Winding device for metal wire processing

Abstract

The invention relates to the field of metal wire winding, in particular to a winding device for metal wire processing, which comprises a winding component, a winding machine, a rotating roller arranged on the winding machine, a winding drum arranged on the rotating roller, two semicircular sleeves arranged at the outer end of the winding drum, and anti-skid rubber arranged on the semicircular sleeves; the switching part comprises a sliding assembly arranged on the winding machine, a connecting assembly arranged on the sliding assembly and a rotating assembly arranged on the connecting assembly; the clamping component comprises a conveying assembly arranged on the right side of the winding machine, an elastic assembly arranged on the connecting assembly, a one-way assembly arranged on the elastic assembly, a magnetic attraction assembly arranged on the one-way assembly and an elastic assembly arranged on the magnetic attraction assembly. According to the device, the winding drum can be automatically replaced, the winding drum is replaced while being taken out, and the replacement speed is higher.

Description

Technical Field

[0001] The present invention relates to the field of wire winding, in particular to a winding device for wire processing. Background Art

[0002] During the production process of relatively thin wires, in order to facilitate the transportation and sorting of the wires, the wires are generally wound around a winding drum. In this process, a winding machine is generally used for winding the wires. When in use, only need to place the winding drum on the rotating roller of the winding machine, and then let the wire rest on the winding drum. As the rotating roller rotates, the winding can be automatically carried out. When a winding drum is full, replace the winding drum.

[0003] During use, since the replacement of the winding drum is generally completed manually, this method requires workers to remove the winding drum and then replace it with a new one. Since the overall mass of the winding drum is relatively large after being wound with wires, the labor intensity of workers frequently moving the winding drum with wires is relatively large, and for manual replacement, in order to avoid being injured by being hit, the general movement is relatively slow, resulting in a relatively low overall replacement efficiency. Summary of the Invention

[0004] In view of the problem in the above or the prior art that when winding wires, the winding drum is completed manually, this method requires workers to frequently move the winding drum with wires, with a relatively large labor intensity, and the manual replacement efficiency is relatively low, the present invention is proposed.

[0005] To solve the above technical problems, the present invention provides the following technical solutions: including a winding component, including a winding machine, a rotating roller arranged on the winding machine, a winding drum arranged on the rotating roller, two semi-circular sleeves arranged at the outer end of the winding drum, and anti-slip rubber arranged on the semi-circular sleeves; a switching component, including a sliding component arranged on the winding machine, a connecting component arranged on the sliding component, and a rotating component arranged on the connecting component; a clamping component, including a conveying component arranged on the right side of the winding machine, a tightening component arranged on the connecting component, a one-way component arranged on the tightening component, a magnetic attraction component arranged on the one-way component, an elastic component arranged on the magnetic attraction component, and a triggering component arranged on the rotating component.

[0006] As a preferred solution of the wire processing winding device of the present invention, wherein: the sliding component includes an electric slide rail arranged on the side wall of the winding machine, a slider slidably connected to the electric slide rail, and a motor fixedly connected to the slider.

[0007] As a preferred embodiment of the winding device for wire processing according to the present invention, wherein: the connection assembly includes a disc fixedly connected to the output shaft of the motor, two damping rotating shafts are rotatably connected to the disc, cross plates are fixedly connected to the two damping rotating shafts, two connecting columns are provided on the cross plates, and the connecting columns are fixedly connected to the semi-circular sleeves.

[0008] As a preferred embodiment of the winding device for wire processing according to the present invention, wherein: the rotating assembly includes a connecting rod fixedly connected to the motor, a ring is fixedly connected to the connecting rod, a gear is fixedly connected to the damping rotating shaft, and two tooth plates cooperating with the gear are fixedly connected to the ring.

[0009] As a preferred embodiment of the winding device for wire processing according to the present invention, wherein: the conveying assembly includes a first conveyor belt arranged outside the winding machine, multiple pairs of stop plates are provided on the first conveyor belt, a replacement cylinder is arranged between multiple pairs of the stop plates, and a second conveyor belt perpendicular to the first conveyor belt is arranged on the right side of the first conveyor belt.

