber drawing machine with a multi-bundle winding mechanism according to claim 6, characterized in that: The bundle splitting assembly (60) includes a square tube (61) disposed at the end of the guide wire shaft (59). A strip groove (62) is vertically opened on one side plate of the square tube (61) near the wire laying mechanism (30). A rodless cylinder (63) is vertically disposed inside the square tube (61). An I-shaped seat (64) is disposed on the slider of the rodless cylinder (63). The two wing plates of the I-shaped seat (64) are respectively placed on both sides of the side plate of the square tube (61) near the wire laying mechanism (30), and the web plate is penetrated by a strip. The I-shaped base (64) is located on the outside of the square tube (61) and is equipped with a multi-stage electric cylinder (65). The lower end of the multi-stage electric cylinder (65) is equipped with a beam splitting bracket (66). The beam splitting bracket (66) is equipped with a plurality of second beam splitting plates (67). The second beam splitting plates (67) are provided with a plurality of second beam splitting slots (68). The second beam splitting plates (67) and the second beam splitting slots (68) correspond one-to-one with the first beam splitting plate (35) and the first beam splitting slot (36), respectively.

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