A bristling device for a production line

Abstract

The utility model relates to a hair planting equipment technical field especially relates to a hair planting equipment for production line, including hair planting equipment body, the hair planting equipment body includes support base, is provided with the frame upper plate on the support base, is provided with the lifting workstation between the support base and frame upper plate, the frame upper plate is provided with main body frame, one side of main body frame is provided with the tensioning adjustment subassembly, the tensioning adjustment subassembly cooperation is provided with the feeding assembly, the inside of main body frame is provided with the wire feeding assembly, the other side of main body frame is provided with the silk cutting assembly, the silk cutting assembly cooperation is provided with the hair planting piece, the bottom of hair planting piece is provided with the hair conveying mouth, the utility model discloses through set up linkage limiting component, makes wire feeding, silk cutting etc. Key process realizes efficient collaborative operation, cooperates the optimized feeding structure, has realized the significant promotion of hair planting equipment production efficiency, can better satisfy the operation demand of production line large -scale, high rhythm.

Description

Technical Field

[0001] This utility model relates to the field of tufting equipment technology, and in particular to a tufting equipment for production lines. Background Technology

[0002] In many industrial production sectors, the flocking process is a crucial step, and its quality and efficiency directly affect the final quality and market competitiveness of the product.

[0003] Traditional tufting operations rely primarily on manual labor, requiring workers to manually insert the tufts into the appropriate locations. This method is not only labor-intensive and inefficient, but also makes it difficult to precisely control the uniformity and density of the tufts, resulting in inconsistent product quality, a high defect rate, and an inability to meet the demands of large-scale, standardized production.

[0004] With the development of automation technology, early flocking equipment, while improving production efficiency to some extent, had many problems. In terms of tension adjustment, it lacked a flexible and precise adjustment mechanism, making it difficult to adapt to the tension requirements of different materials and specifications of flocking fibers. This easily resulted in flocking fibers being either too loose or too tight, affecting the flocking effect. The fiber feeding assembly had poor stability, with uneven feeding speed, frequently causing fiber jamming and breakage, leading to production interruptions and increased production costs. The fiber cutting process was also unsatisfactory; the cutting precision of the cutter was insufficient, resulting in flocking fibers of varying lengths after cutting, affecting the product's appearance and performance.

[0005] Furthermore, the existing equipment suffers from poor coordination between its components and a lack of effective linkage control, making it impossible to achieve a highly efficient and smooth automated production process. Therefore, developing a production line tufting equipment with precise tension adjustment, stable tuft feeding, accurate tuft cutting, and good collaborative working capabilities has become an urgent problem to be solved in the industry. Utility Model Content

[0006] To address some of the problems existing in the prior art, this utility model provides a tufting device for a production line. By setting up a linkage limit component, this utility model enables key processes such as tuft feeding and tuft cutting to achieve efficient and coordinated operation. Combined with an optimized feeding structure, it significantly reduces the waiting time between each step, thereby significantly improving the production efficiency of the tufting device and better meeting the needs of large-scale, high-paced operations on the production line.

[0007] To achieve the above objectives, this utility model provides a tufting device for a production line, comprising a tufting device body, the tufting device body including a support base, a frame upper plate disposed on the support base, a lifting worktable disposed between the support base and the frame upper plate, a main frame disposed on the frame upper plate, a tension adjustment component disposed on one side of the main frame, a feeding component disposed in cooperation with the tension adjustment component, a wire feeding component disposed inside the main frame, a wire cutting component disposed on the other side of the main frame, a tufting component disposed in cooperation with the wire cutting component, and a tufting nozzle disposed at the bottom of the tufting component.

[0008] As a further improvement of this utility model, in order to accurately adjust the tension of the wire, ensure the stability of the wire during the conveying process, and avoid wire breakage or poor conveying caused by improper tension, the tension adjustment component includes a tension support plate set on the main frame, a feed roller on the side of the tension support plate near the main frame, a fixed roller on the other side of the tension support plate, a tension fixing plate in cooperation with the fixed roller, a tension connecting plate below the tension fixing plate, a tension top rod between the tension fixing plate and the tension connecting plate, a tension adjusting slider on the tension top rod, a tension adjusting wheel on the tension adjusting slider, and an internal hexagon limit bolt on the fixed roller on the tension support plate.

