Silk winder for curved bead yarn production and production system

Abstract

The utility model discloses a silk winder and a production system for curved bead yarn production, and belongs to the technical field of curved bead yarn production. The silk winder comprises a silk stacking table, a tensioner I, a silk guide hook I, a nozzle and a silk guide hook II, the tensioner I, the silk guide hook I, the nozzle and the silk guide hook II are arranged on one side of the silk stacking table, the tensioner I is arranged on the front side of a station of the nozzle, the silk guide hook I is arranged on the front side of the station of the nozzle, the silk guide hook II is arranged on the rear side of the station of the nozzle, and a ternary bobbin is arranged on the rear side of the station of the silk guide hook II. The nozzle is connected with a compressed air inlet pipe; the production system comprises a silk winder, a twisting machine and a high-speed hank reeling machine, the twisting machine is arranged on the rear side of a station of the silk winder, the high-speed hank reeling machine is arranged on the rear side of the station of the twisting machine, and a continuous passage for curved bead yarn production is formed among the silk winder, the twisting machine and the high-speed hank reeling machine. The production process of the curved bead yarn is effectively optimized, the interlacing procedure and the reeling procedure are integrated, the curved bead yarn is manufactured through the interlacing procedure, the twisting procedure and the twisting procedure, the production procedures are reduced, the production cost and the equipment cost are saved, and the industrial requirement is met.

Description

Technical Field

[0001] This utility model relates to a winding machine and production system, specifically to a winding machine and production system for producing quilted yarn, belonging to the field of quilted yarn production technology. Background Technology

[0002] The market for rayon embroidery thread has shrunk significantly due to the influence of low-priced, high-strength polyester embroidery thread, while the consumption of polyester embroidery thread in the textile market has increased substantially. Curved bead yarn is a blended yarn (CN2739209Y), primarily composed of viscose fiber and nylon (or spandex). Depending on the variety, it is plied in a certain proportion, combining the advantages of viscose filament and nylon to produce fabrics with excellent performance, easy washing and maintenance, breathability, moisture absorption, excellent elasticity, good colorability, softness, durability, and skin-friendliness.

[0003] Currently, the equipment used in the production of crepe yarn mainly includes: network machine, doubling twister, plying machine, retwisting machine, grooved drum machine, and yarn shaking machine (skein forming machine). The production process of crepe yarn mainly includes six steps: network → doubling (initial twist) → plying → doubling (retwisting) → winding (grooved drum) → skein forming. Among them, the production of crepe yarn must go through the network process. However, the existing network equipment can only realize individual plying and cannot realize further winding, twisting, etc., which leads to problems such as complex process and large equipment investment.

[0004] The existing technology "CN204643350U A winding machine with wind-powered pre-screening function" discloses that: the upper part of the Venturi dust extraction pipe is connected to the compressed air pipe, and the lower part of the Venturi dust extraction pipe is equipped with an air jet pipe. However, its main purpose is to remove the debris generated during the processing, provide a good processing environment, and reduce the harm to workers during production. "CN108728970A A composite yarn of nylon filament twisted with viscose staple fiber yarn and its preparation method" uses an air-flow mesh bonding method to combine viscose staple fiber and nylon filament, which are not easy to combine, together. The elasticity of the nylon filament is given to the composite yarn bundle again by the stretching of the yarn guide and tension control device while networking. However, it aims to solve the problems of high production cost, complex production steps, and thick texture of the resulting quilted yarn in the existing technology.

[0005] Therefore, simplifying the production process of tulle yarn and reducing production costs are urgent technical problems that need to be solved. Summary of the Invention

[0006] To address the issues of complex processes and high equipment investment in existing roving yarn production, a new winding machine and production system for roving yarn production is proposed. Specifically, a winding machine with a specific structure (a modified KV2002 high-speed winding machine) is provided. This involves adding a compressed air pipe and using nozzles to network the viscose filaments and nylon filaments under the action of compressed air, thus eliminating the need for winding and coiling processes. Combined with a twisting machine and a high-speed stranding machine, the roving yarn production process is optimized, integrating the networking and winding processes. This allows roving yarn to be produced through three processes: networking → twisting → stranding, thereby reducing production steps, saving production and equipment costs, and meeting industrial requirements.

