Wire arrangement reciprocating type multi-station multi-variety glass fiber twisted yarn drawing machine

Abstract

The invention belongs to the technical field of wire drawing machines, and discloses a wire arrangement reciprocating type multi-station multi-variety glass fiber twisted yarn wire drawing machine which comprises a rack and a base plate arranged on the side face of the rack, an upper mounting hole and a lower mounting hole are formed in the base plate in a staggered mode, a rotating disc is arranged in the mounting holes, and two main shaft impeller mechanisms are arranged on the rotating disc. Two groups of turnover mechanisms respectively used for driving the two turntables to rotate are arranged in the rack, forced beam splitting mechanisms, wire blocking mechanisms, arranging mechanisms and water pipe mechanisms are correspondingly arranged on the rack and positioned beside the upper and lower turntables, and an automatic wire guiding and loading mechanism is arranged at the lower part of the rack in a sliding manner along the width direction of the rack. An upper wire drawing station and a lower wire drawing station are formed, two groups of yarns do not interfere with each other when being drawn at the same time, not only can a high-flow bushing be adapted, but also the yield of yarn balls can be increased, and two different varieties of yarns can be drawn at the same time by controlling different rotating speeds of the main shaft impeller mechanisms in the upper wire drawing station and the lower wire drawing station so as to meet the requirements of multi-variety production.

Description

Technical Field

[0001] This invention relates to the field of glass fiber drawing technology, and in particular to a multi-station, multi-variety glass fiber ply yarn drawing machine with reciprocating winding. Background Technology

[0002] Glass fiber filament yarn is a high-performance material made by twisting multiple strands of glass fiber together and then drawing them. It is often used in components for construction, electronics, aerospace and other fields. The glass fiber drawing machine is the core equipment for producing filament yarn. Its main function is to draw molten glass into fine fibers at high speed, and then wind them into yarn rolls according to a certain pattern.

[0003] Currently, mainstream fiberglass yarn drawing machines on the market employ a dual-spindle and dual-impeller design, switching between them via a flipping mechanism. Only one die head operates during drawing, resulting in low flow rate and low capacity for the matching spinneret. Because only one die head operates, producing multi-section drawn products necessitates increasing the length of the die head, thus increasing the overall length of the drawing machine. Furthermore, each drawing machine can only correspond to one spinneret, leading to an increase in the floor space occupied by the drawing station on the production line. The limited number of spinnerets increases the company's production line construction costs, hinders overall production capacity increases, and makes it difficult to meet the actual needs of companies expanding production. Summary of the Invention

[0004] To address the aforementioned problems, this invention provides a reciprocating multi-station multi-variety glass fiber ply yarn drawing machine.

[0005] The above-mentioned technical objective of the present invention is achieved through the following technical solution: a multi-station, multi-variety glass fiber ply yarn drawing machine with reciprocating winding, comprising a frame and a base plate disposed on the side of the frame. The base plate has two staggered mounting holes, each containing a turntable. Two sets of main shaft impeller mechanisms are disposed on the turntables. Two sets of flipping mechanisms for driving the two turntables to rotate are disposed within the frame. A forced bundling mechanism, a yarn-blocking mechanism, a yarn-arranging mechanism, and a water pipe mechanism are correspondingly disposed on the frame beside the upper and lower turntables. The yarn-arranging mechanism includes a transverse moving component disposed within the frame, a reciprocating component slidably disposed on the transverse moving component along the width of the frame, and a winding component slidably disposed on the reciprocating component along the length of the frame. The water pipe mechanism includes a diversion shaft that penetrates the base plate. An inner water pipe and an outer water pipe are located at the outer end of the diversion shaft. An outer plug is located at the end of the outer water pipe furthest from the diversion shaft. The inner water pipe is located inside the outer water pipe, and its end furthest from the diversion shaft passes through the outer plug and is equipped with a changing nozzle. Several wiring nozzles communicating with its cavity and facing the wiring assembly are provided on the wall of the outer water pipe. An inner water channel and an outer water channel are also provided within the diversion shaft, respectively communicating with the cavity of the inner water pipe and the cavity of the inner and outer water pipes. An inner connector and an outer connector, respectively communicating with the inner and outer water channels, are located at the inner end of the diversion shaft. An automatic yarn feeding mechanism is slidably installed at the lower part of the frame along its width direction. This automatic yarn feeding mechanism is used to cooperate with the main shaft impeller mechanism in the upper and lower turntables to feed yarn.