[0010] As a preferred embodiment of the winding device for wire processing according to the present invention, wherein: the tensioning and loosening assembly includes an installation cavity arranged on the cross plate, a strip-shaped opening is provided on the installation cavity, a moving block is slidably connected in the installation cavity, and the connecting column is fixedly connected to the moving block.

[0011] As a preferred embodiment of the winding device for wire processing according to the present invention, wherein: the one-way assembly includes an L-shaped rod fixedly connected in the installation cavity, a first frustum is fixedly connected to the L-shaped rod, a stop ring abutted against the second frustum is fixedly connected to the L-shaped rod, a second frustum slidably connected to the L-shaped rod is arranged between the stop ring and the frustum, an annular groove is provided on the first frustum, and the second frustum is elastically connected to the inner wall of the annular groove through a first spring.

[0012] As a preferred embodiment of the winding device for wire processing according to the present invention, wherein: the magnetic attraction assembly includes an electromagnet fixedly connected in the installation cavity, two iron blocks are slidably connected in the installation cavity, both iron blocks are elastically connected to the electromagnet through second springs, a sleeve fixedly connected to the moving block is fixedly connected to the iron block, the diameter of the sleeve is larger than the diameter of the first frustum, and a guiding opening cooperating with the L-shaped rod is provided on the sleeve.

[0013] As a preferred embodiment of the winding device for wire processing according to the present invention, wherein: the elastic assembly includes an extension groove arranged on the sleeve, a support block is slidably connected in the extension groove, the support block is elastically connected to the inner wall of the extension groove through a third spring, and a wedge block cooperating with the first frustum is fixedly connected to the slider.

[0014] As a preferred embodiment of the winding device for wire processing of the present invention, wherein: the triggering component includes a positive triggering piece fixedly connected to the damping rotating shaft, a negative triggering piece fixedly connected to the ring and cooperating with the positive triggering piece, and a controller is arranged outside the negative triggering piece.

[0015] The beneficial effects of the winding device for wire processing of the present invention: By setting the winding component and the switching component, the winding cylinder can be automatically taken out, and in cooperation with the second conveyor belt, the winding cylinder can be automatically taken out. At the same time, in cooperation with the clamping component, when the winding cylinder is taken out, a new replacement cylinder can be switched to the rotating roller, and the taking out and replacement are carried out simultaneously. On the one hand, there is no need for workers to replace the winding cylinder, and at the same time, since the taking out and replacement are carried out simultaneously, the replacement efficiency is improved, thus solving the problem that when winding the wire, the winding cylinder is completed manually, which requires workers to frequently move the winding cylinder with wire, resulting in a large labor intensity and a low manual replacement efficiency, achieving the effect of automatically replacing the winding cylinder and having a fast replacement speed. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings required for the description of the embodiments will be briefly introduced below. Obviously, the drawings in the following description are only some embodiments of the present invention, and those of ordinary skill in the art can also obtain other drawings based on these drawings without creative efforts.

[0017] Figure 1 It is a schematic diagram of the external structure of the winding device for wire processing.

[0018] Figure 2 It is a schematic diagram of the external structure of the semi-circular sleeve of the winding device for wire processing.

[0019] Figure 3 It is a schematic diagram of the external structure of the connection component of the winding device for wire processing.

[0020] Figure 4 It is a schematic diagram of the external structure of the rotating component of the winding device for wire processing.

[0021] Figure 5 It is a schematic cross-sectional view of the tensioning component of the winding device for wire processing.

[0022] Figure 6 It is a cross-sectional view of the elastic component of the winding device for wire processing.

