Waste silk recovery equipment for textile cotton fiber processing process

Abstract

The invention relates to the field of fiber solid waste recovery, in particular to waste silk recovery equipment used in the textile cotton fiber processing process. Comprising a wire inlet disc and an outer plate fixedly connected to the wire inlet disc, a plurality of frame assemblies are fixedly connected to the outer plate, a plurality of through holes I are evenly distributed in the wire inlet disc, a guide pipe I is rotationally connected into each through hole I, and each frame assembly corresponds to one of the guide pipes I; the end, close to the guide pipe I, of each frame assembly is rotationally connected with a guide pipe II, the middle of each frame assembly is rotationally connected with a wire rotating pipe for driving a wire body at the outlet end of the guide pipe II to rotate, and a fixed cleaning assembly for cleaning the outer wall of the wire body is arranged between the guide pipe I corresponding to each guide pipe II. And a movable cleaning assembly for cleaning the outer wall of the thread body is arranged between each winding shaft and the corresponding thread rotating pipe, the thread bodies conveyed after linear conveying and spiral twisting can be cleaned for multiple times, and waste silk wrapped by the thread bodies and waste fibers extending out of the thread bodies are cleaned and recycled.

Description

Technical Field

[0001] The present invention relates to the field of recycling of fibrous solid waste, and more specifically to a waste silk recycling device for the processing of textile cotton fibers. Background Art

[0002] Fiber textile is an important industry covering a wide range of fields. Its core lies in processing fiber materials into textiles through processing and treatment to meet the needs of different fields. The preliminary processing of textile is to process the fibers into single filaments, and then interweave the single filaments into fabrics, or process multiple single filaments into multi-strand single filaments that are wound around each other, and then interweave to form a fabric structure. After the fiber materials are processed into filaments, they are collected or processed through guiding. The filaments processed from the fibers will carry some waste silk for transportation and collection together, resulting in waste of waste silk. The existing technology cannot effectively recycle waste silk during the processing of textile cotton fibers, and cannot clean the filaments transported in a straight line and after being screwed spirally multiple times, clean the waste silk wrapped by the filaments, and recycle the waste fibers discharged from the filaments. Summary of the Invention

[0003] To optimize the deficiencies of the existing technology, the present invention provides a waste silk recycling device for the processing of textile cotton fibers, which can clean the filaments transported in a straight line and after being screwed spirally multiple times, clean the waste silk wrapped by the filaments, and recycle the waste fibers discharged from the filaments.

[0004] The technical solution adopted by the present invention to solve its technical problems is:

[0005] A waste silk recycling device for the processing of textile cotton fibers, including an inlet reel and an outer plate fixedly connected to the inlet reel. A plurality of frame components are fixedly connected to the outer plate. A plurality of through holes Ⅰ are evenly distributed on the inlet reel. A guiding tube Ⅰ is rotatably connected in each through hole Ⅰ. Each frame component corresponds to one of the plurality of guiding tubes Ⅰ. One end of each frame component close to the guiding tube Ⅰ is rotatably connected to a guiding tube Ⅱ. A rotating wire tube that drives the filament at the outlet end of the guiding tube Ⅱ to rotate is rotatably connected in the middle of each frame component. A winding shaft is rotatably connected to the other end of each frame component. A fixed cleaning component for cleaning the outer wall of the filament is arranged between the guiding tubes Ⅰ corresponding to each guiding tube Ⅱ. The fixed cleaning component is arranged on the corresponding frame component. A moving cleaning component for cleaning the outer wall of the filament is arranged between each winding shaft and the corresponding rotating wire tube. Each moving cleaning component is arranged on the corresponding frame component.

[0006] Preferably, each of the frame components includes a first rod fixedly connected to the outer plate for installing the fixed cleaning component. A first bracket for installing the guide tube II is fixedly connected to each first rod and the outer plate. A second bracket for installing the wire rotating tube is fixedly connected to each first bracket. A buckle plate is fixedly connected to each second bracket. A third bracket for installing the moving cleaning component is fixedly connected to each second bracket. A fourth bracket for installing the winding shaft is fixedly connected to each third bracket. The multiple fourth brackets are fixedly connected by an arc plate.