[0006] Furthermore, the forced beam splitting mechanism, wire blocking mechanism, arrangement mechanism, and water pipe mechanism corresponding to the upper and lower turntables are all located on the left side of the turntable.

[0007] Furthermore, the forced beam splitting mechanism, wire blocking mechanism, arranging mechanism, and water pipe mechanism corresponding to the upper and lower turntables are arranged on opposite sides.

[0008] Furthermore, the transverse movement assembly includes a fixed base disposed within the frame, two transverse slide rails spaced apart on the fixed base along the width direction of the frame, a transverse seat slidably disposed on the two transverse slide rails, a transverse lead screw rotatably disposed on the fixed base and aligned with the width direction of the frame, and a transverse motor disposed on the fixed base. A transverse nut seat is helically disposed on the transverse lead screw, the top of the transverse nut seat is fixedly connected to the bottom of the transverse seat, a driven wheel is disposed at one end of the transverse lead screw, and a driving wheel is disposed on the drive shaft of the transverse motor. The driving wheel and the driven wheel are connected by a synchronous belt.

[0009] Furthermore, the transverse base is provided with two reciprocating slide rails that are aligned with the length direction of the frame. The reciprocating assembly includes a reciprocating seat that is slidably mounted on the two reciprocating slide rails. A reciprocating lead screw that is aligned with the length direction of the frame is also rotatably mounted on the transverse base. A reciprocating nut seat is helically mounted on the reciprocating lead screw. The side of the reciprocating nut seat is fixedly connected to the side of the reciprocating seat. One end of the reciprocating lead screw is connected to a reciprocating motor via a coupling.

[0010] Furthermore, the wiring assembly includes a fixed tube disposed on the reciprocating seat, a crank arm disposed at one end of the fixed tube passing through the base plate, a swing plate arranged at intervals with the crank arm, a retaining shaft and a wiring shaft disposed between the crank arm and the swing plate, the retaining shaft and the wiring shaft being arranged parallel to each other and the wiring shaft being arranged adjacent to the corresponding main shaft impeller mechanism, and a plurality of wiring steel wires being disposed on the wiring shaft.

[0011] Furthermore, a drive shaft is rotatably installed inside the fixed tube, and a cable-laying motor is installed at the rear end of the fixed tube. The cable-laying motor is connected to the drive shaft via a coupling. A quick-release shaft is provided at the front end of the drive shaft, and a transmission sleeve is provided at the front end of the quick-release shaft. A rotating sleeve is provided on the swing plate, and a self-adjusting bearing is provided inside the rotating sleeve. The rear end of the cable-laying shaft is fixed inside the transmission sleeve, and the front end is fixed inside the self-adjusting bearing.

[0012] Furthermore, a water baffle is obliquely arranged on the outer side of the substrate between the upper and lower turntables.

[0013] In summary, the present invention has the following beneficial effects: This application provides two mounting holes and a turntable, forming two drawing stations, one above the other. It is equipped with a flipping mechanism, a main shaft impeller mechanism, a forced yarn splitting mechanism, a yarn blocking mechanism, a yarn arrangement mechanism, a water pipe mechanism, and an automatic yarn feeding mechanism. This allows the two drawing stations to perform drawing operations independently, ensuring that the two yarns are drawn simultaneously without interference. This not only adapts to high-flow spindles but also increases yarn production without increasing the overall length of the drawing machine, reducing the production line's footprint and improving the drawing machine's volumetric efficiency. Furthermore, by controlling the different rotational speeds of the main shaft impeller mechanisms in the two drawing stations, two different types of yarn can be drawn simultaneously to meet the needs of multi-variety production. Attached Figure Description