[0007] To achieve the above technical objectives, the following technical solution is proposed:

[0008] The primary objective of this technical solution is to provide: a winding machine for producing tufted yarn, comprising a yarn stacking table and a tensioner I, a guide hook I, a nozzle, and a guide hook II disposed on one side of the yarn stacking table. The tensioner I is disposed in front of the nozzle's station, the guide hook I is disposed in front of the nozzle's station, and the guide hook II is disposed behind the nozzle's station. A three-dimensional tube is disposed behind the guide hook II's station. The nozzle is connected to a compressed air inlet pipe.

[0009] A continuous path for introducing viscose filaments is formed between the filament stacking table, tensioner I, and nozzle;

[0010] A continuous path for introducing nylon filaments is formed between the filament stacking table, guide hook I, and nozzle;

[0011] A continuous path for winding and forming a network of viscose filaments and nylon filaments is formed between the stacking table, nozzle, guide hook II, and ternary bobbin.

[0012] Preferably, the nozzle includes a yarn channel and an air inlet pipe, the inner cavity of the yarn channel forms a yarn channel; one end of the yarn channel is the yarn inlet, and the opposite end is the yarn outlet, and a continuous passage of nylon yarn and viscose filament network is formed between the yarn inlet, the yarn channel and the yarn outlet; the inner cavity of the air inlet pipe is connected to the yarn channel and is perpendicular to the yarn channel.

[0013] Preferably, the nozzle is a T-shaped nozzle, and the cable tube and the air inlet pipe are integrally formed.

[0014] Preferably, the air inlet pipe is connected to the middle of the cable tray.

[0015] Preferably, the tensioner I is mounted on the tensioner I mounting bracket, the wire guide hook I is mounted on the wire guide hook I mounting bracket, and the nozzle is mounted on the nozzle bracket. The tensioner I mounting bracket, the wire guide hook I mounting bracket, and the nozzle bracket are all mounted on the winding machine frame; the air inlet pipe is mounted on the nozzle bracket.

[0016] Preferably, the compressed air inlet pipe is connected to the compressed air main pipe, and the compressed air main pipe is equipped with a pressure sensor, a pressure stabilizing valve and a pressure regulating valve, which are interlocked by electrical signals.

[0017] The second objective of this technical solution is to provide: a production system for roving yarn, including the above-mentioned winding machine, twisting machine and high-speed stranding machine;

[0018] Twisting machine: Located behind the winding machine, the Z98 type twisting machine is selected. It can perform initial twisting, plying and retwisting of the network yarn processed by the high-speed winding machine. Each spindle of the twisting machine includes an upper spindle, wire hook, wire paralleling device, pressure roller, roller roller, guide hook III, blade plate, steel collar and lower spindle arranged in sequence. The upper spindle, wire hook, wire paralleling device, pressure roller, roller roller, guide hook III, blade plate, steel collar and lower spindle form a continuous path for initial twisting, plying and retwisting of the network yarn.

[0019] High-speed stranding machine: Located behind the twisting machine, the high-speed stranding machine includes tensioner II, tension roller and stranding frame arranged in sequence, and the tensioner II, tension roller and stranding frame form a continuous path for stranding the network yarn.

[0020] In this technical solution, the positional relationships involved, such as "upper", "one side", "rear side of the workstation", "inner", "middle", "internal", "one end", "the other end", "between", and "middle", are defined according to the actual usage conditions and are conventional terms in this technical field, as well as conventional terms used by those skilled in the art in actual use.

[0021] In the description of this technical solution, it should also be noted that, unless otherwise explicitly specified and limited, the terms "set up," "equipped with," and "connection" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; and they can refer to the internal connection of two components. Those skilled in the art can understand the specific meaning of the above terms in this technical solution based on the specific circumstances.