[0009] As a further improvement of this utility model, in order to provide stable support for the wire feeding process, further stabilize the wire position, prevent the wire from deviating during the conveying process, and ensure the accuracy of wire feeding, the wire feeding assembly includes a power shaft that runs through the main frame, a wire feeding support base that is provided on one side of the main frame, a first sliding plate and a second sliding plate that are provided on the wire feeding support base, a wire feeding main wheel that is provided on one side of the power shaft and on the main frame, a wire feeding support plate that is provided on one side of the wire feeding main wheel, a wire feeding limit plate and a wire feeding side plate that are provided on the wire feeding support plate, the wire feeding limit plate and the wire feeding side plate being spliced ​​together, and a wire feeding groove for wire movement being provided inside, and a limit spring bolt that is provided in cooperation with the wire feeding limit plate and the wire feeding side plate on the wire feeding support plate.

[0010] As a further improvement of this utility model, in order to achieve precise control of the wire feeding process, further assist in the stable feeding of the wire, and ensure that the entire wire feeding process is coordinated and orderly, a wire feeding eccentric cam is provided on the power shaft. The wire feeding eccentric cam is equipped with a second linkage limiting component. A first linkage limiting component is provided on the first sliding plate. The first linkage limiting component includes a first sliding block provided on the first sliding plate. A wire feeding base is provided on the first sliding block. The wire feeding base is equipped with a limiting protrusion to prevent the wire from moving. A wire feeding limiting rib is provided on one side of the wire feeding base. A wire feeding sliding wheel is provided on one side of the wire feeding limiting rib. A wire feeding connecting seat is provided on one side of the first sliding block. A wire feeding screw is equipped on the wire feeding connecting seat and is connected to the wire feeding main wheel through the wire feeding screw.

[0011] As a further improvement of this utility model, in order to achieve dynamic adjustment of the wire feeding, make the linkage process more stable, ensure that the wire maintains the correct position and tension during the feeding process, and improve the stability and accuracy of wire feeding, the second linkage limiting component includes a linkage sliding block disposed on the first sliding plate. A linkage connecting plate is disposed on the top of the linkage sliding block, and a linkage connecting member is connected to the linkage connecting plate. A linkage top wheel is disposed on one side of the linkage connecting member, and the linkage top wheel is configured to cooperate with the wire feeding eccentric cam. A linkage connecting rib is disposed on the other side of the linkage connecting member through a cylinder sleeve pin. A linkage fixing block is connected to the linkage connecting rib through a cylinder sleeve pin. A linkage connecting block is disposed below the linkage fixing block. The linkage connecting block is slidably disposed with the second sliding plate. A sliding groove is disposed on the side of the linkage fixing block near the wire feeding sliding wheel, and the sliding groove is configured to cooperate with the wire feeding sliding wheel.

[0012] As a further improvement of this utility model, in order to precisely adjust and limit the position of the cutter, ensure the accurate length of the cut wire, guide the wire to move accurately to the cutter position, achieve precise cutting, and improve the shredding quality and tufting effect, the shredding assembly includes a shredding fixing seat set on the main frame, a tufting hook movably set on the shredding fixing seat, a joint screw set at the end of the tufting hook, a shredding mounting plate set on the tufting hook through the joint screw, a cutter set on the shredding mounting plate, a shredding adjustment plate set on the cutter below the main frame, a shredding limiting plate set on one side of the shredding adjustment plate, and a shredding tungsten steel for wire movement inserted inside the adjustment plate, with a wire transfer groove set inside the shredding tungsten steel.

[0013] As a further improvement of this utility model, in order to realize automatic feeding of the wire and ensure that the wire is uniformly and stably transported to the subsequent process, thereby improving the degree of automation and production efficiency, the feeding component includes a feeding support frame disposed on one side of the main frame. A feeding drive motor is disposed on one side of the feeding support frame. A wire winch is disposed on the feeding support frame in conjunction with the feeding drive motor. Both the wire winch and the feeding drive motor are disposed with feeding connecting gears. The two sets of feeding connecting gears are connected and driven by a belt.