[0014] Figure 1 This is a schematic diagram of the overall structure of Embodiment 1 of the present invention; Figure 2 This is a front structural diagram of Embodiment 1 of the present invention; Figure 3 This is a front structural schematic diagram of another arrangement of Embodiment 1 of the present invention; Figure 4 This is a schematic diagram of the arrangement mechanism in Embodiment 1 of the present invention; Figure 5 This is a structural schematic diagram of the transverse and reciprocating components according to an embodiment of the present invention; Figure 6 This is a cross-sectional structural diagram of the cable assembly according to an embodiment of the present invention; Figure 7 This is a schematic diagram of the water pipe mechanism according to an embodiment of the present invention; Figure 8 This is a cross-sectional structural schematic diagram of the water pipe mechanism according to an embodiment of the present invention; Figure 9 This is a front structural diagram of Embodiment 2 of the present invention.

[0015] In the diagram: 10. Frame; 11. Base plate; 12. Mounting hole; 13. Turntable; 14. Water baffle; 20. Main shaft impeller mechanism; 30. Tilting mechanism; 40. Forced bundle splitting mechanism; 50. Wire blocking mechanism; 60. Arrangement mechanism; 61. Transverse component; 611. Fixed seat; 612. Transverse slide rail; 613. Transverse seat; 614. Transverse lead screw; 615. Transverse motor; 616. Transverse nut seat; 617. Driven wheel; 618. Driving wheel; 619. Synchronous belt; 62. Reciprocating component; 621. Reciprocating slide rail; 622. Reciprocating seat; 623. Reciprocating lead screw; 624. Reciprocating nut seat; 625. 63. Reciprocating motor; 631. Cable assembly; 632. Fixed tube; 633. Crank arm; 633. Swing plate; 6331. Rotating sleeve; 6332. Self-adjusting bearing; 634. Holding shaft; 635. Cable shaft; 636. Cable wire; 637. Drive shaft; 6371. Quick release shaft; 6372. Drive sleeve; 638. Cable motor; 70. Water pipe mechanism; 71. Diverter shaft; 711. Inner water channel; 712. Outer water channel; 713. Inner connector; 714. Outer connector; 72. Inner water pipe; 73. Outer water pipe; 74. Outer plug; 75. Canister changing nozzle; 76. Cable nozzle; 80. Automatic wire feeding mechanism. Detailed Implementation

[0016] 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. Example

[0017] like Figure 1-8As shown in the figure, this application discloses a reciprocating multi-station multi-variety glass fiber ply yarn drawing machine, including a frame 10 and a base plate 11 disposed on the side of the frame 10. The base plate 11 has two staggered mounting holes 12, and a turntable 13 is disposed in each of the two mounting holes 12. The frame 10 is provided with two sets of flipping mechanisms 30 for driving the two turntables 13 to rotate. Each turntable 13 has two centrally symmetrical through holes, and a main shaft impeller mechanism 20 is disposed in the through holes, so that each turntable 13 is provided with two sets of main shaft impeller mechanisms 20. Under the action of the flipping mechanism 30, the turntable 13 is driven to rotate, thereby causing the two main shaft impeller mechanisms 20 to flip and switch positions, realizing the switching between the working position and the standby position. The arrangement of two turntables 13 creates two drawing stations, one above the other. This allows for separate drawing operations at each station, ensuring that the two yarns are drawn simultaneously without interference. This not only accommodates high-flow spindles but also increases yarn production without requiring an increase in the overall length of the drawing machine, thus reducing the production line's footprint and improving its volumetric efficiency. Furthermore, by controlling the different rotational speeds of the main shaft impeller mechanisms 20 within the two drawing stations, two different yarn varieties can be drawn simultaneously to meet the needs of multi-variety production.

