Magnetic ring wire arranging and winding mechanism
By designing the magnetic ring wire winding mechanism, the automation of the magnetic circling wire is achieved, solving the problems of low automation and difficult to ensure the winding quality in traditional methods, and improving production efficiency and winding quality.
Patent Information
- Application Number
- CN202422167510.X
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-09-04
- Publication Date
- 2025-08-12
- Estimated Expiration
- 2034-09-04
AI Technical Summary
The traditional magnetic surround method has low degree of automation, low production efficiency and difficult to guarantee the winding quality.
A magnetic ring wire winding mechanism is designed, including a wire storage disk assembly, a wire assembly and a wire needle assembly. Through an automated process, the fully automated process of enameled wire from storage and arrangement to wound on the magnetic ring is realized. The wire assembly and wire needle assembly are used to ensure the smooth flow and accurate introduction of enameled wire.
The arrangement and conveying efficiency of enameled wires is improved, the winding quality is ensured, the coil is loose or misaligned, and the production efficiency and winding quality are improved.
Smart Images
Figure CN223218125U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of magnetic ring winding, in particular to a magnetic ring wire arrangement and winding mechanism. Background Art
[0002] As an important signal transmission component, network transformers are widely used in communication equipment, computers and other electronic products. The quality of magnetic rings, as one of the key components of network transformers, directly affects the performance of the entire network transformer. In the manufacturing process of magnetic rings, winding is a crucial step, which directly affects the electrical performance and reliability of the product.
[0003] Traditional magnetic ring winding methods rely primarily on manual or semi-automatic methods. Specifically, operators need to place the magnetic rings one by one on a rotating platform, and then use a stringing machine to wind the wire. This operation is not only cumbersome but also has a low degree of automation, resulting in low overall production efficiency. In addition, manual operation may introduce human errors, affecting the stability of product quality.
[0004] Therefore, it is imperative to redesign a magnetic ring wire winding mechanism. Utility Model Content
[0005] In response to the above-mentioned defects of the prior art, the present invention provides a magnetic ring wire arrangement and winding mechanism, which aims to solve the problems of low automation, low production efficiency and difficulty in ensuring winding quality in the traditional magnetic ring winding method in the prior art.
[0006] To achieve the above-mentioned purpose, the technical solution adopted by the utility model is: a magnetic ring wire arrangement and winding mechanism, including a wire storage disk assembly, two wire arrangement assemblies and a wire needle assembly, wherein a wire arrangement channel is provided in the wire storage disk assembly, and the wire arrangement channel is located at the center of the wire storage disk assembly, and the wire arrangement channel is formed by a semicircular superimposed layer component, a left superimposed layer component arranged at the left front of the opening side of the semicircular superimposed layer component, and a right superimposed layer component arranged at the right front of the opening side of the semicircular superimposed layer component. The output end of one wire arrangement assembly is matched between the semicircular superimposed layer component and the left superimposed layer component, and the output end of the other wire arrangement assembly is matched between the semicircular superimposed layer component and the right superimposed layer component. The left superimposed layer component and the right superimposed layer component are located at one side of the winding processing area. The two wire arrangement assemblies are used to drive the winding of the enameled wire formed in the circular wire arrangement channel in the middle of the wire storage disk assembly.
[0007] Based on the above, the beneficial effect of a magnetic ring wire arrangement and winding mechanism is to solve the problems of low automation, low production efficiency and difficulty in ensuring winding quality in the traditional magnetic ring winding method in the prior art; it is mainly reflected in: the utility model realizes the fully automated process of enameled wire from storage, arrangement to final winding on the magnetic ring through structures such as the wire storage disk assembly, the wire arrangement assembly and the wire needle assembly, which greatly reduces the need for manual intervention. After the enameled wire is input from the previous processing mechanism, it first passes through the magnetic ring to reach the wire arrangement channel in the wire storage disk assembly. After completing the input of the set length of the enameled wire, the cutter assembly cuts the enameled wire. Inside the wire storage disk assembly, the enameled wire passes through the magnetic ring along the wire needle and enters the wire arrangement channel in the right stacking layer component. , then passes through the wire arrangement assembly between the semicircular superimposed layer component and the right superimposed layer component into the wire arrangement channel inside the semicircular superimposed layer component, and then passes through the wire arrangement assembly between the semicircular superimposed layer component and the left superimposed layer component into the wire arrangement channel inside the left superimposed layer component, and finally passes through the magnetic ring along the wire needle again, and repeats the above path for wire arrangement. This enameled wire path ensures the smooth flow of the enameled wire and avoids blockage and confusion; the simultaneous operation of the two wire arrangement assemblies significantly improves the arrangement and transportation efficiency of the enameled wire and improves the overall production efficiency; the use of the wire needle assembly ensures that the enameled wire can be accurately introduced into the magnetic ring, avoiding problems such as loose coils or misalignment that may occur in traditional manual operations, thereby ensuring the winding quality.