[0007] Preferably, the fixed cleaning component includes two fixed plates fixedly connected to the first rod, and a first cleaning frame and a second cleaning frame are respectively fixedly connected to the two fixed plates.

[0008] Preferably, both the first cleaning frame and the second cleaning frame are funnel-shaped. The smaller-diameter ends of the first cleaning frame and the second cleaning frame both face the guide tube I. A plurality of cleaning claws are provided on both the first cleaning frame and the second cleaning frame. A gap is provided between adjacent cleaning claws. The plurality of cleaning claws on the first cleaning frame and the second cleaning frame are staggered. Each cleaning claw is provided with a cleaning blade.

[0009] Preferably, the moving cleaning component includes a moving frame rotatably connected to the third bracket, and a third cleaning frame and a fourth cleaning frame are fixedly connected to the moving frame.

[0010] Preferably, both the third cleaning frame and the fourth cleaning frame are funnel-shaped. The smaller-diameter ends of the third cleaning frame and the fourth cleaning frame both face the wire rotating tube. A plurality of cleaning claws are provided on both the third cleaning frame and the fourth cleaning frame. A gap is provided between adjacent cleaning claws. The plurality of cleaning claws on the third cleaning frame and the fourth cleaning frame are staggered. Each cleaning claw is provided with a cleaning blade.

[0011] The beneficial effects of a waste silk recovery device for the textile cotton fiber processing process according to the present invention are as follows: It can clean the wire body after linear transportation and spiral twisting transportation multiple times, recycle the waste silk wrapped by the wire body and the waste fibers protruding from the wire body; it can also separate the waste silk of the wire body and cut off the protruding waste fibers through the cleaning blades of the cleaning claws with gaps, achieving the effect of recycling waste silk and waste fibers; it can also change the original state of the fibers through spiral twisting, expose the waste silk wrapped by the wire body and the waste fibers protruding from the wire body, fully clean the waste silk and waste fibers, achieving the effect of recycling waste silk and waste fibers; it can also separate and recycle the waste silk and waste fibers of the wire body after spiral twisting from the wire body through the cleaning blades of the rotating cleaning claws. Description of the Drawings

[0012] The present invention will be further described in detail below with reference to the drawings and specific implementation methods.

[0013] Figure 1 It is a structural schematic diagram of a waste silk recovery device for the textile cotton fiber processing process;

[0014] Figure 2 Partial structural schematic diagram of the structure shown Figure 1 ;

[0015] Figure 3 Side view of the structure shown Figure 2 ;

[0016] Figure 4 Structural schematic diagram of multiple frame components

[0017] Figure 5 Structural schematic diagram of the fixed cleaning component cleaning waste filaments

[0018] Figure 6 Another direction schematic diagram of the structure shown Figure 5 ;

[0019] Figure 7 Structural schematic diagram of the guide tube II

[0020] Figure 8 Structural schematic diagram of driving the wire body to screw spirally

[0021] Figure 9 Structural schematic diagram of the rotating wire tube

[0022] Figure 10 Structural schematic diagram of driving the rotating wire tube to rotate

[0023] Figure 11 Partial enlarged view of the structure shown Figure 10 :

[0024] Figure 12 Structural schematic diagram of driving the moving cleaning component to rotate

[0025] Figure 13 Another direction schematic diagram of the structure shown Figure 12 ;

[0026] In the figure: wire inlet reel 11; outer plate 12; first rod 13; first frame 14; second frame 15; third frame 16; fourth frame 17; buckle plate 18; guide tube I 21; guide tube II 22; rubber strip 23; fixed plate 31; first cleaning frame 32; second cleaning frame 33; rotating wire tube 41; gear I 42; bump 43; gear shaft 51; gear III 52; moving frame 61; gear II 62; third cleaning frame 63; fourth cleaning frame 64; winding shaft 71. Specific embodiments

[0027] Example 1: Refer to Figure 1 , 2 and 3 to describe in detail the process of cleaning waste filaments from long textile fibers for waste filament recovery