[0014] When this utility model is in operation, the feeding drive motor starts, and through the transmission of the feeding connecting gear and belt, it drives the wire winch to rotate, drawing the wire from the external material source to provide raw materials for subsequent wire feeding.

[0015] After being drawn out, the wire enters the tension adjustment assembly. The feed roller on the tension support plate guides the wire's direction. By adjusting the tension adjustment slider on the tensioning top rod, the tension adjustment roller moves, changing the tension of the wire between the fixed roller and the tension adjustment roller, ensuring stable tension and providing a guarantee for subsequent stable wire feeding.

[0016] The rotation of the power shaft drives the main wire feeding wheel to rotate, and the eccentric cam for wire feeding also rotates accordingly. The main wire feeding wheel drives the wire feeding connecting seat through the wire feeding screw, which in turn causes the first sliding block to move on the first sliding plate. The wire feeding groove between the wire feeding bar limiting plate and the wire feeding side plate provides a transport channel for the wire. The wire feeding side plate and the wire feeding limiting plate are elastically connected by limiting spring bolts to form an adjustable clamping structure. The limiting protrusion and the wire feeding limiting rib on the wire feeding base work together to accurately position and guide the wire. The limiting protrusion prevents the wire from slipping off in the horizontal direction, and the wire feeding limiting rib further constrains the position of the wire. While the wire is being transported, the limiting spring on the spring mounting seat pushes the wire feeding limiting rib towards the limiting protrusion through elastic force, so that the wire is always close to the limiting protrusion and always located between the limiting protrusion and the wire feeding limiting rib, preventing deviation.

[0017] When the eccentric cam for wire feeding rotates, the linkage sliding block drives the linkage connecting plate and other components to move through the linkage action of the second linkage limit component. This causes the linkage fixing block to cooperate with the wire feeding sliding wheel in the sliding groove, further precisely controlling the wire feeding and ensuring that the wire enters the next process stably and accurately.

[0018] When the wire is fed to the appropriate length, the shredding assembly begins to operate. The shuttle crank on the shredding holder swings under power, driving the shredding mounting plate via the joint screw, causing the cutter to quickly cut the wire. The shredding adjustment plate and shredding limit plate can adjust the cutter position and cutting force, while the wire guide groove inside the tungsten carbide shredding plate guides the wire, ensuring accurate and neat cutting.

[0019] After being cut, the filaments enter the filament implantation unit through the filament feeding nozzle. After being sorted inside the filament implantation unit, they are transported to the lifting worktable by the filament feeding nozzle to complete the filament implantation action. This cycle is repeated to achieve continuous filament implantation operation on the production line.

[0020] The beneficial effects of this utility model are as follows: With a rational structure and stable operation, the equipment boasts a compact overall layout. Components such as the support base, upper frame, and lifting platform work together to provide a solid foundation for operation. The tension adjustment component precisely regulates the wire tension, ensuring constant tension during wire feeding and preventing wire breakage or poor feeding due to uneven tension, thus guaranteeing stable equipment operation.

[0021] Precise and efficient wire feeding: The wire feeding assembly is ingeniously designed. The power shaft drives the main wire feeding wheel and the eccentric cam to work together. Through the linkage of the first and second linkage limit components, the movement of the first and second sliding plates is precisely controlled, achieving precise wire feeding. The wire feeding limit plate, wire feeding side plate, and wire feeding groove further regulate the wire movement path and improve wire feeding efficiency and accuracy.

[0022] High-quality shredding: The shredding assembly, with its shuttle bend, shredding mounting plate, and cutter working together, enables fast and accurate cutting of the thread. The shredding adjustment plate and shredding limit plate allow for flexible adjustment of the cutter position and cutting force, adapting to the cutting needs of different thread specifications and ensuring high-quality shredding.

[0023] Convenient feeding: The feeding assembly adopts a feeding drive motor, feeding connecting gear and belt drive to realize the automatic rotation of the wire winch for feeding. It is easy to operate, reduces manual intervention, improves production efficiency and meets the requirements of continuous operation of the production line. Attached Figure Description

[0024] To facilitate understanding by those skilled in the art, the present invention will be further described below with reference to the accompanying drawings: Figure 1 This is a structural diagram of the present invention.

[0025] Figure 2 This is a structural diagram of the tension adjustment component.