[0008] Furthermore, the semicircular stacking layer component is formed by stacking the semicircular cover plate of the wire storage disk, the semicircular channel molding gasket of the wire storage disk and the semicircular bottom cover of the wire storage disk from top to bottom; the left stacking layer component is formed by stacking the left cover plate of the wire storage disk, the left channel molding gasket of the wire storage disk and the left bottom cover of the wire storage disk from top to bottom; the right stacking layer component is formed by stacking the right cover plate of the wire storage disk, the right channel molding gasket of the wire storage disk and the right bottom cover of the wire storage disk from top to bottom, wherein the semicircular channel molding gasket of the wire storage disk, the left channel molding gasket of the wire storage disk and the right channel molding gasket of the wire storage disk are combined to form an inner circular channel structure, and the inner circular channel structure is the wire arrangement channel.
[0009] Based on the above, the beneficial effect of the semicircular cover plate, left cover plate and right cover plate of the wire storage disk is that they jointly form an upper cover plate of the wire arrangement channel; the beneficial effect of the semicircular channel molded gasket of the wire storage disk is to support the formation of a wire arrangement channel between the semicircular cover plate and the semicircular bottom cover of the wire storage disk; the beneficial effect of the semicircular bottom cover, left bottom cover and right bottom cover of the wire storage disk is to jointly form a lower cover plate of the wire arrangement channel; the beneficial effect of the left channel molded gasket of the wire storage disk is to support the formation of a wire arrangement channel between the left cover plate and the left bottom cover of the wire storage disk; the beneficial effect of the right channel molded gasket of the wire storage disk is to support the formation of a wire arrangement channel between the right cover plate and the right bottom cover of the wire storage disk.
[0010] Furthermore, the magnetic ring wire arrangement and winding mechanism also includes a switching channel assembly, and a wire pre-arrangement channel is provided on the right side of the semicircular channel forming gasket of the wire storage disk, and the wire pre-arrangement channel is connected to the wire arrangement channel, and the output end of the switching channel assembly is arranged between the wire pre-arrangement channel and the wire arrangement channel.
[0011] Based on the above, the beneficial effect of the switching channel assembly is to control the flow direction of the enameled wire, so that the remaining wire ends after the enameled wire is wound on the magnetic ring are input into the pre-arrangement channel, so that when the next mechanism clamps the magnetic ring, the enameled wire is stuck in the circular wire arrangement channel; the beneficial effect of the outlet pre-arrangement channel is to store the wire ends after the enameled wire is wound.
[0012] The transmission gears are connected with the gear train of said sliding arm, and the sliding arm is connected with the gear train of said sliding arm to the left side of said sliding arm, and the sliding arm is connected with the gear train of said sliding arm to the right side of said sliding arm.
[0013] Based on the above, the beneficial effect of the wire arrangement motor is to drive the bevel wheel shaft to rotate through the coupling; the beneficial effect of the bevel wheel seat is to install one end of the bevel wheel shaft, the upper bevel wheel rotating shaft and the lower bevel wheel rotating shaft; the beneficial effect of the bevel wheel shaft is to synchronously drive the upper bevel wheel rotating shaft and the lower bevel wheel rotating shaft to rotate; the beneficial effect of the upper bevel wheel rotating shaft is to drive the upper bevel wheel connected to it to rotate; the beneficial effect of the lower bevel wheel rotating shaft is to drive the lower bevel wheel connected to it to rotate; the beneficial effect of the upper bevel wheel is to drive the enameled wire to flow in the wire arrangement channel together with the lower bevel wheel; the beneficial effect of the first upper wire arrangement groove and the second upper wire arrangement groove is to adapt to the upper bevel wheel of the wire arrangement assembly; the beneficial effect of the first lower wire arrangement groove and the second lower wire arrangement groove is to adapt to the lower bevel wheel of the wire arrangement assembly.