[0028] A waste silk recycling device for the processing of textile cotton fibers, comprising a wire inlet disc 11 and an outer plate 12 fixedly connected to the wire inlet disc 11. A plurality of frame components are fixedly connected to the outer plate 12. A plurality of through holes Ⅰ are evenly distributed on the wire inlet disc 11. A guide tube Ⅰ 21 is rotatably connected in each through hole Ⅰ. Each frame component corresponds to one of the plurality of guide tubes Ⅰ 21. One end of each frame component close to the guide tube Ⅰ 21 is rotatably connected to a guide tube Ⅱ 22. A rotating wire tube 41 for driving the wire body at the outlet end of the guide tube Ⅱ 22 to rotate is rotatably connected to the middle of each frame component. A winding shaft 71 is rotatably connected to the other end of each frame component. A fixed cleaning component for cleaning the outer wall of the wire body is arranged between the guide tubes Ⅰ 21 corresponding to each guide tube Ⅱ 22, and the fixed cleaning component is arranged on the corresponding frame component. A moving cleaning component for cleaning the outer wall of the wire body is arranged between each winding shaft 71 and the corresponding rotating wire tube 41, and each moving cleaning component is arranged on the corresponding frame component. The edges of the inner walls of the guide tube Ⅰ 21, the guide tube Ⅱ 22 and the rotating wire tube 41 are all chamfered to prevent the wire body from being cut by the edges when passing through the guide tube Ⅰ 21, the guide tube Ⅱ 22 and the rotating wire tube 41, resulting in the wire body being cut off and damaged, destroying the structure of the wire body fibers and affecting the strength of the wire body;

[0029] The wire feed drum 11 is mainly used to guide the wire body after the rubbing through the guide tube Ⅰ21 in the through hole Ⅰ on the wire feed drum 11, and the guide tube Ⅰ21 can protect and guide the wire body passing through the through hole Ⅰ. The wire body passing through the guide tube Ⅰ21 passes through the guide tube Ⅱ22 for secondary guidance. The axis of the guide tube Ⅱ22 is not perpendicular to the axis of the corresponding guide tube Ⅰ21. The guide tube Ⅱ22 can guide the wire body to change the straight-line transportation mode. The wire inlet of the guide tube Ⅰ21 close to one end of the guide tube Ⅰ21 and the corresponding guide tube Ⅰ21 can guide the wire body between the two. The wire body coincides with the axis of the guide tube Ⅰ21. The wire body can be cleaned by a fixed cleaning component during transportation. The fixed cleaning component can clean the outer wall of the passed wire body, remove the mixed waste wire of the wire body after the wire is kneaded for recycling, and can also cut the burrs on the outer wall of the wire body after the wire is kneaded, and remove the waste wire on the outer wall of the wire body. The wire body passes through the other end of the guide tube Ⅱ22 and passes through the wire turning tube 41. When the wire turning tube 41 rotates around its own axis, it can drive the wire body passing through the middle to rotate, realize the rotation of the wire body for clamping, and increase The compactness of the subsequent multiple wire bodies when they are entangled with each other, plus a more compact multi-strand wire body, which is used for the subsequent weaving of fabrics, is thinner and the processed fabrics are more comfortable. The guidance of the guide tube II 22 changes the wire body from straight line transportation to bending transportation, which can increase the friction of the wire body output by the guide tube II 22 and is not easy to rotate, thereby ensuring that the rotation of the wire turning tube 41 around its own axis can drive the internal wire body to rotate relative to the wire body output by the guide tube II 22, and perform spiral twisting of the wire body, increase the winding force of the single wire body, and also increase The force of multiple single wires being entangled with each other is increased, so that a dense wire can be produced. At the same time, when the single wire is spirally twisted, the mixed waste silk and the spent fiber burrs can be effectively exposed, and can be cleaned and removed by a dynamic cleaning component arranged between the winding shaft 71 and the corresponding wire turning tube 41. The dynamic cleaning component can rotate and slide relative to the passing wire, and can clean the waste silk of the passing wire and remove the spent waste fibers, thereby realizing the recycling of waste silk and waste fibers, and can fully save fibers. Each winding shaft 71 is fixedly connected to the output shaft of the reduction motor I, and each reduction motor I is fixedly connected to the corresponding frame assembly. After the wire body output from the wire turning tube 4 is cleaned by the dynamic cleaning assembly, it is wound on the winding shaft 71 for one week and then collected. The latter multiple wire bodies are wound around each other for processing. The reduction motor I is started to rotate the output shaft to drive the winding shaft 71 to rotate. The winding shaft 71 can constrain the wire body that is spirally wound by itself to prevent the wire body from loosening under the action of its own spiral force. At the same time, it can also ensure the stable transportation of the guided and cleaned wire body. A plurality of protrusions are processed on the outer wall of the winding shaft 71 to increase friction and ensure the fiber and transportation of the wire body;