[0023] In the figure: 100, winding component; 101, winder; 102, rotating roller; 103, winding cylinder; 104, semi-circular sleeve; 105, anti-slip rubber; 200, switching component; 201, sliding component; 201a, electric slide rail; 201b, slider; 201c, motor; 202, connecting component; 202a, disc; 202b, damping rotating shaft; 202c, cross plate; 202d, connecting column; 203, rotating component; 203a, connecting rod; 203b, ring; 203c, gear; 203d, toothed plate; 204, conveying component; 204a, first conveyor belt; 204b, stop plate; 204c, replacement cylinder; 204d, second conveyor belt; 300, clamping component; 301, tensioning component; 301a, installation cavity; 301b, strip-shaped opening; 301c, moving block; 302, one-way component; 302a, L-shaped rod; 302b, first frustum; 302c, stop ring; 302d, second frustum; 302e, first spring; 303, magnetic attraction component; 303a, electromagnet; 303b, iron block; 303c, second spring; 303d, sleeve; 303e, guiding opening; 304, elastic component; 304a, extension groove; 304b, support block; 304c, third spring; 304d, wedge block; 305, triggering component; 305a, positive triggering piece; 305b, negative triggering piece. Detailed implementation manners

[0024] To make the above objects, features, and advantages of the present invention more obvious and understandable, the following provides a detailed description of the specific implementation manners of the present invention with reference to the accompanying drawings of the specification.

[0025] Example 1, referring to Figures 1 to 5 , which is the first embodiment of the present invention. This embodiment provides a winding device for wire processing, which can achieve the effect of automatically moving out the winding cylinder 103. It includes a winding component 100, including a winder 101, a rotating roller 102 arranged on the winder 101, a winding cylinder 103 arranged on the rotating roller 102, two semi-circular sleeves 104 arranged at the outer end of the winding cylinder 103, and an anti-slip rubber 105 arranged on the semi-circular sleeve 104; a switching component 200, including a sliding component 201 arranged on the winder 101, a connecting component 202 arranged on the sliding component 201, and a rotating component 203 arranged on the connecting component 202; a clamping component 300, including a conveying component 204 arranged on the right side of the winder 101, a tensioning component 301 arranged on the connecting component 202, a one-way component 302 arranged on the tensioning component 301, a magnetic attraction component 303 arranged on the one-way component 302, an elastic component 304 arranged on the magnetic attraction component 303, and a triggering component 305 arranged on the rotating component 203.

[0026] Specifically, the rewinder 101 is provided with buttons and a display screen, which can control the rotation speed of the rotating roller 102. There are blocking rings arranged before and after the winding drum 103. Inner grooves can be arranged on the rotating roller 102, and mounting strips are arranged on the winding drum 103. When the rotating roller 102 and the winding drum 103 cooperate, relative movement between the winding drum 103 and the rotating roller 102 can be avoided. The two semi-circular sleeves 104 clamp the winding drum 103 in the middle to prevent the winding drum 103 from sliding forward and backward. At the same time, the cross-section of the winding drum 103 is L-shaped, so as not to affect the rotation of the winding drum 103.

[0027] Further, the sliding assembly 201 includes an electric slide rail 201a arranged on the side wall of the rewinder 101. A slider 201b is slidably connected to the electric slide rail 201a, and a motor 201c is fixedly connected to the slider 201b. The connecting assembly 202 includes a disc 202a fixedly connected to the output shaft of the motor 201c. Two damping rotating shafts 202b are rotatably connected to the disc 202a. Cross plates 202c are fixedly connected to the two damping rotating shafts 202b. Two connecting columns 202d are arranged on the cross plates 202c, and the connecting columns 202d are fixedly connected to the semi-circular sleeves 104. The rotating assembly 203 includes a connecting rod 203a fixedly connected to the motor 201c. A ring 203b is fixedly connected to the connecting rod 203a. A gear 203c is fixedly connected to the damping rotating shaft 202b. Two toothed plates 203d that cooperate with the gear 203c are fixedly connected to the ring 203b. The conveying assembly 204 includes a first conveyor belt 204a arranged outside the rewinder 101. Multiple pairs of stop plates 204b are arranged on the first conveyor belt 204a. Substitute cylinders 204c are arranged between the multiple pairs of stop plates 204b. A second conveyor belt 204d perpendicular to the first conveyor belt 204a is arranged on the right side of the first conveyor belt 204a.