[0014] Furthermore, the wire needle assembly includes a wire needle driving cylinder, a wire needle pusher, a wire needle guide sliding block and a wire needle. The wire needle is slidably connected to the wire needle guide sliding block. The wire needle driving cylinder is connected to the pin structure on the wire needle through the wire needle pusher, driving the wire needle to be inserted into the magnetic ring located in the winding processing area, and introducing the enameled wire in the wire arrangement channel into the magnetic ring.
[0015] Based on the above, the beneficial effect of the wire needle driving cylinder is to push the wire needle along the wire needle wire slider into the magnetic ring through the wire needle pushing member.
[0016] Furthermore, the switching channel assembly includes a door opening cylinder, a push rod hinged to the output end of the door opening cylinder, a wire outlet door rotating pull block hinged to the other end of the push rod, a mounting block and a wire outlet door, the wire outlet door rotating pull block rotatably engages with the mounting block, the wire outlet door is arranged at the upper end of the wire outlet door rotating pull block, the upper end of the wire outlet door engages between the wire pre-discharge channel and the wire discharge channel, the door opening cylinder drives the wire outlet door rotating pull block to rotate through the push rod, thereby opening or closing the wire outlet door, which is used to control the flow direction of the enameled wire.
[0017] Based on the above, the beneficial effect of the door opening cylinder is to push the push rod and make the hinged end hinged to the output end of the door opening cylinder rotate; the beneficial effect of the push rod is to pull the wire outlet door rotating pull block to rotate along the hinged part hinged to the push rod; the beneficial effect of the wire outlet door rotating pull block is to drive the wire outlet door to move, so that it can switch the inflow channel of the enameled wire; the beneficial effect of the installation block is to install the wire outlet door rotating pull block.
[0018] Furthermore, the magnetic ring wire winding mechanism also includes a cutter assembly. The lower end of the winding processing area is equipped with an enameled wire output tube connected to the previous enameled wire processing mechanism. The output end of the cutter assembly is connected to the output end of the enameled wire output tube, and is used to cut the enameled wire input to the required length for winding.
[0019] In order to more clearly illustrate the above features of the present invention and the objectives to be achieved, the present invention will be further described below with reference to the accompanying drawings and specific embodiments. BRIEF DESCRIPTION OF THE DRAWINGS
[0020] Figure 1 : is a three-dimensional diagram of the utility model;
[0021] Figure 2 : It is an exploded view of the utility model;
[0022] Figure 3 : It is a schematic diagram of the cooperation between the two cable assemblies and the cable storage tray assembly of the utility model;
[0023] Figure 4 :for Figure 3 An enlarged schematic diagram of part A;
[0024] Figure 5 : An exploded view of the cable assembly of the present invention;
[0025] Figure 6: It is a schematic diagram of the cooperation between the guide needle driving cylinder and the guide needle pushing member of the utility model;
[0026] Figure 7 : A schematic diagram of the cooperation between the guide sliding block and the guide needle of the utility model;
[0027] Figure 8 : It is a schematic diagram of the cooperation between the outlet door rotating pull block and the outlet door of the utility model.
