Textile yarn winding mechanism

Abstract

The utility model discloses a spinning yarn winding mechanism which comprises a machine frame, a guide assembly used for yarn guiding and a winding assembly used for yarn winding are arranged on the machine frame, and the winding assembly comprises a winding shaft and an auxiliary shaft. The winding shaft is rotationally arranged on the rack and is driven by a driving part arranged on the rack to rotate, the auxiliary shaft is arranged below the winding shaft, is attached to the winding shaft through connecting seats arranged on the rack and rotates in a matched mode, and the connecting seats are arranged on the two sides of the auxiliary shaft and comprise the first connecting seat and the second connecting seat. The first connecting base is arranged on the second connecting base in a sliding mode, a compressed spring is arranged at the joint of the first connecting base and the second connecting base, the second connecting base is fixed to the machine frame, and the first connecting base arranged above the second connecting base in a sliding mode is rotationally connected with the auxiliary shaft.

Description

Technical Field

[0001] The utility model relates to the technical field of yarn winding, in particular to a textile yarn winding mechanism. Background Art

[0002] Yarn, as an important component of textiles, is a product of a certain fineness processed from various textile fibers. It is widely used in weaving, rope making, thread making, knitting, embroidery and other scenarios. It can be divided into short-staple yarn, continuous filament and other categories. In the production and processing of yarn, a winding machine is usually used to wind the formed yarn to facilitate later operations such as packaging. The commonly used winding machine structure usually includes two parts: a guide mechanism and a winding mechanism. As the yarn accumulates during the winding process, the yarn diameter on the winding shaft gradually increases, thereby causing the tension of the yarn to change during the winding process. Therefore, the winding machine in the prior art usually adopts a guide mechanism with a certain elastic structure to solve the above problem, such as a guide wheel that can swing to a certain amplitude, etc., to reduce the phenomenon of yarn breakage due to tension changes during the winding process. However, this structure also has certain disadvantages, namely, in the yarn During the winding process, as the yarn continues to accumulate and the diameter gradually increases until the early stage of winding is completed, the guide mechanism with a certain elastic structure can adaptively adjust to the stress changes of the yarn, but its elastic structure is often prone to a large range of motion during the adjustment process, which makes the yarn prone to local tightness or looseness, uneven stress, and unstable molding or even deformation. In the early stage of molding, the diameter of the yarn is large due to the accumulation of yarn. When this phenomenon occurs, with the continuous rotation of the winding mechanism, the yarn is locally tight or the external yarn is loose, and it is inevitable that the yarn will break and fall off, affecting the winding process. In addition, when the yarn breaks during the winding process or is cut after winding is completed, the winding shaft of the traditional winding mechanism is often unable to stop rotating immediately, which makes the yarn ends on the winding shaft prone to displacement, burrs, or even entanglement and deformation under the action of inertia. Utility Model Content

[0003] The utility model aims to provide a textile yarn winding mechanism, which can ensure the stability of winding and forming of the yarn during the winding process, and further reduce unnecessary influence on the winding bobbin caused by yarn breakage or cutting and switching.

[0004] The technical solution adopted by the utility model to solve the above problems is:

[0005] A textile yarn winding mechanism comprises a frame, on which a guide assembly for yarn guiding and a winding assembly for yarn winding are provided, the winding assembly comprises a winding shaft and an auxiliary shaft, the winding shaft is rotatably arranged on the frame and driven to rotate by a driving component arranged on the frame, the auxiliary shaft is placed below the winding shaft and is in contact with and adapted to rotate with the winding shaft through a connecting seat arranged on the frame, the connecting seat is placed on both sides of the auxiliary shaft, comprises a first connecting seat and a second connecting seat, the first connecting seat is slidably arranged on the second connecting seat and a compression spring is arranged at the connection, the second connecting seat is fixed on the frame and the first connecting seat slidably arranged above it is rotatably connected to the auxiliary shaft.

[0006] Further: a force-sensitive sensor is arranged in the seat body of the second connecting seat, and the force-sensitive sensor is connected to the bottom of the compression spring arranged at the connection point of the first connecting seat.

[0007] Furthermore: a plurality of guide grooves are provided on the shaft body of the auxiliary shaft, and the guide grooves surround and are evenly arranged and distributed on the side wall of the shaft body and are set at a certain angle.