[0026] Figure 3 This is a structural diagram of the wire feeding assembly.

[0027] Figure 4 This is a diagram showing the connection between the wire feeding assembly and the main frame.

[0028] Figure 5 This is a structural diagram of the first linkage limit component.

[0029] Figure 6 This is a structural diagram of the second linkage limit component.

[0030] Figure 7 This is a structural diagram of the shredding assembly.

[0031] Figure 8 This is a structural diagram of the feeding assembly.

[0032] The components include: 1. Support base; 2. Upper frame plate; 3. Lifting worktable; 4. Main frame; 5. Tension adjustment assembly; 501. Tension support plate; 502. Feeding wheel; 503. Fixed wheel; 504. Tension fixing plate; 505. Tension connecting plate; 506. Tension top rod; 507. Tension adjustment slider; 508. Tension adjustment wheel; 509. Hexagon socket head cap screw; 6. Feeding assembly; 601. Feeding support frame; 602. Feeding drive motor; 603. Wire winch; 604. Feeding connecting gear; 7. Wire feeding assembly; 701. Power shaft; 702. Wire feeding support base; 703. First sliding plate; 704. Second sliding plate; 705. Wire feeding main wheel; 706. Wire feeding support plate; 707. Wire feeding limit plate; 708. Wire feeding side plate; 709. Wire feeding groove; 710. Limiting spring bolt; 8. Wire cutting assembly; 80. 1. Cutting fixing seat, 802. Hair hook, 803. Joint screw, 804. Cutting mounting plate, 805. Cutting knife, 806. Cutting adjusting plate, 807. Cutting limiting plate, 808. Cutting tungsten steel, 809. Wire transfer groove, 9. Hair insertion part, 10. Hair feeding nozzle, 11. Wire feeding eccentric cam, 12. First linkage limiting assembly, 1201. First sliding block, 1202. Wire feeding base, 1203. Limiting protrusion, 1204. Wire feeding limiting rib, 1205. Wire feeding sliding wheel, 1206. Wire feeding connecting seat, 1207. Wire feeding screw, 13. Second linkage limiting assembly, 1301. Linkage sliding block, 1302. Linkage connecting plate, 1303. Linkage connecting piece, 1304. Linkage top wheel, 1305. Linkage connecting rib, 1306. Linkage fixing block, 1307. Linkage connecting block, 1308. Sliding groove. Detailed Implementation

[0033] To enable those skilled in the art to better understand the technical solutions in this application, the following description is provided in conjunction with the appendix. Figure 1-8 The present invention will be further described below. The following embodiments are only used to illustrate the technical solution of the present invention more clearly, and should not be used to limit the protection scope of the present invention.

[0034] like Figure 1-8The illustrated tufting equipment for a production line includes a tufting equipment body, which includes a support base 1. A frame upper plate 2 is mounted on the support base 1. A lifting worktable 3 is provided between the support base 1 and the frame upper plate 2. A main frame 4 is mounted on the frame upper plate 2. A tension adjustment component 5 is provided on one side of the main frame 4. A feeding component 6 is provided in cooperation with the tension adjustment component 5. A wire feeding component 7 is provided inside the main frame 4. A wire cutting component 8 is provided on the other side of the main frame 4. A tufting component 9 is provided in cooperation with the wire cutting component 8. A tufting nozzle 10 is provided at the bottom of the tufting component 9.

[0035] The tension adjustment assembly 5 includes a tension support plate 501 mounted on the main frame 4, a feed wheel 502 on one side of the tension support plate 501 near the main frame 4, a fixed wheel 503 on the other side of the tension support plate 501, a tension fixing plate 504 in cooperation with the fixed wheel 503, a tension connecting plate 505 below the tension fixing plate 504, a tension top rod 506 between the tension fixing plate 504 and the tension connecting plate 505, a tension adjusting slider 507 on the tension top rod 506, a tension adjusting wheel 508 on the tension adjusting slider 507, and an internal hexagonal limit bolt 509 on the fixed wheel 503 on the tension support plate 501.