[0028] Description of the accompanying figures: 1- storage disk assembly, 11- semicircular superimposed layer component, 111- storage disk semicircular cover, 112- storage disk semicircular channel molding gasket, 1121- outlet pre-discharge channel, 113- storage disk semicircular bottom cover, 12- left superimposed layer component, 121- storage disk left cover, 122- storage disk left channel molding gasket, 123- storage disk left bottom cover, 13- right superimposed layer component, 131- storage disk right cover, 132- storage disk right channel molding gasket, 133- storage disk right bottom cover, 14- winding processing Area, 15-cable traversing channel, 2-cable traversing assembly, 21-cable traversing motor, 22-coupling, 23-bevel wheel seat, 24-bevel wheel shaft, 25-upper bevel wheel rotating shaft, 26-lower bevel wheel rotating shaft, 27-upper bevel wheel, 28-lower bevel wheel, 3-wire needle assembly, 31-wire needle driving cylinder, 32-wire needle push piece, 33-wire needle guide sliding block, 34-wire needle, 4-switching channel assembly, 41-door opening cylinder, 42-push rod, 43-outlet door rotating pull block, 44-mounting block, 45-outlet door, 5-cutter assembly. DETAILED DESCRIPTION
[0029] like Figure 1-8 As shown, a magnetic ring wire arrangement and winding mechanism includes a wire storage disk assembly 1, two wire arrangement assemblies 2 and a wire needle assembly 3. The wire storage disk assembly 1 is provided with a wire arrangement channel 15, and the wire arrangement channel 15 is located at the center of the wire storage disk assembly 1. The wire arrangement channel 15 is formed by a semicircular superimposed layer component 11, a left superimposed layer component 12 provided at the left front of the opening side of the semicircular superimposed layer component 11, and a right superimposed layer component 13 provided at the right front of the opening side of the semicircular superimposed layer component 11. The output end of the wiring assembly 2 is fitted between the semicircular superimposed layer component 11 and the left superimposed layer component 12, and the output end of the other wiring assembly 2 is fitted between the semicircular superimposed layer component 11 and the right superimposed layer component 13. The left superimposed layer component 12 and the right superimposed layer component 13 are between the winding processing area 14, and the wire needle assembly 3 is arranged on one side of the winding processing area 14. The two wiring assemblies 2 are used to drive the winding of the enameled wire formed in the circular wiring channel in the middle of the wire storage disk assembly 1.
[0030] The semicircular stacking layer component 11 is formed by stacking the semicircular cover plate 111 of the wire storage disk, the semicircular channel forming gasket 112 of the wire storage disk and the semicircular bottom cover 113 of the wire storage disk from top to bottom; the left stacking layer component 12 is formed by stacking the left cover plate 121 of the wire storage disk, the left channel forming gasket 122 of the wire storage disk and the left bottom cover 123 of the wire storage disk from top to bottom; the right stacking layer component 13 is formed by stacking the right cover plate 131 of the wire storage disk, the right channel forming gasket 132 of the wire storage disk and the right bottom cover 133 of the wire storage disk from top to bottom, wherein the semicircular channel forming gasket 112 of the wire storage disk, the left channel forming gasket 122 of the wire storage disk and the right channel forming gasket 132 of the wire storage disk are combined to form an inner circular channel structure, and the inner circular channel structure is the wire arrangement channel 15.
[0031] The magnetic ring wire arrangement and winding mechanism also includes a switching channel assembly 4. A wire pre-arrangement channel 1121 is provided on the right side of the semicircular channel forming gasket 112 of the wire storage disk. The wire pre-arrangement channel 1121 is connected to the wire arrangement channel 15. The output end of the switching channel assembly 4 is arranged between the wire pre-arrangement channel 1121 and the wire arrangement channel 15.
[0032] The two cable assemblies 2 each include a cable motor 21, a coupling 22, a bevel wheel seat 23, a bevel wheel shaft 24, an upper bevel wheel shaft 25, a lower bevel wheel shaft 26, an upper bevel wheel 27 and a lower bevel wheel 28. The cable motor 21 drives the bevel wheel shaft 24 provided on the bevel wheel seat 23 to rotate through the coupling, and the bevel wheel shaft 24 synchronously drives the upper bevel wheel shaft 25 and the lower bevel wheel shaft 26 to rotate. The upper bevel wheel shaft 25 is connected to the upper bevel wheel 27, and the lower bevel wheel shaft 26 is connected to the lower bevel wheel 28. The upper inclined wheel 27 is fitted in the first upper wire groove between the semicircular cover 111 of the wire storage disk and the left cover 121 of the wire storage disk, and the other upper inclined wheel 27 is fitted in the second upper wire groove between the semicircular cover 111 of the wire storage disk and the right cover 131 of the wire storage disk. One lower inclined wheel 28 is fitted in the first lower wire groove between the semicircular bottom cover 113 of the wire storage disk and the left bottom cover 123 of the wire storage disk, and the other lower inclined wheel 28 is fitted in the second lower wire groove between the semicircular bottom cover 113 of the wire storage disk and the right bottom cover 133 of the wire storage disk.