[0018] On the frame 10, a forced yarn splitting mechanism 40, a yarn blocking mechanism 50, a yarn arranging mechanism 60, and a water pipe mechanism 70 are respectively arranged on the sides of the upper and lower turntables 13. The forced yarn splitting mechanism 40 is fixedly installed on the top of the frame 10 and is used to split the yarn. The yarn blocking mechanism 50 is set above the corresponding turntable 13 and is used to push the yarn to the front end of the main shaft impeller mechanism 20 for easy loading. The yarn arranging mechanism 60 is used to move the yarn during the drawing process to facilitate yarn formation. The water pipe mechanism 70 is set above the main shaft impeller mechanism 20 of the corresponding turntable 13 at the working position and is used for dust removal and lint removal.

[0019] In this embodiment, the forced beam splitting mechanism 40, wire-blocking mechanism 50, arranging mechanism 60, and water pipe mechanism 70 corresponding to the upper and lower turntables 13 are arranged on opposite sides. That is, the forced beam splitting mechanism 40, wire-blocking mechanism 50, arranging mechanism 60, and water pipe mechanism 70 corresponding to the upper turntable 13 are arranged on the left side of the turntable 13, and the forced beam splitting mechanism 40, wire-blocking mechanism 50, arranging mechanism 60, and water pipe mechanism 70 corresponding to the lower turntable 13 are arranged on the right side of the turntable 13; or the forced beam splitting mechanism 40, wire-blocking mechanism 50, arranging mechanism 60, and water pipe mechanism 70 corresponding to the upper turntable 13 are arranged on the right side of the turntable 13, and the forced beam splitting mechanism 40, wire-blocking mechanism 50, arranging mechanism 60, and water pipe mechanism 70 corresponding to the lower turntable 13 are arranged on the left side of the turntable 13. This allows the working positions of the upper and lower workstations to be distributed on different sides, so that the main shaft impeller assemblies on the upper and lower turntables 13 can each correspond to a spindle for wire drawing. In this way, one wire drawing machine can correspond to two spindles, thereby increasing the number of spindles on each production line and thus increasing production capacity.

[0020] Specifically, the yarn arrangement mechanism 60 includes a transverse moving component 61 disposed within the frame 10, a reciprocating component 62 slidably disposed on the transverse moving component 61 along the width direction of the frame 10, and a yarn laying component 63 slidably disposed on the reciprocating component 62 along the length direction of the frame 10. The transverse moving component 61 is used to drive the reciprocating component 62 and the yarn laying component 63 to perform transverse movements, so that during yarn drawing, the yarn laying component 63 moves away from the yarn bundle as the yarn bundle increases in size, avoiding interference. The reciprocating component 62 is used to drive the yarn laying component 63 to reciprocate along the length direction of the frame 10, so that the yarn is evenly wound to form a yarn bundle along the length direction of the frame 10. The yarn laying component 63 is used for yarn forming and guiding and positioning the yarn, improving the forming quality of the yarn bundle.

[0021] The transverse movement assembly 61 includes a fixed base 611, transverse slide rails 612, transverse seat 613, transverse lead screw 614, transverse motor 615, and transverse nut seat 616. The fixed base 611 is installed inside the frame 10. There are two transverse slide rails 612, which are spaced apart on the fixed base 611 along the width direction of the frame 10. The transverse seat 613 is slidably mounted on the two transverse slide rails 612. The transverse lead screw 614 is rotatably mounted on the fixed base 611 and is aligned with the width direction of the frame 10. The transverse nut seat 616 is spirally mounted on the transverse lead screw 614 and its top is fixedly connected to the bottom of the transverse seat 613. Thus, the transverse nut seat 616 can be driven by the lead screw to move, thereby causing the transverse seat 613 to slide on the two transverse slide rails 612. The transverse motor 615 is mounted on the fixed base 611. A drive wheel 618 is mounted on its drive shaft. A driven wheel 617 is mounted on one end of the transverse lead screw 614. The drive wheel 618 and the driven wheel 617 are connected by a synchronous belt 619. The transverse motor 615 drives the drive wheel 618 to rotate, which in turn drives the transverse lead screw 614 to rotate via the synchronous belt 619 and the driven wheel 617, thereby driving the transverse base 613 to perform transverse movement.