[0036] The wire feeding assembly 7 includes a power shaft 701 that runs through the main frame 4. A wire feeding support base 702 is provided on one side of the main frame 4. A first sliding plate 703 and a second sliding plate 704 are provided on the wire feeding support base 702. A wire feeding main wheel 705 is provided on one side of the power shaft 701 on the main frame 4. A wire feeding support plate 706 is provided on one side of the wire feeding main wheel 705. A wire feeding limit plate 707 and a wire feeding side plate 708 are provided on the wire feeding support plate 706. The wire feeding limit plate 707 and the wire feeding side plate 708 are spliced ​​together and have a wire feeding groove 709 for wire movement inside. The wire feeding support plate 706 is provided with a limit spring bolt 710 that cooperates with the wire feeding limit plate 707 and the wire feeding side plate 708.

[0037] A wire feeding eccentric cam 11 is provided on the power shaft 701. The wire feeding eccentric cam 11 is equipped with a second linkage limiting component 13. A first linkage limiting component 12 is provided on the first sliding plate 703. The first linkage limiting component 12 includes a first sliding block 1201 provided on the first sliding plate 703. A wire feeding base 1202 is provided on the first sliding block 1201. A limiting protrusion 1203 to prevent the wire from moving is provided on the wire feeding base 1202. A wire feeding limiting rib 1204 is provided on one side of the wire feeding limiting rib 1204. A wire feeding sliding wheel 1205 is provided on one side of the wire feeding limiting rib 1204. A wire feeding connecting seat 1206 is provided on one side of the first sliding block 1201. A wire feeding screw 1207 is equipped on the wire feeding connecting seat 1206 and is connected to the wire feeding main wheel 705 through the wire feeding screw 1207.

[0038] The second linkage limiting component 13 includes a linkage sliding block 1301 disposed on the first sliding plate 703. A linkage connecting plate 1302 is disposed on the top of the linkage sliding block 1301. A linkage connecting member 1303 is connected to the linkage connecting plate 1302. A linkage top wheel 1304 is disposed on one side of the linkage connecting member 1303. The linkage top wheel 1304 is configured to cooperate with the wire feeding eccentric cam. A linkage connecting rib 1305 is disposed on the other side of the linkage connecting member 1303 through a cylinder sleeve pin. A linkage fixing block 1306 is connected to the linkage fixing block 1305 through a cylinder sleeve pin. A linkage connecting block 1307 is disposed below the linkage fixing block 1306. The linkage connecting block 1307 is slidably disposed with the second sliding plate 704. A sliding groove 1308 is disposed on the side of the linkage fixing block 1306 near the wire feeding sliding wheel 1205. The sliding groove 1308 is configured to cooperate with the wire feeding sliding wheel 1205.

[0039] The shredding assembly 8 includes a shredding fixing seat 801 mounted on the main frame 4. A shuttle bend 802 is movably mounted on the shredding fixing seat. A joint screw 803 is provided at the end of the shuttle bend 802. A shredding mounting plate 804 is mounted on the shuttle bend 802 via the joint screw 803. A cutter 805 is mounted on the shredding mounting plate 804. A shredding adjusting plate 806 is provided below the cutter 805 on the main frame 4. A shredding limiting plate 807 is provided on one side of the shredding adjusting plate 806. A shredding tungsten steel 808 for moving the shredding wire is inserted inside the adjusting plate. A wire-moving groove 809 is provided inside the shredding tungsten steel 808.

[0040] The feeding assembly 6 includes a feeding support frame 601 disposed on one side of the main frame 4. A feeding drive motor 602 is disposed on one side of the feeding support frame 601. A wire winch 603 is disposed on the feeding support frame 601 in cooperation with the feeding drive motor 602. Both the wire winch 603 and the feeding drive motor 602 are provided with feeding connecting gears 604. The two sets of feeding connecting gears 604 are connected and driven by a belt.

[0041] When this utility model is in operation, the feeding drive motor 602 starts, and through the transmission of the feeding connecting gear 604 and the belt, it drives the wire winch 603 to rotate, drawing the wire out from the external material source to provide raw materials for subsequent wire feeding.

[0042] After being drawn out, the wire enters the tension adjustment assembly 5. The feed roller 502 on the tension support plate 501 guides the wire's direction. By adjusting the tension adjustment slider 507 on the tension top rod 506, the tension adjustment wheel 508 is moved, changing the tension of the wire between the fixed wheel 503 and the tension adjustment wheel 508, ensuring stable tension and providing a guarantee for subsequent stable wire feeding.