[0008] Further: the two sides of the winding shaft rotatably arranged on the frame are connected through a claw plate arranged on the frame.

[0009] Further: the guide assembly includes a guide frame, which is slidably arranged on the frame and driven to rotate by a second driving component arranged on the frame, and the guide frame is provided with a conveying track and a guide head for yarn conveying, and the guide head is rotatably provided with multiple sets of guide wheels.

[0010] Furthermore: the multiple groups of guide wheels rotatably arranged on the guide head are distributed up and down and are slidably arranged on the guide head through the slide grooves arranged in the guide head, and the slide grooves are all provided with compression springs.

[0011] Furthermore: a receiving groove is also arranged on the conveying track of the guide frame, the receiving groove is slidably arranged on the guide frame and a plurality of guide shafts are rotatably arranged in the groove body.

[0012] Furthermore: the multiple groups of guide shafts rotatably arranged in the receiving groove are composed of any structure of rubber wheels or gear grinding wheels.

[0013] Further: the guide assembly also includes a placement rack, which is placed on one side of the frame and adopts a retractable structure, including a first frame body and a second frame body, the first frame body and the second frame body are connected by a retractable plate and multiple groups of placement grooves are arranged at relative positions of the frames, and multiple groups of matching rotating shafts are placed in the placement grooves.

[0014] Furthermore: the driving component and the second driving component both use synchronous belts to drive the winding shaft and the guide frame to rotate and slide on the frame in an adaptive manner.

[0015] Compared with the prior art, the utility model has the following advantages and effects:

[0016] The utility model discloses a winding mechanism for textile yarns. The winding assembly of the yarn winding mechanism is designed so that, in the process of rotation, the winding shaft cooperates with the auxiliary shaft fitted therewith, so that the yarn that has been wound on the shaft has a certain tensile stress without affecting the normal winding and forming of the yarn, so that the yarn is distributed more evenly during the winding process and the forming stability of the yarn during the forming process can be ensured, the influence of the guide assembly on the winding and forming of the yarn can be reduced, and the unnecessary influence on the winding process caused by the breakage and falling off caused by local tightness or looseness can be further reduced, and when the yarn breaks during the winding process or is cut after winding is completed, the yarn can be cut into pieces. During cutting, the thread ends at the broken ends or cuts will fit with the yarn that has been wound on the winding shaft under the action of its auxiliary shaft during the rotation of the winding shaft, so it is not easy for the thread ends to separate and shift under the inertia force of the rotation of the winding shaft, causing local looseness, burrs or even entanglement of the yarn that has been wound on the winding shaft, thereby ensuring that the yarn on the winding shaft has a certain stability during the winding and forming process. In addition, the adaptation structure of the winding shaft and the auxiliary shaft is provided with baffles on both sides, so as to avoid the edge yarn from falling off during the yarn winding process and causing unnecessary influence on the winding assembly, and further improve the forming consistency and stability. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a structural schematic diagram of a textile yarn winding mechanism according to an embodiment of the utility model.

[0018] Figure 2-3 It is a partial enlarged view of the winding assembly of the embodiment of the utility model.

[0019] Figure 4 It is a partial enlarged view of the guide frame of the embodiment of the utility model.

[0020] Figure 5 It is an enlarged view of the internal structure of the guide head of the embodiment of the utility model.

[0021] Figure 6 It is an enlarged view of the internal structure of the receiving groove of the embodiment of the utility model.

[0022] Figure 7 It is a structural schematic diagram of a placement rack according to an embodiment of the utility model.

[0023] Figure numbers: frame 100, driving component 101, second driving component 102, synchronous belt 103, slide rail 104, yarn 110, guide assembly 1, guide frame 11, guide rail 111, guide head 112, slide groove 1121, guide wheel 113, groove body 114, winding assembly 2, winding shaft 21, auxiliary shaft 22, guide groove 221, connecting seat 3, first connecting seat 31, second connecting seat 32, force sensitive sensor 321, compression spring 4, claw plate 5, receiving groove 6, guide shaft 61, rubber wheel 611, gear grinding wheel 612, placement frame 7, first frame body 71, second frame body 72, placement groove 73, rotating shaft 74, telescopic plate 75. DETAILED DESCRIPTION

[0024] The present invention will be further described in detail below with reference to the accompanying drawings and through examples. The following examples are provided to explain the present invention, but the present invention is not limited to the following examples.