[0022] Two reciprocating slide rails 621, aligned with the length of the frame 10, are spaced apart on the transverse slide base 613. The reciprocating assembly 62 includes a reciprocating seat 622 slidably mounted on the two reciprocating slide rails 621. A reciprocating lead screw 623, aligned with the length of the frame 10, is rotatably mounted on the transverse slide base 613. A reciprocating nut seat 624 is helically mounted on the reciprocating lead screw 623. The side of the reciprocating nut seat 624 is fixedly connected to the side of the reciprocating seat 622. One end of the reciprocating lead screw 623 is connected to a reciprocating motor 625 via a coupling. The reciprocating motor 625 drives the reciprocating lead screw 623 to rotate, causing the reciprocating nut seat 624 to move along the length of the reciprocating lead screw 623, thereby causing the reciprocating seat 622 to slide on the two reciprocating slide rails 621.

[0023] The wiring assembly 63 includes a fixed tube 631 mounted on a reciprocating seat 622, a crank arm 632 extending through one end of the fixed tube 631 through the base plate 11, a swing plate 633 spaced apart from the crank arm 632, a retaining shaft 634 and a wiring shaft 635 positioned between the crank arm 632 and the swing plate 633. The retaining shaft 634 and the wiring shaft 635 are arranged parallel to each other, and the wiring shaft 635 is positioned adjacent to the corresponding main shaft impeller mechanism 20. A plurality of wiring wires 636 are mounted on the wiring shaft 635. A transverse groove is provided at a corresponding position on the base plate 11 for the fixed tube 631 to move laterally. Through the arrangement of the reciprocating assembly 62 and the transverse assembly 61, the wiring shaft 635 and the wiring wires 636 can move laterally and reciprocally on the horizontal plane, facilitating wiring.

[0024] Furthermore, a drive shaft 637 is rotatably mounted within the fixed tube 631 via rolling bearings at both its front and rear ends. A cable-laying motor 638 is located at the rear end of the fixed tube 631, and the cable-laying motor 638 is connected to the drive shaft 637 via a coupling, thereby driving the drive shaft 637 to rotate. A quick-release shaft 6371 is located at the front end of the drive shaft 6371, and a drive sleeve 6372 is located at the front end of the quick-release shaft 6371. A rotating sleeve 6331 is located on the swing plate 633, and a self-adjusting bearing 6332 is located within the rotating sleeve 6331. The rear end of the cable-laying shaft 635 is fixed within the drive sleeve 6372, and the front end is fixed within the self-adjusting bearing 6332. Installing the cable-laying shaft 635 between the drive sleeve 6372 and the self-adjusting bearing 6332 facilitates disassembly and replacement.

[0025] The water pipe mechanism 70 includes a diversion shaft 71, an inner water pipe 72, and an outer water pipe 73. The diversion shaft 71 is installed through the base plate 11 and has a stepped outer end. The outer water pipe 73 is installed on the large shaft platform at the outer end of the diversion shaft 71, and an outer plug 74 is provided at the end of the outer water pipe 73 away from the diversion shaft 71. The inner water pipe 72 is installed on the small shaft platform at the outer end of the diversion shaft 71, so that the inner water pipe 72 is entirely located inside the outer water pipe 73. The end of the inner water pipe 72 away from the diversion shaft 71 passes through the outer plug 74 and is provided with a changing nozzle 75. The changing nozzle 75 is entirely facing the front end of the impeller of the main shaft impeller mechanism 20 located in the working position on the corresponding turntable 13. It removes the yarn wrapped around the front end of the impeller by spraying water and can also perform dust suppression when changing the nozzle. Several wiring nozzles 76 are installed on the wall of the outer water pipe 73, communicating with its cavity and facing the wiring assembly 63. The wiring nozzles 76 face the wiring wires 636 on the wiring shaft 635, and are used to lubricate and rinse the wiring wires 636. An inner water channel 711 and an outer water channel 712 are also provided in the diversion shaft 71, respectively communicating with the cavity of the inner water pipe 72 and the cavity of the inner water pipe 72 and the outer water pipe 73. An inner connector 713 and an outer connector 714 are provided at the inner end of the diversion shaft 71, respectively communicating with the inner water channel 711 and the outer water channel 712. The inner connector 713 and the outer connector 714 are connected to the external water source through pipelines to supply water to the inner water pipe 72 and the outer water pipe 73.