[0043] The rotation of the power shaft 701 drives the main wire feeding wheel 705 to rotate, and the eccentric cam 11 for wire feeding also rotates accordingly. The main wire feeding wheel 705 drives the wire feeding connecting seat 1206 through the wire feeding screw 1207, which in turn causes the first sliding block 1201 to move on the first sliding plate 703. The wire feeding groove 709 between the wire feeding bar limiting plate and the wire feeding side plate 708 provides a transport channel for the wire. The wire feeding side plate 708 and the wire feeding limiting plate 707 are elastically connected by the limiting spring bolt 710 to form an adjustable clamping structure. The limiting protrusion 1203 and the wire feeding limiting rib 12 on the wire feeding base 1202 are also included. The four components work together to precisely position and guide the thread. The limiting protrusion 1203 prevents the thread from slipping in the horizontal direction, and the thread feeding limiting rib 1204 further constrains the position of the thread. While the thread is being transported, the limiting spring on the spring mounting seat pushes the thread feeding limiting rib 1204 towards the limiting protrusion 1203 through elastic force, so that the thread always stays close to the limiting protrusion 1203 and is always located between the limiting protrusion 1203 and the thread feeding limiting rib 1204, preventing deviation.

[0044] When the wire feeding eccentric cam 11 rotates, the linkage sliding block 1301 drives the linkage connecting plate 1302 and other components to move through the linkage action of the second linkage limit component 13, so that the linkage fixing block 1306 cooperates with the wire feeding sliding wheel 1205 in the sliding groove 1308, further precisely controlling the wire feeding and ensuring that the wire enters the next process stably and accurately.

[0045] When the wire is fed to the appropriate length, the shredding assembly 8 begins to operate. The shuttle hook 802 on the shredding fixing seat 801 swings under power, driving the shredding mounting plate 804 via the joint screw 803, causing the cutter 805 to quickly cut the wire. The shredding adjustment plate 806 and the shredding limit plate 807 can adjust the position and cutting force of the cutter 805. The wire guide groove 809 within the shredding tungsten carbide 808 guides the wire, ensuring accurate and neat cutting.

[0046] After being cut, the filaments enter the filament implantation unit 9 through the filament feeder 10. After being sorted in the filament implantation unit 9, they are transported to the lifting worktable 3 by the filament feeder 10 to complete the filament implantation action. This cycle is repeated to realize continuous filament implantation operation on the production line.

[0047] This utility model is not limited to the above embodiments. Based on the technical solutions disclosed in this utility model, those skilled in the art can make some substitutions and modifications to some of the technical features without creative labor, and these substitutions and modifications are all within the protection scope of this utility model.

Claims

1. A tufting device for a production line, comprising a tufting device body, characterized in that, The main body of the tufting equipment includes a support base (1), a frame plate (2) is provided on the support base (1), a lifting worktable (3) is provided between the support base (1) and the frame plate (2), a main frame (4) is provided on the frame plate (2), a tension adjustment component (5) is provided on one side of the main frame (4), a feeding component (6) is provided in cooperation with the tension adjustment component (5), a wire feeding component (7) is provided inside the main frame (4), a wire cutting component (8) is provided on the other side of the main frame (4), a tufting component (9) is provided in cooperation with the wire cutting component (8), and a tufting nozzle (10) is provided at the bottom of the tufting component (9).

2. The flocking equipment for a production line according to claim 1, characterized in that, The tension adjustment assembly (5) includes a tension support plate (501) mounted on the main frame (4). The tension support plate (501) has a feed wheel (502) on one side of the main frame (4), and a fixed wheel (503) on the other side of the tension support plate (501). The tension support plate (501) and the fixed wheel (503) are fitted with a tension fixing plate (504). A tension connecting plate (505) is mounted below the tension fixing plate (504). A tension top rod (506) is mounted between the tension fixing plate (504) and the tension connecting plate (505). A tension adjustment slider (507) is mounted on the tension top rod (506). A tension adjustment wheel (508) is mounted on the tension adjustment slider (507). An internal hexagonal limit bolt (509) is mounted on the fixed wheel (503) on the tension support plate (501).