[0022] The beneficial technical effects of adopting this technical solution are as follows:

[0023] This utility model optimizes the production process of quilted beaded yarn by modifying the KV2002 high-speed winding machine and combining it with a twisting machine and a high-speed stranding machine. It integrates the networking process and the winding process, which is well-suited to the quilted beaded yarn production process.

[0024] Among them, for the winding machine, a compressed air pipe is added, and the nozzle is used to make the viscose filament and nylon filament network under the action of compressed air, thereby eliminating the winding and twisting process, and realizing that the quilted beaded yarn is made by three processes: networking, twisting and stranding. This reduces the production process, saves production and equipment costs, and meets industrial requirements. Attached Figure Description

[0025] Figure 1 This is a schematic diagram of the winding machine structure in this utility model;

[0026] Figure 2 This is a side view of the winding machine in this utility model;

[0027] Figure 3 This is a schematic diagram illustrating the working principle of the winding machine in this utility model;

[0028] Figure 4 This is a cross-sectional view of the nozzle in this utility model;

[0029] Figure 5 This is a side view of the nozzle in this utility model;

[0030] Figure 6 This is a structural diagram of the nozzle holder in this utility model;

[0031] Figure 7 This is a structural block diagram of the production system in this utility model;

[0032] Figure 8 This is a structural block diagram of a production system in the prior art;

[0033] In the diagram, 1 is the winding machine, 10 is the stacking table, 11 is the tensioner I, 12 is the guide hook I, 13 is the nozzle, 131 is the yarn guide cylinder, 132 is the air inlet pipe, 133 is the yarn guide, 134 is the yarn inlet, 135 is the yarn outlet, 14 is the guide hook II, 15 is the tensioner I mounting bracket, 16 is the guide hook I mounting bracket, 17 is the nozzle bracket, and 171 is the spring.

[0034] 2. Twisting machine;

[0035] 3. High-speed winding machine; 4. Compressed air inlet pipe; 5. Compressed air main pipe; 51. Pressure stabilizing valve; 52. Pressure regulating valve; 53. Pressure sensor; 6. Three-dimensional cylinder. Detailed Implementation

[0036] The technical solutions in the embodiments of this utility model will be clearly and completely described below. Obviously, the described embodiments are only a part of the embodiments of this utility model, and not all of them. Based on the embodiments of this utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of this utility model.

[0037] Example 1

[0038] This embodiment provides: a winding machine for producing quilted beaded yarn, such as... Figure 1-2 As shown, the device includes a wire stacking table 10 and a tensioner I 11, a wire guide hook I 12, a nozzle 13, and a wire guide hook II 14 disposed on one side of the wire stacking table 10. The tensioner I 11 is disposed in front of the nozzle 13, the wire guide hook I 12 is disposed in front of the nozzle 13, and the wire guide hook II 14 is disposed behind the nozzle 13. A three-dimensional tube 6 is disposed behind the wire guide hook II 14. The nozzle 13 is connected to a compressed air inlet pipe 4.

[0039] A continuous passage for introducing viscose filaments is formed between the filament stacking table 10, the tensioner I 11, and the nozzle 13;

[0040] A continuous path for introducing nylon filaments is formed between the filament stacking platform 10, the guide hook I 12, and the nozzle 13;

[0041] A continuous path for the winding of viscose filaments and nylon filaments is formed between the stacking platform 10, nozzle 13, guide hook II 14, and ternary bobbin 6.

[0042] Example 2

[0043] Based on Example 1, this example further defines the nozzle 13 to further illustrate the technical solution.

[0044] like Figure 4-5 As shown, the nozzle 13 includes a yarn passage 131 and an air inlet pipe 132. The inner cavity of the yarn passage 131 forms a yarn passage 133 for the yarn to flow through. One end of the yarn passage 131 is a yarn inlet 134, and the other end is a yarn outlet 135. A continuous passage of nylon yarn and viscose filament network is formed between the yarn inlet 134, the yarn passage 133 and the yarn outlet 135. The inner cavity of the air inlet pipe 132 is connected to the yarn passage 133 and is perpendicular to the yarn passage 133.