[0026] A further configuration includes an automatic yarn feeding mechanism 80 slidably mounted on the lower part of the frame 10 along its width. This mechanism 80 works in conjunction with the main shaft impeller mechanism 20 within the upper and lower turntables 13 to feed yarn. A water baffle 14 is obliquely arranged on the outer surface of the base plate 11 between the upper and lower turntables 13. The water baffle 14 guides and drains water dripping from the upper water pipe mechanism 70, preventing contamination of the yarn below. Example

[0027] like Figure 9As shown in the embodiment of this application, a multi-station multi-variety glass fiber ply yarn drawing machine with reciprocating winding is disclosed. Its overall structure is basically the same as that of Embodiment 1. The only difference is that the forced bundling mechanism 40, the yarn blocking mechanism 50, the braiding mechanism 60, and the water pipe mechanism 70 corresponding to the upper and lower turntables 13 are all arranged on the left side of the turntable 13, so that the overall layout of each mechanism is compact and saves space.

[0028] The above description is merely a preferred embodiment of the present invention. The scope of protection of the present invention is not limited to the above embodiments. All technical solutions falling within the scope of the present invention's concept are within the scope of protection of the present invention. It should be noted that for those skilled in the art, any improvements and modifications made without departing from the principles of the present invention should also be considered within the scope of protection of the present invention.

Claims

1. A reciprocating multi-station multi-variety glass fiber ply yarn drawing machine, comprising a frame (10) and a base plate (11) disposed on the side of the frame (10), characterized in that: The substrate (11) has two staggered mounting holes (12), each containing a turntable (13). Two sets of main shaft impeller mechanisms (20) are mounted on each turntable (13). The frame (10) contains two sets of flipping mechanisms (30) for driving the two turntables (13) to rotate. A forced beam splitting mechanism (40), a wire-blocking mechanism (50), and a tying mechanism (50) are correspondingly arranged on the frame (10) beside each of the two turntables (13). 60) and water pipe mechanism (70), the arrangement mechanism (60) includes a transverse component (61) disposed in the frame (10), a reciprocating component (62) slidably disposed on the transverse component (61) along the width direction of the frame (10), and a wiring component (63) slidably disposed on the reciprocating component (62) along the length direction of the frame (10); the water pipe mechanism (70) includes a diversion shaft (71) disposed through the base plate (11), the outer end of the diversion shaft (71) being provided with an inner water pipe (72) and An outer water pipe (73) is provided with an outer plug (74) at one end away from the diversion shaft (71). An inner water pipe (72) is located inside the outer water pipe (73) and its end away from the diversion shaft (71) passes through the outer plug (74) and is provided with a changing nozzle (75). Several wiring nozzles (76) are provided on the wall of the outer water pipe (73) and are connected to its cavity and facing the wiring assembly (63). The diversion shaft (71) is also provided with openings that are respectively connected to the cavity of the inner water pipe (72) and the inner water pipe (72) The inner waterway (711) and outer waterway (712) are connected to the cavity of the outer water pipe (73). The inner end of the diversion shaft (71) is provided with an inner connector (713) and an outer connector (714) respectively connected to the inner waterway (711) and the outer waterway (712). The lower part of the frame (10) is slidably provided with an automatic yarn feeding mechanism (80) along its width direction. The automatic yarn feeding mechanism (80) is used to cooperate with the main shaft impeller mechanism (20) in the upper and lower turntables (13) to feed the yarn.