[0030] To further optimize the constraint of the winding shaft 71 on the wire body and further improve the winding shaft 71, a rubber sleeve can be wrapped around the protrusion of the winding shaft 71 to further increase the constraint of the winding shaft 71 on the wire body. Alternatively, a rubber sleeve can be completely wrapped around the outer wall of the winding shaft 71 to increase the constraint of the winding shaft 71 on the wire body.

[0031] Embodiment 2: Refer to Figure 1 and 3 to describe in detail the process of the support guide tube II 22 and the rotating wire tube 41 guiding the wire body;

[0032] Each of the frame components includes a first rod 13 fixedly connected to the outer plate 12 for installing the fixed cleaning component. A first bracket 14 for installing the guide tube II 22 is fixedly connected to each first rod 13 and the outer plate 12. A second bracket 15 for installing the rotating wire tube 41 is fixedly connected to each first bracket 14. A buckle plate 18 is fixedly connected to each second bracket 15. A third bracket 16 for installing the moving cleaning component is fixedly connected to each second bracket 15. A fourth bracket 17 for installing the winding shaft 71 is fixedly connected to each third bracket 16. A plurality of fourth brackets 17 are fixedly connected by arc plates.

[0033] The axis of the first bracket 14 for installing the guide tube II 22 is inclined, which can ensure that the axis of the guide tube II 22 is inclined with respect to the axis of the guide tube I 21 and is not in a vertical state. This can ensure the guiding transportation of the wire body while preventing jamming. The second bracket 15 for installing the rotating wire tube 41 can ensure that the axis of the rotating wire tube 41 is parallel to the axis of the guide tube I 21, ensuring that the guided wire body is driven by the rotating wire tube 41 to twist spirally around its own axis. The rotating wire tube 41 can also play a role in guiding the wire body.

[0034] Embodiment 3: Refer to Figure 2 、 3 、4 and 5 to describe in detail the process of recycling the waste filaments and waste fibers removed from a single wire body during preliminary cleaning;

[0035] The fixed cleaning component includes two fixed plates 31 fixedly connected to the first rod 13. A first cleaning frame 32 and a second cleaning frame 33 are respectively fixedly connected to the two fixed plates 31.

[0036] Both the first cleaning frame 32 and the second cleaning frame 33 are funnel-shaped. The smaller-diameter ends of the first cleaning frame 32 and the second cleaning frame 33 are both oriented towards the guide tube I 21. A plurality of cleaning claws are provided on both the first cleaning frame 32 and the second cleaning frame 33. There are gaps between adjacent cleaning claws. The plurality of cleaning claws on the first cleaning frame 32 and the second cleaning frame 33 are staggered. Each cleaning claw is provided with a cleaning blade.