[0045] Preferably, the nozzle 13 is a T-shaped nozzle 13, and the filament tube 131 and the air inlet pipe 132 are integrally formed, which effectively improves the overall structure of the nozzle 13, thereby facilitating the network of viscose filament and nylon filament.

[0046] Furthermore, the air inlet pipe 132 is connected to the middle of the yarn guide tube 131, which improves the stability and uniformity of the viscose filament and nylon filament network.

[0047] Example 3

[0048] Based on Examples 1-2, this example further specifies the installation of tensioner I11, guide hook I12, nozzle 13 and guide hook II14 to further illustrate this technical solution.

[0049] Tensioner I 11 is mounted on tensioner I mounting bracket 15, wire guide hook I 12 is mounted on wire guide hook I mounting bracket 16, and nozzle 13 is mounted on nozzle bracket 17. Tensioner I mounting bracket 15, wire guide hook I mounting bracket 16, and nozzle bracket 17 are all mounted on the winding machine frame; air inlet pipe 132 is mounted on nozzle bracket 17 (e.g., Figure 6 As shown, a spring 171 snap-fit ​​connection can be used.

[0050] Example 4

[0051] Based on Examples 1-3, this example further limits the control of the compressed air entering the nozzle 13 in order to further explain the technical solution.

[0052] The compressed air inlet pipe 4 is connected to the compressed air main pipe 5 (e.g., by welding). The compressed air main pipe 5 is equipped with a pressure sensor 53, a pressure stabilizing valve 51, and a pressure regulating valve 52. The pressure sensor 53, the pressure stabilizing valve 51, and the pressure regulating valve 52 are interlocked by electrical signals.

[0053] Compressed air enters the compressed air inlet pipe 132 through the compressed air main pipe 5, and then is injected into the compressed air through the nozzle 13 on the nozzle holder 17. The flow direction of the compressed air in the nozzle 13 is perpendicular to the movement direction of the filament in the filament path 133.

[0054] Example 5

[0055] The equipment currently used in the production of quilted beaded yarn mainly includes: such as Figure 8 As shown, the production process of tufted beaded yarn mainly includes six steps: tufting → doubling (initial twisting) → plying → doubling (re-twisting) → winding (grooved drum) → skeining. Among them, the production of tufted beaded yarn must go through the tufting process. However, the existing tufting equipment can only realize individual plying and cannot realize further winding, twisting, etc., which leads to problems such as complex process and large equipment investment.

[0056] To address this, by modifying the KV2002 high-speed winding machine 1 and adding a compressed air pipe, the nozzle 13 is used to make the viscose filament and nylon network and wind under the action of compressed air. The processed three-element network bobbin can be directly fed into the twisting machine 2 for twisting, plying and re-twisting, thereby forming curved beaded yarn. This reduces the production process of curved beaded yarn from the original five types of equipment and six processing steps (networking machine, initial twisting machine, plying machine, re-twisting machine, winding machine and skeining machine) to only three types of equipment and three processing steps (networking machine, twisting machine 2 and skeining machine), thus optimizing the production process of curved beaded yarn.

[0057] Among them, such as Figure 3 As shown, the operation process involved is as follows:

[0058] 1. Set the size control parameters, forming control parameters, winding speed, and other parameters for the high-speed winding machine 1;

[0059] 2. Place the nylon filaments and viscose filaments on the stacking table 10. Pass the nylon filaments through the guide hook I 12, the inlet 134 of the nozzle 13, and the guide hook II 14 respectively. Pass the viscose filaments through the tensioner I 11, the inlet 134 of the nozzle 13, and the guide hook II 14 respectively. Then, wind the nylon filaments and viscose filaments together into the three-dimensional bobbin 6 and start the high-speed winding machine 1.

[0060] 3. After the high-speed winding machine 1 is turned on, immediately open the compressed air regulating valve and set the corresponding compressed air pressure.