[0025] See also Figure 1-2 The present embodiment relates to a winding mechanism for a textile yarn 110, comprising a frame 100, on which a guide assembly 1 for guiding the yarn 110 and a winding assembly 2 for winding the yarn 110 are provided, wherein the winding assembly 2 comprises a winding shaft 21 and an auxiliary shaft 22, wherein the winding shaft 21 is rotatably arranged on the frame 100 and driven to rotate by a driving component 101 arranged on the frame 100, wherein the auxiliary shaft 22 is arranged below the winding shaft 21 and is fitted and adapted to rotate with the winding shaft 21 through a connecting seat 3 arranged on the frame 100, wherein the connecting seat 3 is arranged on both sides of the auxiliary shaft 22, and comprises a first connecting seat 31 and a second connecting seat 32, wherein the first connecting seat 31 is slidably arranged on the second connecting seat 32 and a compression spring 4 is arranged at the connection, and the second connecting seat 32 is fixed on the frame 100, and the first connecting seat 31 slidably arranged above the second connecting seat 32 is rotatably connected with the auxiliary shaft 22.

[0026] Specifically in this embodiment, Figure 1 As shown, the yarn 110 can be wound through the winding mechanism under the guidance of the guide assembly 1, and the winding shaft 21 is driven by the driving component 101 provided on the frame 100 to rotate on the frame 100, thereby realizing the winding process. At the same time, during the winding process, the rotation of the winding shaft 21 can drive the auxiliary shaft 22 placed below and adapted to rotate relatively. As the yarn 110 on the winding shaft 21 is continuously wound and its diameter increases, the auxiliary shaft 22 below the winding shaft 21 can, under the action of its connecting seat 3, ensure that it is in contact with the yarn 110 wound on the winding shaft 21 and slides adaptively. The specific structure of the connecting seat 3 can be found in Figure 2As shown, the auxiliary shaft 22 rotates on the first connecting seats 31 provided on both sides thereof. As the yarn 110 on the winding shaft 21 is continuously wound and its diameter increases, the auxiliary shaft 22 can slide downwardly through the first connecting seats 31 on both sides along the direction of the second connecting seats 32 provided below under the action of its pressure. At the same time, under the action of the compression spring 4 provided at the connection, the winding shaft 21 and the auxiliary shaft 22 are always kept in contact with each other during the rotation process. The design of the winding assembly 2 of the yarn 110 winding mechanism, in which the winding shaft 21 cooperates with the auxiliary shaft 22 in contact with it during the rotation process, can make the yarn 110 that has been wound on the shaft have a certain tensile stress without affecting the normal winding and molding of the yarn 110, so that the yarn 110 is more evenly distributed during the winding process, while ensuring the molding stability of the yarn 110 during the molding process, and can reduce the impact of the guide assembly 1 on the winding and molding of the yarn 110 The influence of the yarn 110 on the winding process can be further reduced due to the breakage and falling off caused by local tightness or looseness, and when the yarn 110 breaks during the winding process or is cut after winding, the thread ends at the broken ends or cuts will immediately fit with the yarn 110 that has been completed on the winding shaft 21 under the action of its auxiliary shaft 22 during the rotation of the winding shaft 21, so that it is not easy for the thread ends to separate and shift under the inertia force of the rotation of the winding shaft 21, causing local looseness, burrs or even entanglement of the yarn 110 that has been completed on the winding shaft 21, thereby ensuring that the yarn 110 on the winding shaft 21 has a certain stability during the winding and molding process. In addition, the adaptation structure of the winding shaft 21 and the auxiliary shaft 22 is provided with baffles on both sides, so as to avoid the edge yarn 110 from falling off during the winding process of the yarn 110 and causing unnecessary influence on the winding component 2, and further improve the molding consistency and stability.