3. The flocking equipment for a production line according to claim 1, characterized in that, The wire feeding assembly (7) includes a power shaft (701) that runs through the main frame (4), a wire feeding support base (702) that is provided on one side of the main frame (4), a first sliding plate (703) and a second sliding plate (704) that are provided on the wire feeding support base (702), a wire feeding main wheel (705) that is provided on one side of the power shaft (701) on the main frame (4), a wire feeding support plate (706) that is provided on one side of the wire feeding main wheel (705), a wire feeding limit plate (707) and a wire feeding side plate (708) that are provided on the wire feeding support plate (706), the wire feeding limit plate (707) and the wire feeding side plate (708) that are spliced ​​together, and a wire feeding groove (709) that allows the wire to move is provided inside. The wire feeding support plate (706) that is provided with the wire feeding limit plate (707) and the wire feeding side plate (708) that are provided with limit spring bolts (710) are provided in cooperation with each other.

4. The flocking equipment for a production line according to claim 3, characterized in that, A wire feeding eccentric cam (11) is provided on the power shaft (701). The wire feeding eccentric cam (11) is equipped with a second linkage limiting component (13). A first linkage limiting component (12) is provided on the first sliding plate (703). The first linkage limiting component (12) includes a first sliding block (1201) provided on the first sliding plate (703). A wire feeding base (1202) is provided on the first sliding block (1201). The wire feeding base (1202) is equipped with... The device is provided with a limiting protrusion (1203) to prevent the wire from moving. A wire feeding limiting rib (1204) is provided on one side of the wire feeding base (1202). A wire feeding sliding wheel (1205) is provided on one side of the wire feeding limiting rib (1204). A wire feeding connecting seat (1206) is provided on one side of the first sliding block (1201). A wire feeding screw (1207) is provided in cooperation with the wire feeding connecting seat (1206), and the wire feeding screw (1207) is connected to the wire feeding main wheel (705).

5. The flocking equipment for a production line according to claim 4, characterized in that, The second linkage limiting component (13) includes a linkage sliding block (1301) disposed on the first sliding plate (703). A linkage connecting plate (1302) is disposed on the top of the linkage sliding block (1301). A linkage connecting member (1303) is connected to the linkage connecting plate (1302). A linkage top wheel (1304) is disposed on one side of the linkage connecting member (1303). The linkage top wheel (1304) is configured to cooperate with the wire feeding eccentric cam (11). The other side of the linkage connecting member (1303) is connected to a cylinder liner. A linkage connecting rib (1305) is provided with a pin, and a linkage fixing block (1306) is provided with the linkage connecting rib (1305) through a cylinder liner pin. A linkage connecting block (1307) is provided below the linkage fixing block (1306). The linkage connecting block (1307) is slidably disposed with the second sliding plate (704). A sliding groove (1308) is provided on the side of the linkage fixing block (1306) near the wire feeding sliding wheel (1205). The sliding groove (1308) is configured to cooperate with the wire feeding sliding wheel (1205).

6. The flocking equipment for a production line according to claim 1, characterized in that, The slicing assembly (8) includes a slicing fixing seat (801) mounted on the main frame (4), a bobbin (802) is movably mounted on the slicing fixing seat, a joint screw (803) is provided at the end of the bobbin (802), a slicing mounting plate (804) is mounted on the bobbin (802) via the joint screw (803), a cutter (805) is mounted on the slicing mounting plate (804), a slicing adjusting plate (806) is provided on the cutter (805) below the main frame (4), a slicing limiting plate (807) is provided on one side of the slicing adjusting plate (806), a slicing tungsten steel (808) for moving the slicing wire is inserted inside the adjusting plate, and a wire transfer groove (809) is provided inside the slicing tungsten steel (808).

7. The flocking equipment for a production line according to claim 1, characterized in that, The feeding assembly (6) includes a feeding support frame (601) disposed on one side of the main frame (4). A feeding drive motor (602) is disposed on one side of the feeding support frame (601). A wire winch (603) is disposed on the feeding support frame (601) in cooperation with the feeding drive motor (602). Both the wire winch (603) and the feeding drive motor (602) are disposed with feeding connecting gears (604). The two sets of feeding connecting gears (604) are connected and driven by a belt.

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