[0061] 4. After the three-element bobbin 6 is fully wound, a three-element network bobbin is formed. The two three-element network bobbins are twisted and combined using the twisting machine 2 to form a single beaded yarn. The twist is then adjusted to the required twist for the product (the twist of the twisting machine 2 is set according to the requirements).

[0062] 5. After twisting and stranding, the product is processed into stranded products using a stranding machine. The purpose of using a high-speed stranding machine 3 in this technical solution is to improve production efficiency.

[0063] Among them, the production system of quilted yarn involved, such as Figure 7 As shown, it includes the aforementioned winding machine 1, twisting machine 2, and high-speed stranding machine 3;

[0064] Twisting machine 2 is located behind the station of winding machine 1, and high-speed stranding machine 3 is located behind the station of twisting machine 2.

[0065] A continuous pathway for the production of beaded yarn is formed between winding machine 1, twisting machine 2, and high-speed stranding machine 3.

[0066] Among them, the twisting machine 2 is a Z98 type twisting machine. Each spindle of the twisting machine 2 includes an upper spindle, a wire hook, a wire paralleling device, a pressure roller, a roller roller, a guide hook III, a blade plate, a steel collar, and a lower spindle arranged in sequence. The upper spindle, the wire hook, the wire paralleling device, the pressure roller, the roller roller, the guide hook III, the blade plate, the steel collar, and the lower spindle form a continuous path for the initial twisting, stranding, and re-twisting of the network yarn.

[0067] The high-speed stranding machine 3 uses the HBF126 stranding machine, which includes tensioner II, tension roller and stranding frame arranged in sequence. The tensioner II, tension roller and stranding frame form a continuous path for stranding the network wire.

[0068] Example 6

[0069] This embodiment provides a production process suitable for quilted beaded yarn, including the following steps:

[0070] S1: Network

[0071] The nylon filament is guided into the inlet 134 of the nozzle 13 on the high-speed winding machine 1 via the guide hook I12;

[0072] Tensioner I11 is used to introduce viscose filaments into the nozzle 13 inlet 134 on the high-speed winding machine 1; tensioner I11 is a comb-type tensioner, and the tension value of tensioner I11 is controlled to be 16-20g, that is, to apply tension to the viscose filaments to prevent the filaments from getting tangled after twisting and wrapping around the three-element bobbin 6.

[0073] The compressed air pressure inside the nozzle 13 is controlled to be 0.16-0.2MPa. The viscose filament and nylon filament pass through the filament channel 133 inside the nozzle 13 and are subjected to the vertical jet airflow. After being impacted laterally, the nylon filament and viscose filament periodically combine and entangle into a bundle of twists to form a network filament. Then, guided by the guide hook II 14, the network filament is led out and wound onto the ternary tube 6.

[0074] Among them, the guide hook II14 plays a guiding role, which stabilizes yarn tension, normal air ring shape, stabilizes spindle vibration, reduces yarn breakage, reduces hairiness, and improves yarn quality.

[0075] The compressed air pressure is controlled by the pressure regulating valve 52, the pressure stabilizing valve 51 and the pressure sensor 53 on the compressed air main pipe 5. The compressed air pressure value is adjusted by adjusting the switch of the pressure regulating valve 52 (the pressure regulating valve 52 has a pressure display). The pressure stabilizing valve 51 is used to stabilize the pressure difference between the air inlet of the pressure regulating valve 52 and the air outlet of the nozzle 13 to prevent the compressed air pressure supplied to the generation system from fluctuating and to keep it at a given pressure. The pressure sensor 53 displays the pressure value.

[0076] S2: Twisted thread

[0077] The high-speed winding machine 1 at the front performs networking and winding processing to form a three-element network bobbin. In this way, two or more three-element network bobbins can be compounded and twisted by the twisting machine 2, which facilitates initial twisting, plying, and re-twisting processing. The specific steps are as follows:

[0078] Two or more ternary network yarns are introduced into the yarn combiner via the yarn hook; the yarn combiner is used to gather two or more network yarns; then, the gathered yarn is wound onto the pressure roller, and the pressure roller is used to press the gathered yarn onto the roller roller for twisting.