[0028] It should be noted that the width of the toothed plate 203d is sufficient to ensure that when the gear 203c needs to mesh with the toothed plate 203d, the phenomenon of the gear 203c disengaging from the toothed plate 203d will not occur. And here the toothed plate 203d is arranged in an arc shape, which can ensure the meshing effect between the gear 203c and the toothed plate 203d. With the setting of the semi-circular plate, when the winding drum 103 moves onto the second conveyor belt 204d, the outer end of the winding drum 103 contacts the second conveyor belt 204d, and the phenomenon of the semi-circular plate getting stuck with the second conveyor belt 204d will not occur. The damping of the damping rotating shaft 202b is sufficient to prevent the damping rotating shaft 202b from rotating by itself.

[0029] During use, when the winding drum 103 is fully wound, the rotating roller 102 stops rotating, the electric slide rail 201a is activated, causing the slider 201b to move forward, the motor 201c to move forward, the disc 202a to move forward, the damping rotating shaft 202b to move forward, driving the cross plate 202c to move forward, the connecting column 202d to move forward, and the two semi-circular plates to move forward, causing the winding drum 103 to disengage from the rotating roller 102 and move to the front side of the rotating roller 102. Then, the output shaft of the motor 201c rotates, driving the disc 202a to rotate, causing the two damping rotating shafts 202b to rotate around the disc 202a. Through transmission, the two pairs of semi-circular plates rotate around the disc 202a. The pair of semi-circular plates on the left end rotates the winding drum 103 above the rotating roller 102. After the winding drum 103 is completely misaligned with the rotating roller 102, the electric slide rail 201a resets, driving the slider 201b to reset and the motor 201c to reset, causing the winding drum 103 to reset in the front-rear direction. At this time, the gear 203c on the damping rotating shaft 202b meshes with the toothed plate 203d. Then, as the disc 202a continues to rotate, the gear 203c rotates, driving the damping rotating shaft 202b to rotate. Here, the gear 203c rotates 90°, causing the winding drum 103 to change from horizontal to vertical. As the disc 202a continues to rotate, through transmission, the winding drum 103 continues to rotate around the disc 202a. When the winding drum 103 contacts the second conveyor belt 204d, the second conveyor belt 204d is activated, taking the winding drum 103 out from between the two semi-circular plates, completing automatic discharging. At the same time, the pair of semi-circular plates initially at the right end can bring the replacement drum 204c on the first conveyor belt 204a to the rotating roller 102 (how to achieve this will be described in detail below).

[0030] In summary, by setting the winding component 100 and the switching component 200, after the wire on the winding drum 103 is full, the winding drum 103 can be automatically moved away and automatically replaced without manual operation, making it more simple and fast to use.

[0031] Example 2, refer to Figures 1 to 6, which is the second embodiment of the present invention. Different from the previous embodiment, this embodiment provides a clamping component 300 for the winding device used in wire processing, which solves the problem of how to prevent the replacement cylinder 204c from getting stuck with the semi-circular sleeve 104 when the replacement cylinder 204c is sent to the rotating roller 102. It includes a tensioning and loosening component 301, which includes an installation cavity 301a arranged on the cross plate 202c. A strip-shaped opening 301b is provided on the installation cavity 301a. A moving block 301c is slidably connected in the installation cavity 301a. The connecting column 202d is fixedly connected to the moving block 301c; the one-way component 302 includes an L-shaped rod 302a fixedly connected in the installation cavity 301a. A first frustum 302b is fixedly connected to the L-shaped rod 302a. A stop ring 302c that abuts against the second frustum 302d is fixedly connected to the L-shaped rod 302a. A second frustum 302d that is slidably connected to the L-shaped rod 302a is arranged between the stop ring 302c and the frustum. An annular groove is provided on the first frustum 302b. The second frustum 302d is elastically connected to the inner wall of the annular groove through a first spring 302e.

[0032] Specifically, when the right-end semi-circular plate rotates to the replacement cylinder 204c, directly rotating it will cause the replacement cylinder 204c to abut against the outer wall of the semi-circular plate. At this time, it is necessary to increase the distance between the two semi-circular plates to accommodate the replacement cylinder 204c. At the same time, there is a gap between adjacent pairs of stop plates 204b to accommodate the semi-circular plate. Here, the first frustum 302b and the second frustum 302d are arranged oppositely, and the height of the first frustum 302b is greater than the height of the second frustum 302d.