2. The reciprocating multi-station multi-variety glass fiber ply yarn drawing machine according to claim 1, characterized in that: The forced beam splitting mechanism (40), wire blocking mechanism (50), arrangement mechanism (60), and water pipe mechanism (70) corresponding to the upper and lower turntables (13) are all located on the left side of the turntable (13).

3. The reciprocating multi-station multi-variety glass fiber ply yarn drawing machine according to claim 1, characterized in that: The forced beam splitting mechanism (40), wire blocking mechanism (50), arranging mechanism (60), and water pipe mechanism (70) corresponding to the upper and lower turntables (13) are arranged on opposite sides.

4. A reciprocating multi-station multi-variety glass fiber ply yarn drawing machine according to claim 2 or 3, characterized in that: The transverse assembly (61) includes a fixed seat (611) disposed in the frame (10), two transverse slide rails (612) spaced apart on the fixed seat (611) along the width direction of the frame (10), a transverse seat (613) slidably disposed on the two transverse slide rails (612), a transverse lead screw (614) rotatably disposed on the fixed seat (611) and aligned with the width direction of the frame (10), and a transverse motor (615) disposed on the fixed seat (611). A transverse nut seat (616) is helically disposed on the transverse lead screw (614). The top of the transverse nut seat (616) is fixedly connected to the bottom of the transverse seat (613). A driven wheel (617) is disposed at one end of the transverse lead screw (614). A drive wheel (618) is disposed on the drive shaft of the transverse motor (615). The drive wheel (618) and the driven wheel (617) are connected by a synchronous belt (619).

5. The reciprocating multi-station multi-variety glass fiber ply yarn drawing machine according to claim 4, characterized in that: The transverse slide seat (613) is provided with two reciprocating slide rails (621) that are aligned with the length direction of the frame (10). The reciprocating assembly (62) includes a reciprocating seat (622) that is slidably disposed on the two reciprocating slide rails (621). The transverse slide seat (613) is also rotatably disposed with a reciprocating lead screw (623) that is aligned with the length direction of the frame (10). A reciprocating nut seat (624) is helically disposed on the reciprocating lead screw (623). The side of the reciprocating nut seat (624) is fixedly connected to the side of the reciprocating seat (622). One end of the reciprocating lead screw (623) is connected to a reciprocating motor (625) through a coupling.

6. The reciprocating multi-station multi-variety glass fiber ply yarn drawing machine according to claim 5, characterized in that: The wiring assembly (63) includes a fixed tube (631) disposed on a reciprocating seat (622), a crank arm (632) disposed at one end of the fixed tube (631) passing through the base plate (11), a swing plate (633) spaced apart from the crank arm (632), a retaining shaft (634) and a wiring shaft (635) disposed between the crank arm (632) and the swing plate (633), wherein the retaining shaft (634) and the wiring shaft (635) are arranged in parallel and the wiring shaft (635) is arranged adjacent to the corresponding main shaft impeller mechanism (20), and a plurality of wiring steel wires (636) are disposed on the wiring shaft (635).

7. The reciprocating multi-station multi-variety glass fiber ply yarn drawing machine according to claim 6, characterized in that: A drive shaft (637) is rotatably mounted inside the fixed tube (631). A cable-laying motor (638) is mounted at the rear end of the fixed tube (631). The cable-laying motor (638) is connected to the drive shaft (637) via a coupling. A quick-release shaft (6371) is mounted at the front end of the drive shaft (6371). A drive sleeve (6372) is mounted at the front end of the quick-release shaft (6371). A rotating sleeve (6331) is mounted on the swing plate (633). A self-adjusting bearing (6332) is mounted inside the rotating sleeve (6331). The rear end of the cable-laying shaft (635) is fixed inside the drive sleeve (6372), and the front end is fixed inside the self-adjusting bearing (6332).

8. The reciprocating multi-station multi-variety glass fiber ply yarn drawing machine according to claim 1, characterized in that: A baffle plate (14) is obliquely arranged on the outer side plate of the substrate (11) between the upper and lower turntables (13).

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