[0079] Subsequently, the twisted yarn is guided by guide hook III and passes through the blade plate. The blade plate limits the position of the yarn and prevents it from swaying left and right. Then, the yarn is passed through the steel collar, and the steel collar rotates on the steel collar to wind the yarn onto the yarn tube.

[0080] S3: Twisted

[0081] The yarn on the yarn tube is introduced into the tension roller via tensioner II;

[0082] Under the tension and guidance of the tension roller, the yarn is wound onto the winch frame, and the winch frame rotates to form a skein, resulting in wavy yarn.

[0083] In addition, the control system involved: The KV2002 high-speed winding machine 1 uses a control system for real-time monitoring, and sets size control parameters to meet the requirements of the twisting machine 2. The length and size of the three-element network are controlled by four indicators: the inner edge length, the outer edge length, the empty tube diameter, and the full tube diameter. Among them, if the length is too large, it will form a trumpet tube, and if it is too small, it will form a stuck-edge tube. The inner edge length is 130-135mm, the outer edge length is 130-135mm, the empty tube diameter is 35-40mm, and the full tube diameter is 78-82mm. The forming control parameters are: guide wire speed 40-50mm / s, starting winding position 5-10mm, and micro-difference length 1-3mm. The guide wire speed is the speed of the wire stroke, which affects the forming of the wire. If the starting winding position is too small, it will cause edge rubbing, and if it is too large, the finished product will not be full and the length will be insufficient. A reasonable micro-difference length can prevent the wire from overlapping. The winding speed refers to the speed at which the KV2002 high-speed winding machine winds the three-element cylinder of the network. If the winding speed is too fast, the wire will break and produce fuzz. If it is too slow, it will affect the twist number of the network. Therefore, the winding speed is set to 480-550m / min, and preferably, the winding speed is 500m / min.

[0084] Discussion Example

[0085] Based on Examples 1-6, this discussion example uses the following three methods of producing quilted yarn to determine the optimal production method.

[0086] Specifically as follows:

[0087] I. Adopting the "network-winding-twisting-skeining" production method

[0088] In this process, a slotted yarn machine is used, and a nozzle 13 and an air compression pipe are added to the slotted yarn machine to form a network and form a network tube; then, it is passed through a winding machine to form a three-element network tube, and the initial twisting, plying and twisting are achieved by a twisting machine 2; finally, it is stranded by a stranding machine, which is referred to as production method 1.

[0089] II. Adopting the "network-direct twist-skeining" production method

[0090] In this process, a grooved drum machine is used, and nozzles 13 and air compression pipes are added to the grooved drum machine to form a network and create a network drum; then, it is twisted by a straight twisting machine; finally, it is twisted by a stranding machine, which is referred to as production method 2.

[0091] 3. Adopting the "network-twisting-stranding" production method

[0092] In this process, a KV2002 high-speed winding machine 1 is used, and a nozzle 13 and an air compression pipe are added to the KV2002 high-speed winding machine 1 to form a network and a network tube; then, it is passed through the winding machine to form a three-element network tube, and the twisting machine 2 is used to achieve initial twisting, plying and additional twisting; finally, it is stranded by a stranding machine, which is referred to as production method 3 (i.e., the production method adopted by this utility model).

[0093] It can be seen that production methods 2-3 reduce the winding process compared to production method 1;

[0094] Compared to production method 2, production method 3 has a better industrial production prospect. The KV2002 high-speed winding machine 1 comes with a tension frame, while the slotted drum machine does not have a tension frame and needs to be installed.

[0095] The above description is merely a preferred embodiment of the present utility model and is not intended to limit the present utility model. Although the present utility model has been described with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.