[0033] Furthermore, the magnetic attraction component 303 includes an electromagnet 303a fixedly connected in the installation cavity 301a. Two iron blocks 303b are slidably connected in the installation cavity 301a. Both iron blocks 303b are elastically connected to the electromagnet 303a through second springs 303c. A sleeve 303d fixedly connected to the moving block 301c is fixedly connected to the iron block 303b. The diameter of the sleeve 303d is greater than the diameter of the first frustum 302b. A guiding opening 303e that cooperates with the L-shaped rod 302a is provided on the sleeve 303d; the elastic component 304 includes an extension groove 304a arranged on the sleeve 303d. A support block 304b is slidably connected in the extension groove 304a. The support block 304b is elastically connected to the inner wall of the extension groove 304a through a third spring 304c. A wedge block 304d that cooperates with the first frustum 302b is fixedly connected to the slider 201b.

[0034] It should be noted that the inclined surface of the wedge block 304d faces the first frustum 302b. Thus, when the wedge block 304d moves towards the first frustum 302b, it is not blocked. The setting of the guiding port 303e avoids the phenomenon of jamming between the sleeve 303d and the L-shaped rod 302a. Here, the elasticity of the third spring 304c is greater than that of the first spring 302e. Thus, when the wedge block 304d resets, there will be no phenomenon that the wedge block 304d cannot drive the second frustum 302d to move. Moreover, the setting of the annular groove allows sufficient compression space for the first spring 302e, ensuring that the first frustum 302b can abut against the second frustum 302d.

[0035] During use, when the right semi-circular plate is in its initial position, both are in a vertical state. The wedge block 304d is located between the first frustum 302b and the second frustum 302d. The upper end of the sleeve 303d is flush with the outer end of the first frustum 302b. During the rotation of the right semi-circular plate to the replacement cylinder 204c, the gear 203c on the right damping rotating shaft 202b meshes with the toothed plate 203d, causing the semi-circular plate to become horizontal. After the gear 203c on the right damping rotating shaft 202b disengages from the toothed plate 203d, the electromagnet 303a is activated, causing the iron block 303b to move towards the electromagnet 303a (at this time, since the replacement cylinder 204c is not clamped between the two semi-circular plates, even if the distance between the two semi-circular plates slightly decreases, it will have no impact). At this time, the sleeve 303d moves towards the electromagnet 303a direction, compressing the second spring 303c. When the sleeve 303d moves, the wedge block 304d abuts against the side wall of the second frustum 302d. Since the inclined side of the wedge block 304d abuts against the second frustum 302d, the wedge block 304d moves towards the extension groove 304a direction, compressing the third spring 304c. When the wedge block 304d moves to the side wall of the second frustum 302d, the electromagnet 303a is powered off. At this time, under the action of the second spring 303c, the sleeve 303d resets, driving the wedge block 304d to reset. The wedge block 304d abuts against the side wall of the second frustum 302d and can drive the second frustum 302d to move during reset. When the second frustum 302d abuts against the side wall of the first frustum 302b, at this time, the wedge block 304d can cross the side wall of the second frustum 302d, enter the side wall of the first frustum 302b, and finally move to the outside of the first frustum 302b. At this time, the sleeve 303d also moves to the outside of the first cylinder, driving the two moving blocks 301c to move outwards, increasing the distance between the two semi-circular plates to avoid collision with the replacement cylinder 204c during movement. When the two semi-circular plates move to the front and rear ends of the replacement cylinder 204c, the electromagnet 303a is powered on (the currents of the two power-on operations of the electromagnet 303a are different, so the magnetic suction is different, avoiding excessive suction and the wedge block 304d directly abutting against the side wall of the second frustum 302d), causing the two sleeves 303d to move towards the electromagnet 303a direction. The wedge block 304d moves between the first frustum 302b and the second frustum 302d. Since the non-inclined side of the wedge block 304d is facing the first frustum 302b at this time, the wedge block 304d cannot reset, realizing the clamping of the replacement cylinder 204c. Then, in cooperation with the electric slide rail 201a and the motor 201c, the replacement cylinder 204c is sent to the rotating roller 102 to continue winding the metal wire (here, a metal wire shearing device and a metal wire winding auxiliary device can also be provided, which can automatically cut the metal wire and automatically send the metal wire to the side wall of the replacement cylinder 204c on the rotating roller 102. This is the prior art and will not be elaborated here). When a replacement cylinder 204c is taken out, the first conveyor belt 204a operates.Push out the backup cylinder 204c at the rear end for filling.