[0037] After a single wire passes through the guide tube I 21, it first passes through the first cleaning frame 32, then passes through the second cleaning frame 33, and then passes through the guide tube II 22. The guide tube I 21 and the guide tube II 22 can ensure that the wire in the middle is level. When the wire passes through the first cleaning frame 32, during transportation, the waste silk and waste fiber on the outer wall are removed by the multiple cleaning blades of the first cleaning frame 32 through scraping and cutting to obtain waste silk and waste fiber. The outer diameter of the single wire is completely surrounded by the multiple cleaning blades of the multiple cleaning claws of the first cleaning frame 32. The multiple cleaning blades of the multiple cleaning claws will not scratch the main body of the wire, and the entrained waste silk and the spent waste fiber are removed and cut, so that it can be fully recovered. Waste silk and waste fibers are collected for utilization, and gaps exist between the multiple adjacent cleaning claws on the first cleaning frame 32 and the second cleaning frame 33 for easy removal of the waste silk and waste fibers, which can also provide space for the thread body to deform slightly, thereby preventing the cleaning blades of the funnel-shaped cleaning claws from directly cutting off the thread body and affecting the guidance and subsequent processing of the thread body. The multiple cleaning claws on the first cleaning frame 32 and the second cleaning frame 33 are staggered, which can ensure that the outer wall of the transported thread body is completely free of waste silk and waste fibers, thereby preventing the existence of cleaning dead corners, causing waste silk and waste fibers to be wrapped by the thread body and exposed to the outside, thereby preventing burrs from being present in the subsequent woven fabrics, affecting the user's experience of the fabrics woven with the thread body.

[0038] Example 4: Reference Figure 1 , 3 , 12 and 13, detailing the process of cleaning the spirally twisted wire body;

[0039] The dynamic cleaning assembly includes a dynamic frame 61 rotatably connected to the third frame 16 , and a third cleaning frame 63 and a fourth cleaning frame 64 are fixedly connected to the dynamic frame 61 .

[0040] The third cleaning frame 63 and the fourth cleaning frame 64 are both funnel-shaped, and the ends with smaller diameters of the third cleaning frame 63 and the fourth cleaning frame 64 are both arranged toward the wire transfer tube 41. The third cleaning frame 63 and the fourth cleaning frame 64 are both provided with a plurality of cleaning claws, and gaps are provided between adjacent cleaning claws. The plurality of cleaning claws on the third cleaning frame 63 and the fourth cleaning frame 64 are arranged in an alternating manner, and each cleaning claw is provided with a cleaning blade.

[0041] After the wire body is driven by the rotation of the wire tube 41 to be spirally twisted, the wire body passes through the third cleaning frame 63 and then through the fourth cleaning frame 64. The moving frame 61 can rotate around its own axis, thereby driving the third cleaning frame 63 and the fourth cleaning frame 64 to rotate. The cleaning blades of the multiple cleaning claws on the third cleaning frame 63 and the fourth cleaning frame 64 can remove waste filaments from the outside of the spirally twisted wire body and cut the waste fibers discharged. After the wire body is spirally twisted, the fibers are more compact and the outer wall diameter decreases. During the spiral twisting process, the originally wrapped fibers and waste filaments can also be exposed. Furthermore, the cleaning blades of the cleaning claws on the rotating third cleaning frame 63 and fourth cleaning frame 64 can clean the waste filaments and waste fibers wrapped by the wire body. The gaps provided between adjacent cleaning claws can allow the waste filaments of the wire body and the waste fibers discharged to be exposed, preventing the waste filaments and waste fibers on the transported wire body from being unable to be cleaned under the fish-scale-like stacking pressure. The waste filaments and waste fibers on the wire body can be stretched through the gaps, facilitating the third cleaning frame 63 and the fourth cleaning frame 64 to clean and recycle the waste filaments and waste fibers discharged from the wire body.

[0042] Embodiment Five: Refer to Figure 1 、 3 、8, 9, 10, 11, 12 and 13 to detail the embodiment of synchronously driving the wire tube 41, the third cleaning frame 63 and the fourth cleaning frame 64 to rotate:

[0043] A gear I 42 is fixedly connected to the wire tube 41, a gear II 62 is fixedly connected to the moving frame 61, a gear shaft 51 for driving the gear I 42 to rotate is rotatably connected to the buckle plate 18, and a gear III 52 for driving the gear II 62 to rotate is fixedly connected to the end of the gear shaft 51.

[0044] The gear shaft 51 is fixedly connected to the output shaft of the reduction motor II. The reduction motor II is fixedly connected to the buckle plate 18. When the reduction motor II is started, the output shaft of the reduction motor II drives the gear shaft 51 to rotate. The gear shaft 51 meshes with and drives the gear I 42 to rotate. The gear I 42 drives the wire tube 41 to rotate, thereby enabling the wire tube 41 to drive the internally transmitted wire body to be spirally twisted. The gear shaft 51 drives the gear III 52 to rotate. The gear III 52 meshes with and drives the gear II 62 to rotate. The gear II 62 drives the moving frame 61 to rotate. The moving frame 61 drives the third cleaning frame 63 and the fourth cleaning frame 64 to rotate, thereby realizing the cleaning of the wire body transported after being spirally twisted by the third cleaning frame 63 and the fourth cleaning frame 64.