[0027] A force-sensitive sensor 321 is disposed in the seat body of the second connecting seat 32, and the force-sensitive sensor 321 is connected to the bottom of the compression spring 4 disposed at the connection of the first connecting seat 31. Figure 3As shown, during the rotation of the auxiliary shaft 22, as the diameter of the yarn 110 on the winding shaft 21 continues to increase, the first connecting seat 31 is driven to move downward, and the compression spring 4 at the connection between the first connecting seat 31 and the second connecting seat 32 is subjected to a certain pressure. The force-sensitive sensor 321 arranged in the seat body of the second connecting seat 32 connected to the bottom of the compression spring 4 can detect the pressure exerted on the compression spring 4 in real time. Specifically, the signal circuit of the force-sensitive sensor 321 is connected to the line number circuit of the winding component 2 and the guide component 1 and is connected to a controller. The threshold value of the force-sensitive sensor 321 can be set according to specific usage requirements. The force-sensitive sensor 321 can detect the pressure exerted on both ends of the auxiliary shaft 22 in real time, so as to address abnormal conditions such as unstable operation caused by the guide component 1 and the winding component 2 during operation, thereby causing uneven distribution of the yarn 110 on the winding shaft 21 during winding, resulting in excessive or insufficient local yarn 110, and unsatisfactory winding forming effect. In this case, the force-sensitive sensor 321 in the seat body of the second connecting seat 32 on both sides of the auxiliary shaft 22 is not affected by the pressure fluctuation range of the yarn 110 during the normal winding process, so that the auxiliary shaft 22 is tilted due to the excessive or insufficient winding of the local yarn 110 on the winding shaft 21, and the pressure of the compression spring 4 at the connection exceeds the threshold value or pressure fluctuation range set by the force-sensitive sensor 321, the force-sensitive sensor 321 can send a signal to the controller through the signal line, and after receiving the signal, the controller sends a signal to the guide component 1 and the winding component 2 to stop working. The operator can make timely adjustments and processing according to the specific abnormal situation, further improve the uniformity of the distribution of the yarn 110 and the stability of its forming during the winding process of the yarn 110, and further reduce the unnecessary impact and waste of raw materials on the winding mechanism of the yarn 110 when abnormal situations occur, thereby improving the operation stability and further saving production and use costs.

[0028] A plurality of guide grooves 221 are provided on the shaft body of the auxiliary shaft 22. The guide grooves 221 surround and are evenly arranged on the side walls of the shaft body and are set at a certain angle. The guide grooves 221 can further increase the friction force of the auxiliary shaft 22 against the winding shaft 21 during rotation. The guide grooves 221 set at a certain angle can play a certain guiding role without affecting the normal winding of the yarn 110 on the winding shaft 21, so that the yarn 110 wound on the winding shaft 21 is more evenly distributed and less likely to shift or loosen. In addition, the side walls of the shaft body of the auxiliary shaft 22 and the matching guide grooves 221 can be made of rubber material, so as to avoid unnecessary influence of the auxiliary shaft 22 on the surface of the yarn 110 wound on the winding shaft 21 during rotation.

[0029] The two sides of the winding shaft 21 rotatably arranged on the frame 100 are connected through the claw plate 5 arranged on the frame 100. Figure 1 or Figure 2 As shown, the winding shaft 21 connected on both sides by the claw plate 5 ensures rotation stability while being easy to install and disassemble, and is also convenient for replacing and adjusting the yarn tube and the yarn 110 on the winding shaft 21, thereby improving the convenience and flexibility of use.

[0030] See also Figure 1 The guide assembly 1 includes a guide frame 11, which is slidably arranged on the frame 100 and driven to rotate by a second driving component 102 arranged on the frame 100. The guide frame 11 is provided with a conveying track and a guide head 112 for conveying the yarn 110. The guide head 112 is rotatably provided with a plurality of guide wheels 113. The yarn 110 passes through the conveying track and the guide head 112 arranged on the guide frame 11 and is connected to the winding assembly 2 on the winding reel 21 for winding. The specific structures of the conveying track and the guide head 112 can be respectively referred to Figure 4 and Figure 5 As shown in FIG. 1 , the yarn 110 is driven to slide and transport on the conveying track and the multiple guide wheels 113 provided in the guide head 112. At the same time, the specific structure of the driving component 101 can be seen in FIG. Figure 1 As shown, the driving component 101 can use a ball screw structure to drive the guide frame 11 to slide left and right on the adaptor slide rail 104 provided on the frame 100, thereby driving the yarn 110 to move left and right along the winding shaft 21 and evenly distribute and wind on the winding shaft 21 to realize the winding process of the yarn 110. The structural design of this guide component 1 enables the yarn 110 to have a certain ductility during the transportation process, and while ensuring the transportation stability, it can further reduce the fluctuation, knotting or entanglement of the yarn 110 during the transportation process. The overall structure is simple and compact, which is convenient for inspection and maintenance operations.