[0036] In summary, by setting the clamping component 300, during the movement of the pair of semi-circular plates at the right end, the distance between the pair of semi-circular plates can be automatically adjusted to avoid collision between the semi-circular plates and the backup cylinder 204c, and the backup cylinder 204c can be automatically clamped so as to send the backup cylinder 204c to the rotating roller 102 to continue winding the wire, realizing automated production.

[0037] Embodiment 3, refer to Figures 1 to 6 , which is the third embodiment of the present invention. Different from the previous embodiment, this embodiment provides a trigger assembly 305 for the wire winding device for wire processing, which solves the problem of how to automatically control the on-off of the electromagnet 303a. The trigger assembly 305 includes a positive trigger piece 305a fixedly connected to the damping rotating shaft 202b, and a negative trigger piece 305b fixedly connected to the ring 203b and cooperating with the positive trigger piece 305a. A controller is provided outside the negative trigger piece 305b. Here, there are two negative trigger pieces 305b, and the controllers connected to the two negative trigger pieces 305b are different. The two controllers control the output of different magnitudes of current. At the same time, a power supply is also provided on the ring 203b. When the positive trigger piece 305a and the negative trigger piece 305b are in contact, a circuit is formed among the power supply, the positive trigger piece 305a, the negative trigger piece 305b, the controller, and the electromagnet 303a, thereby supplying power to the electromagnet 303a.

[0038] During use, the negative trigger piece 305b is arranged on the ring 203b. When the positive trigger piece 305a is in contact with the negative trigger piece 305b, a circuit is formed among the positive trigger piece 305a, the negative trigger piece 305b, the controller, and the electromagnet 303a, and there is an external power supply for power supply, so that the electromagnet 303a is powered on, and different controllers supply different magnitudes of current, changing the suction force of the electromagnet 303a, thereby meeting the requirements for different suction forces of the electromagnet 303a in Embodiment 2.

[0039] In summary, by setting the trigger assembly 305, during the movement of the disc 202a driving the damping rotating shaft 202b, the positive trigger piece 305a on the damping rotating shaft 202b can also cooperate with the negative trigger piece 305b on the ring 203b to form a circuit among the power supply, the positive trigger piece 305a, the negative trigger piece 305b, the controller, and the electromagnet 303a, automatically controlling the on-off of the electromagnet 303a.

[0040] It should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention and not to limit them. Although the present invention has been described in detail with reference to the preferred embodiments, those of ordinary skill in the art should understand that the technical solutions of the present invention can be modified or equivalently replaced without departing from the spirit and scope of the technical solutions of the present invention, and they should all be covered within the scope of the claims of the present invention.

Claims

1. A coiling device for wire processing, characterized in that: including a winding component (100), including a winder (101), a rotating roller (102) arranged on the winder (101), a winding cylinder (103) arranged on the rotating roller (102), two semi-circular sleeves (104) arranged at the outer end of the winding cylinder (103), and an anti-slip rubber (105) arranged on the semi-circular sleeves (104); a switching component (200), including a sliding component (201) arranged on the winder (101), a connecting component (202) arranged on the sliding component (201), a rotating component (203) arranged on the connecting component (202), and a conveying component (204) arranged on the right side of the winder (101); a clamping component (300), including a tightening and loosening component (301) arranged on the connecting component (202), a one-way component (302) arranged on the tightening and loosening component (301), a magnetic attraction component (303) arranged on the one-way component (302), an elastic component (304) arranged on the magnetic attraction component (303), and a triggering component (305) arranged on the rotating component (203).