Claims

1. A winding machine for producing beaded yarn, characterized in that, It includes a wire stacking table (10) and a tensioner I (11), a wire guide hook I (12), a nozzle (13) and a wire guide hook II (14) located on one side of the wire stacking table (10). The tensioner I (11) is located in front of the nozzle (13), the wire guide hook I (12) is located in front of the nozzle (13), and the wire guide hook II (14) is located behind the nozzle (13). A three-dimensional tube (6) is provided behind the wire guide hook II (14). The nozzle (13) is connected to a compressed air inlet pipe (4). A continuous path for introducing viscose filaments is formed between the filament stacking table (10), tensioner I (11), and nozzle (13); A continuous path for introducing nylon filaments is formed between the stacking platform (10), the guide hook I (12), and the nozzle (13); A continuous pathway for the viscose filament and nylon filament network and winding is formed between the stacking platform (10), nozzle (13), guide hook II (14) and ternary tube (6).

2. The winding machine for producing beaded yarn according to claim 1, characterized in that, The nozzle (13) includes a yarn channel (131) and an air inlet pipe (132). The inner cavity of the yarn channel (131) forms a yarn channel (133). One end of the yarn channel (131) is the yarn inlet (134), and the other end is the yarn outlet (135). A continuous passage of nylon yarn and viscose filament network is formed between the yarn inlet (134), the yarn channel (133), and the yarn outlet (135). The inner cavity of the air inlet pipe (132) is connected to the yarn channel (133), and the inner cavity of the air inlet pipe (132) is perpendicular to the yarn channel (133).

3. The winding machine for producing beaded yarn according to claim 2, characterized in that, The nozzle (13) is a T-shaped nozzle (13), and the wire tube (131) and the air inlet pipe (132) are integrally formed.

4. The winding machine for producing beaded yarn according to claim 3, characterized in that, The air inlet pipe (132) is connected to the middle of the cable tube (131).

5. The winding machine for producing beaded yarn according to claim 2, characterized in that, The tensioner I (11) is mounted on the tensioner I mounting bracket (15), the wire guide hook I (12) is mounted on the wire guide hook I mounting bracket (16), and the nozzle (13) is mounted on the nozzle bracket (17). The tensioner I mounting bracket (15), the wire guide hook I mounting bracket (16), and the nozzle bracket (17) are all mounted on the winding machine frame. The air inlet pipe (132) is mounted on the nozzle bracket (17).

6. The winding machine for producing beaded yarn according to claim 1, characterized in that, The compressed air inlet pipe (4) is connected to the compressed air main pipe (5). The compressed air main pipe (5) is equipped with a pressure sensor (53), a pressure stabilizing valve (51) and a pressure regulating valve (52). The pressure sensor (53), the pressure stabilizing valve (51) and the pressure regulating valve (52) are interlocked by electrical signals.

7. A production system for quilted beaded yarn, characterized in that, Including the winding machine (1), twisting machine (2), and high-speed stranding machine (3) according to any one of claims 1-6; The twisting machine (2) is located behind the winding machine (1), and the high-speed stranding machine (3) is located behind the twisting machine (2). A continuous pathway for the production of beaded yarn is formed between the winding machine (1), the twisting machine (2), and the high-speed stranding machine (3).

8. The production system for quilted beaded yarn according to claim 7, characterized in that, The twisting machine (2) is a Z98 type twisting machine.

9. The production system for quilted beaded yarn according to claim 7, characterized in that, Each spindle of the twisting machine (2) includes an upper spindle, a wire hook, a wire paralleling device, a pressure roller, a roller roller, a guide hook III, a leaf plate, a steel collar, and a lower spindle arranged in sequence. The upper spindle, the wire hook, the wire paralleling device, the pressure roller, the roller roller, the guide hook III, the leaf plate, the steel collar, and the lower spindle form a continuous path for the initial twisting, plying, and re-twisting of the network yarn.

10. The production system for quilted beaded yarn according to claim 7, characterized in that, The high-speed stranding machine (3) includes a tensioner II, a tension roller and a stranding frame arranged in sequence, forming a continuous path for stranding network wires between the tensioner II, the tension roller and the stranding frame.

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