[0031] The plurality of guide wheels 113 rotatably arranged on the guide head 112 are distributed up and down and are slidably arranged on the guide head 112 through the slide grooves 1121 arranged in the guide head 112. The slide grooves 1121 are all provided with compression springs 4. The specific distribution mode of the guide wheels 113 and the threading trajectory of the yarn 110 can be seen in Figure 5As shown in the figure, the guide head 112 with such a structure can be adaptively adjusted according to the different stress changes generated by the yarn 110 during the winding process, and plays a certain protective role on the yarn 110, that is, as the diameter of the yarn 110 on the reel 21 gradually increases, the tensile stress of the yarn 110 also changes. The multiple groups of guide wheels 113 on the guide head 112 can slide up and down appropriately in the slide groove 1121 provided on the guide head 112 according to the specific stress changes of the yarn 110. At the same time, the guide wheel 113 is affected by the compression spring 4 in the slide groove 1121 to reduce the sliding amplitude of the guide wheel 113 and the fluctuation amplitude of the yarn 110, thereby further improving the conveying stability of the yarn 110 during the winding process and the stability of the later forming, reducing the probability of the breakage phenomenon, and further improving the winding efficiency of the yarn 110.

[0032] The conveying track of the guide frame 11 is also provided with a receiving groove 6, the receiving groove 6 is slidably arranged on the guide frame 11 and a plurality of guide shafts 61 are rotatably arranged in the groove body 114. Figure 4 As shown, the receiving groove 6 can be added with auxiliary materials such as wax blocks or dyes according to the use requirements, and the yarn 110 is arranged along its conveying track through multiple groups of guide shafts 61 arranged in the receiving groove 6. The specific arrangement of the guide shafts 61 in the receiving groove 6 can be seen in Figure 6 , thereby waxing or dyeing the yarn 110 through the wax block or dyeing agent added to the receiving groove 6, ensuring the stability of the yarn 110 transportation while being suitable for different usage environments and usage requirements, increasing applicability and practicality. At the same time, the receiving groove 6 is slidably arranged on the guide frame 11 through the groove body 114 arranged on the guide frame 11 to fix it, which is convenient for installation and disassembly, and also convenient for adding, replacing and cleaning the additives in the receiving groove 6, thereby improving flexibility and convenience during use.

[0033] The plurality of guide shafts 61 rotatably disposed in the receiving groove 6 are composed of a rubber wheel 611 or a toothed grinding wheel 612. Figure 5 As shown, the guide shaft 61 structure can select any structure setting of the rubber wheel 611 or the toothed grinding wheel 612 according to specific usage requirements. The rubber wheel 611 can play a certain protective role on the yarn 110, and reduce the degree of wear of the guide wheel 113 on the surface of the yarn 110 during the transportation of the yarn 110. In addition, the structure of the toothed grinding wheel 612 can have a certain trimming effect on the surface of the yarn 110 without affecting the normal winding of the yarn 110, thereby reducing the phenomenon that the molding effect is affected by too many or too long burrs on the surface of the yarn 110, and the winding equipment is even damaged.

[0034] See also Figure 7The guide assembly 1 also includes a placement rack 7, which is placed on one side of the frame 100 and is arranged in a retractable structure, including a first frame body 71 and a second frame body 72, the first frame body 71 and the second frame body 72 are connected by a retractable plate 75, and a plurality of placement slots 73 are arranged at the relative positions of the frames, and a plurality of matching rotating shafts 74 are placed in the placement slots 73, and a plurality of yarn tubes and the yarn 110 after winding thereof can be matched and arranged on the rotating shafts 74, and the rotating shafts 74 can be rotated in the placement slots 73 on the first frame body 71 and the second frame body 72, and the placement slot 73 structure can facilitate the yarn tubes and their The wound yarn 110 can be installed and replaced, so that multiple groups of yarns 110 after winding can be uniformly wound on the reel 21 and multiple yarn 110 raw materials can be uniformly wound. It has high adaptability and ease of use, meets different usage requirements and further improves the winding efficiency of the yarn 110. In addition, the placement rack 7 adopts a retractable structure, and the first frame 71 and the second frame 72 can be retracted to a certain extent through the connected retractable plate 75, so that yarn tubes of different specifications and sizes and the wound yarns 110 can be installed and disassembled, increasing the applicability and flexibility of use of this placement rack 7.