[0045] Embodiment Six: Refer to Figure 12 and 13 to detail the process of ensuring that the rotation speeds of the third cleaning frame 63 and the fourth cleaning frame 64 relative to the wire tube 41 are fast and fully cleaning the wire body;

[0046] The gear I 42 and the gear II 62 are coaxially arranged, and the pitch diameter of the gear I 42 is larger than that of the gear II 62.

[0047] Thus, when the gear shaft 51 drives the gear III 52 to rotate synchronously, the gear III 52 meshes with and drives the gear II 62 to rotate, the gear II 62 drives the moving frame 61 to rotate, the moving frame 61 drives the third cleaning frame 63 and the fourth cleaning frame 64 to rotate, the gear shaft 51 meshes with and drives the gear I 42 to rotate, and the gear I 42 drives the wire coil tube 41 to rotate, ensuring that the moving frame 61 rotates faster, and the rotation speeds of the third cleaning frame 63 and the fourth cleaning frame 64 are greater than the rotation speed of the wire coil tube 41, so as to ensure that the spiral directions of the rotations of the third cleaning frame 63 and the fourth cleaning frame 64 are along the direction of the spiral twisting of the wire body, avoiding the situation that the third cleaning frame 63 and the fourth cleaning frame 64 move in the opposite direction to the spirally twisted wire body, which may scratch the wire body and is not conducive to the processing and transportation of the wire body.

[0048] Example VII, refer to Figure 7 , and elaborate on the process of ensuring that the wire body driven by the rotation of the wire coil tube 41 undergoes spiral twisting processing relative to the wire body in the guide tube II 22;

[0049] On the inner wall of each guide tube II 22, two protruding rubber strips 23 are symmetrically arranged. The two rubber strips 23 can increase the friction between the wire body in the guide tube II 22 and the guide tube II 22, ensuring that the wire body in the guide tube II 22 does not rotate relatively. When the wire coil tube 41 rotates, it can drive the wire body to undergo spiral twisting relative to the wire body in the guide tube II 22, facilitating the processing of a wire body with a dense texture and exposing the waste filaments and fibers wrapped in the wire body through spiral twisting, facilitating the cleaning of the wire body by the third cleaning frame 63 and the fourth cleaning frame 64, and recycling the waste filaments and waste fibers.

[0050] Example VIII: Refer to Figure 9 , and elaborate on the process of increasing the friction between the inner wall of the wire coil tube 41 and the wire body and driving the wire body to undergo spiral twisting processing through the rotation of the wire coil tube 41

[0051] On the inner wall of each wire coil tube 41, a plurality of convex points 43 are arranged. The plurality of convex points 43 can increase the friction between the inner wall of the wire coil tube 41 and the wire body, ensuring that the rotation of the wire coil tube 41 drives the wire body to undergo spiral twisting and ensuring the effect of driving the wire body to undergo spiral twisting.

[0052] In order to further optimize the effect of the wire coil tube 41 driving the wire body passing through it to undergo spiral twisting, the plurality of convex points 43 arranged on the inner wall of the wire coil tube 41 can be set as spiral-shaped rubber, thereby increasing the friction between the wire coil tube 41 and the wire body through the rubber, and realizing the extrusion of the wire body through the arrangement of the plurality of rubbers, so as to ensure that the rotation of the wire coil tube 41 drives the wire body to undergo spiral twisting and ensure the effect of driving the wire body to undergo spiral twisting.