[0033] The wire needle assembly 3 includes a wire needle driving cylinder 31, a wire needle pusher 32, a wire needle guide sliding block 33 and a wire needle 34. The wire needle 34 is slidably connected to the wire needle guide sliding block 33. The wire needle driving cylinder 31 is connected to the pin structure on the wire needle 34 through the wire needle pusher 32, driving the wire needle 34 to insert into the magnetic ring located in the winding processing area 14, and introducing the enameled wire in the wire arrangement channel 15 into the magnetic ring.
[0034] The switching channel assembly 4 includes a door opening cylinder 41, a push rod 42 hinged at the output end of the door opening cylinder 41, a wire outlet door rotating pull block 43 hinged at the other end of the push rod 42, a mounting block 44 and a wire outlet door 45. The wire outlet door rotating pull block 43 is rotatably engaged with the mounting block 44, and the wire outlet door 45 is arranged at the upper end of the wire outlet door rotating pull block 43. The upper end of the wire outlet door 45 is engaged between the wire pre-discharge channel 1121 and the wire discharge channel 15. The door opening cylinder 41 drives the wire outlet door rotating pull block 43 to rotate through the push rod 42, thereby opening or closing the wire outlet door 45 to control the flow direction of the enameled wire.
[0035] The magnetic ring wire winding mechanism also includes a cutter assembly 5. The lower end of the winding processing area 14 is equipped with an enameled wire output tube connected to the previous enameled wire processing mechanism. The output end of the cutter assembly 5 is connected to the output end of the enameled wire output tube to cut off the enameled wire input to the required length for winding.
[0036] In summary, the specific implementation of the present invention is as follows: first, the magnetic ring feeding and clamping mechanism first extends the magnetic ring into the winding processing area 14, and the wire needle driving cylinder 31 of the wire needle assembly 3 pushes the wire needle 34 into the magnetic ring through the wire needle pushing member 32. The enameled wire is output from the enameled wire output tube connected to the previous processing mechanism, and the enameled wire passes through the magnetic ring along the wire needle 34 and begins to flow in the wire arrangement channel 15 in the wire storage disk assembly 1. The enameled wire first enters the wire arrangement channel 15 in the right stacking layer component 13, and then passes through the wire arrangement channel 15 located between the semicircular stacking layer component 11 and the right stacking layer component. The wire tracing assembly 15 between the components 13 enters the wire tracing channel 15 in the semicircular stacking layer component 11, then passes through the wire tracing assembly 15 between the semicircular stacking layer component 11 and the left stacking layer component 12, enters the wire tracing channel 15 in the left stacking layer component 12, and finally passes through the magnetic ring along the wire needle 34 again, and enters the wire tracing channel 15 in the right stacking layer component 13 again, reaching the wire tracing assembly 15 between the semicircular stacking layer component 11 and the right stacking layer component 13, completing the input of the preset winding length, and the cutter assembly 5 cuts the enameled wire located at the output port of the enameled wire output tube;
[0037] Then comes the winding stage. The magnetic ring feeding and clamping mechanism drives the magnetic ring to start rotating at a preset speed. The two wire arranging components 2 simultaneously drive their respective upper inclined wheels 27 and lower inclined wheels 28 through the wire arranging motor 21. The upper inclined wheels 27 and lower inclined wheels 28 drive the enameled wire to flow in the same direction in the wire arranging channel 15. After completing the winding of the magnetic ring, the door opening cylinder 41 of the switching channel component 4 drives the wire outlet door 45 to rotate, so that it rotates from the entrance of the wire outlet pre-arrangement channel 1121 to the position of the wire arranging channel 15. The end parts of the enameled wire all flow into the wire outlet pre-arrangement channel 1121 and wait for the next processing structure to clamp the magnetic ring away to prevent the enameled wire from being stuck in the wire arranging channel 15 and forcibly pulled off when the magnetic ring is clamped away, causing the channel to be blocked.