[0035] The driving component 101 and the second driving component 102 respectively drive the winding shaft 21 and the guide frame 11 to rotate and slide on the frame 100 in an adaptive manner by means of a synchronous belt 103. Figure 1 As shown in the figure, the driving component 101 drives the winding shaft 21 to rotate through the synchronous belt 103 structure, and the second driving component 102 drives the ball screw to rotate through the synchronous belt 103 structure, thereby driving the guide frame 11 to slide left and right on the frame 100. Compared with the traditional direct drive method, the driving component 101 and the second driving component 102 driven by the synchronous belt 103 reduce the driving load while further improving the operating stability and service life, reducing energy loss while further reducing the degree and risk of damage to the winding shaft 21 and the guide frame 11, and can also reduce the vibration and noise generated during use, and further improve the stability of the winding of the yarn 110, which is convenient for daily inspection and maintenance.

[0036] The above contents described in this specification are merely examples of the present utility model. Those skilled in the art of the present utility model may make various modifications or additions to the specific embodiments described, or replace them in similar ways, as long as they do not deviate from the contents of the present utility model specification or exceed the scope defined in the claims, they shall all fall within the protection scope of the present utility model.

Claims

1. A textile yarn winding mechanism, comprising a frame, wherein the frame is provided with a guide assembly for yarn guiding and a winding assembly for yarn winding, characterized in that: The winding assembly includes a winding shaft and an auxiliary shaft. The winding shaft is rotatably arranged on the frame and driven to rotate by a driving component arranged on the frame. The auxiliary shaft is placed under the winding shaft and is in contact with and adapted to rotate with the winding shaft through a connecting seat arranged on the frame. The connecting seat is placed on both sides of the auxiliary shaft, including a first connecting seat and a second connecting seat. The first connecting seat is slidably arranged on the second connecting seat and a compression spring is arranged at the connection. The second connecting seat is fixed on the frame and the first connecting seat slidably arranged above it is rotatably connected to the auxiliary shaft.

2. A textile yarn winding mechanism according to claim 1, characterized in that: A force-sensitive sensor is arranged in the seat body of the second connecting seat, and the force-sensitive sensor is connected to the bottom of the compression spring arranged at the connection part of the first connecting seat.

3. A textile yarn winding mechanism according to claim 1, characterized in that: A plurality of guide grooves are provided on the shaft body of the auxiliary shaft, and the guide grooves surround and are evenly arranged and distributed on the side wall of the shaft body and are arranged at a certain angle.

4. A textile yarn winding mechanism according to claim 1, characterized in that: The two sides of the winding shaft rotatably arranged on the frame are connected through a claw plate arranged on the frame.

5. A textile yarn winding mechanism according to claim 1, characterized in that: The guide assembly comprises a guide frame which is slidably arranged on the frame and driven to rotate by a second driving component arranged on the frame. The guide frame is provided with a conveying track and a guide head for conveying yarns, and the guide head is rotatably provided with a plurality of guide wheels.

6. A textile yarn winding mechanism according to claim 5, characterized in that: The guide head is rotatably provided with a plurality of guide wheels which are distributed up and down and are slidably provided on the guide head through sliding grooves provided in the guide head, and compression springs are provided in the sliding grooves.

7. A textile yarn winding mechanism according to claim 5, characterized in that: The conveying track of the guide frame is also provided with a receiving groove, the receiving groove is slidably arranged on the guide frame and a plurality of guide shafts are rotatably arranged in the groove body.

8. A textile yarn winding mechanism according to claim 7, characterized in that: The multiple groups of guide shafts rotatably arranged in the receiving groove are composed of any structure of rubber wheels or gear grinding wheels.

9. A textile yarn winding mechanism according to claim 1, characterized in that: The guide assembly also includes a placement rack, which is placed on one side of the frame and adopts a retractable structure, including a first frame body and a second frame body. The first frame body and the second frame body are connected by a retractable plate and multiple groups of placement grooves are arranged at relative positions of the frames, and multiple groups of matching rotating shafts are placed in the placement grooves.

10. A textile yarn winding mechanism according to claim 5, characterized in that: The driving component and the second driving component both use synchronous belts to respectively drive the winding shaft and the guide frame to perform adaptive rotation and sliding on the frame.

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