2. The coiling device for wire processing according to claim 1, characterized in that: The sliding component (201) includes an electric slide rail (201a) arranged on the side wall of the winder (101), a slider (201b) slidably connected to the electric slide rail (201a), and a motor (201c) fixedly connected to the slider (201b).

3. The wire winding device for wire processing according to claim 2, characterized in that: The connecting component (202) includes a disc (202a) fixedly connected to the output shaft of the motor (201c), two damping rotating shafts (202b) rotatably connected to the disc (202a), cross plates (202c) fixedly connected to both of the damping rotating shafts (202b), two connecting columns (202d) arranged on the cross plates (202c), and the connecting columns (202d) are fixedly connected to the semi-circular sleeves (104).

4. The wire winding device for wire processing according to claim 3, characterized in that: The rotating component (203) includes a connecting rod (203a) fixedly connected to the motor (201c), a ring (203b) fixedly connected to the connecting rod (203a), a gear (203c) fixedly connected to the damping rotating shaft (202b), and two toothed plates (203d) fixedly connected to the ring (203b) and matched with the gear (203c).

5. The wire winding device for wire processing according to claim 4, characterized in that: The conveying component (204) includes a first conveyor belt (204a) arranged outside the winder (101), multiple pairs of stop plates (204b) arranged on the first conveyor belt (204a), a replacement cylinder (204c) arranged between each pair of the stop plates (204b), and a second conveyor belt (204d) perpendicular to the first conveyor belt (204a) arranged on the right side of the first conveyor belt (204a).

6. The coiling device for wire processing according to claim 5, characterized in that: The tightening and loosening component (301) includes an installation cavity (301a) provided on the cross plate (202c). A strip-shaped opening (301b) is provided on the installation cavity (301a). A moving block (301c) is slidably connected in the installation cavity (301a). The connecting column (202d) is fixedly connected to the moving block (301c).

7. The wire winding device for wire processing according to claim 6, characterized in that: The one-way component (302) includes an L-shaped rod (302a) fixedly connected in the installation cavity (301a). A first frustum (302b) is fixedly connected to the L-shaped rod (302a). A stop ring (302c) that abuts against the second frustum (302d) is fixedly connected to the L-shaped rod (302a). A second frustum (302d) that is slidably connected to the L-shaped rod (302a) is provided between the stop ring (302c) and the frustum. An annular groove is provided on the first frustum (302b). The second frustum (302d) is elastically connected to the inner wall of the annular groove through a first spring (302e).

8. The coiling device for wire processing according to claim 7, characterized in that: The magnetic attraction component (303) includes an electromagnet (303a) fixedly connected in the installation cavity (301a). Two iron blocks (303b) are slidably connected in the installation cavity (301a). Both of the two iron blocks (303b) are elastically connected to the electromagnet (303a) through a second spring (303c). A sleeve (303d) fixedly connected to the moving block (301c) is fixedly connected to the iron block (303b). The diameter of the sleeve (303d) is larger than the diameter of the first frustum (302b). A guiding opening (303e) that cooperates with the L-shaped rod (302a) is provided on the sleeve (303d).

9. The wire winding device for wire processing according to claim 8, wherein: The elastic component (304) includes an extension groove (304a) provided on the sleeve (303d). A support block (304b) is slidably connected in the extension groove (304a). The support block (304b) is elastically connected to the inner wall of the extension groove (304a) through a third spring (304c). A wedge-shaped block (304d) that cooperates with the first frustum (302b) is fixedly connected to the slider (201b).

10. The wire winding device for wire processing according to claim 8 or 9, characterized in that: The trigger component (305) includes a positive trigger piece (305a) fixedly connected to the damping rotating shaft (202b). A negative trigger piece (305b) that cooperates with the positive trigger piece (305a) is fixedly connected to the ring (203b). A controller is provided outside the negative trigger piece (305b).

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