Claims

1. A waste silk recovery device for use in a textile cotton fiber processing process, comprising a wire feeder reel and an outer plate fixedly connected to the wire feeder reel, wherein a plurality of frame components are fixedly connected to the outer plate, and wherein: A plurality of through holes Ⅰ are evenly distributed on the wire inlet reel, and a guide tube Ⅰ is rotatably connected in each through hole Ⅰ, and each frame assembly corresponds to one of the plurality of guide tubes Ⅰ, and a guide tube Ⅱ is rotatably connected at one end of each frame assembly close to the guide tube Ⅰ, and a rotating wire tube for driving the wire body at the outlet end of the guide tube Ⅱ to rotate is rotatably connected in the middle of each frame assembly, and a winding shaft is rotatably connected to the other end of each frame assembly, and a fixed cleaning assembly for cleaning the outer wall of the wire body is arranged between each guide tube Ⅱ and the guide tube Ⅰ, and the fixed cleaning assembly is arranged on the corresponding frame assembly, and a dynamic cleaning assembly for cleaning the outer wall of the wire body is arranged between each winding shaft and the corresponding rotating wire tube, and each dynamic cleaning assembly is arranged on the corresponding frame assembly.

2. The waste silk recovery device for use in the textile cotton fiber processing process according to claim 1, characterized in that: Each of the frame assemblies includes a first rod fixedly connected to an outer plate for mounting a fixed cleaning assembly, a first frame for mounting a guide tube II is fixedly connected to each first rod and the outer plate, a second frame for mounting a wire transfer tube is fixedly connected to each first frame, a buckle plate is fixedly connected to each second frame, a third frame for mounting a dynamic cleaning assembly is fixedly connected to each second frame, a fourth frame for mounting a winding shaft is fixedly connected to each third frame, and multiple fourth frames are fixedly connected via arc plates.

3. The waste silk recovery device for use in the textile cotton fiber processing process according to claim 2, characterized in that: The fixed cleaning assembly comprises two fixed plates fixedly connected to the first rod, and the first cleaning frame and the second cleaning frame are fixedly connected to the two fixed plates respectively.

4. The waste silk recovery device for use in the textile cotton fiber processing process according to claim 3, characterized in that: The first cleaning frame and the second cleaning frame are both funnel-shaped, and the ends with smaller diameters of the first cleaning frame and the second cleaning frame are both arranged toward the guide tube I. The first cleaning frame and the second cleaning frame are both provided with a plurality of cleaning claws, and gaps are provided between adjacent cleaning claws. The plurality of cleaning claws on the first cleaning frame and the second cleaning frame are arranged alternately, and each cleaning claw is provided with a cleaning blade.

5. The waste silk recovery device for use in the textile cotton fiber processing process according to claim 2, characterized in that: The dynamic cleaning assembly comprises a dynamic frame rotatably connected to the third frame, and the dynamic frame is fixedly connected to the third cleaning frame and the fourth cleaning frame.

6. The waste silk recovery device for use in the textile cotton fiber processing process according to claim 5, characterized in that: The third cleaning frame and the fourth cleaning frame are both funnel-shaped, and the ends with smaller diameters of the third cleaning frame and the fourth cleaning frame are both arranged toward the wire transfer tube. The third cleaning frame and the fourth cleaning frame are both provided with a plurality of cleaning claws, and gaps are provided between adjacent cleaning claws. The plurality of cleaning claws on the third cleaning frame and the fourth cleaning frame are arranged in an alternating manner, and each cleaning claw is provided with a cleaning blade.

7. The waste silk recovery device for use in the textile cotton fiber processing process according to claim 6, characterized in that: The turning tube is fixedly connected with a gear I, the moving frame is fixedly connected with a gear II, the buckle plate is rotatably connected with a gear shaft driving the gear I to rotate, and the end of the gear shaft is fixedly connected with a gear III driving the gear II to rotate.

8. The waste silk recovery device for use in the textile cotton fiber processing process according to claim 7, characterized in that: The gear I and gear II are coaxially arranged, and the pitch circle diameter of gear I is larger than the pitch circle diameter of gear II.

9. The waste silk recovery device for use in the textile cotton fiber processing process according to claim 1, characterized in that: Two raised rubber strips are symmetrically arranged on the inner wall of each guide tube II.

10. The waste silk recovery device for use in the textile cotton fiber processing process according to claim 1, characterized in that: A plurality of convex points are arranged on the inner wall of each of the wire turning tubes.

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