[0038] The above description is only the optimal solution embodiment of the present invention and is not intended to limit the present invention. Various modifications or replacements of the present invention made by those skilled in the art without departing from the essence and protection scope of the present invention should also be within the protection scope of the present invention.
Claims
1. A magnetic ring cable winding mechanism, characterized by: The invention comprises a wire storage disk assembly (1), two wire arrangement assemblies (2) and a wire needle assembly (3); a wire arrangement channel (15) is provided in the wire storage disk assembly (1); the wire arrangement channel (15) is located at the center of the wire storage disk assembly (1); the wire arrangement channel (15) is formed by a semicircular superimposed layer component (11), a left superimposed layer component (12) provided at the left front of the opening side of the semicircular superimposed layer component (11), and a right superimposed layer component (13) provided at the right front of the opening side of the semicircular superimposed layer component (11); a wire arrangement assembly (2 ) is matched between the semicircular superimposed layer component (11) and the left superimposed layer component (12), and the output end of the other wire arrangement component (2) is matched between the semicircular superimposed layer component (11) and the right superimposed layer component (13). Between the left superimposed layer component (12) and the right superimposed layer component (13) is a winding processing area (14). The wire needle component (3) is arranged on one side of the winding processing area (14). The two wire arrangement components (2) are used to drive the winding of the enameled wire formed in the circular wire arrangement channel in the middle of the wire storage disk component (1).
2. The magnetic ring cable winding mechanism according to claim 1, characterized in that: The semicircular stacking layer component (11) is formed by stacking a semicircular cover plate (111) of a wire storage disk, a semicircular channel forming gasket (112) of a wire storage disk, and a semicircular bottom cover (113) of a wire storage disk from top to bottom; the left stacking layer component (12) is formed by stacking a left cover plate (121) of a wire storage disk, a left channel forming gasket (122) of a wire storage disk, and a left bottom cover (123) of a wire storage disk from top to bottom; the right stacking layer component (13) is formed by stacking a right cover plate (131) of a wire storage disk, a right channel forming gasket (132) of a wire storage disk, and a right bottom cover (133) of a wire storage disk from top to bottom; wherein the semicircular channel forming gasket (112) of a wire storage disk, the left channel forming gasket (122) of a wire storage disk, and the right channel forming gasket (132) of a wire storage disk are combined to form an inner circular channel structure, and the inner circular channel structure is the wire arrangement channel (15).
3. The magnetic ring cable winding mechanism according to claim 2, characterized in that: The magnetic ring wire arrangement and winding mechanism further comprises a switching channel assembly (4); an outlet wire pre-arrangement channel (1121) is provided on the right side of the semicircular channel forming gasket (112) of the wire storage disk; the outlet wire pre-arrangement channel (1121) is connected to the wire arrangement channel (15); and the output end of the switching channel assembly (4) is arranged between the outlet wire pre-arrangement channel (1121) and the wire arrangement channel (15).
4. The magnetic ring cable winding mechanism according to claim 2, characterized in that: The two cable arranging assemblies (2) each comprise a cable arranging motor (21), a coupling (22), an inclined wheel seat (23), an inclined wheel shaft (24), an upper inclined wheel rotating shaft (25), a lower inclined wheel rotating shaft (26), an upper inclined wheel (27) and a lower inclined wheel (28); the cable arranging motor (21) drives the inclined wheel shaft (24) arranged on the inclined wheel seat (23) to rotate through the coupling; the inclined wheel shaft (24) synchronously drives the upper inclined wheel rotating shaft (25) and the lower inclined wheel rotating shaft (26) to rotate; the upper inclined wheel rotating shaft (25) is connected to the upper inclined wheel (27), and the lower inclined wheel rotating shaft (26) is connected to the lower inclined wheel (28). The cable storage device is connected to the cable storage device, wherein one of the upper inclined wheels (27) is matched with the first upper cable groove between the semicircular cover plate (111) of the cable storage device and the left cover plate (121) of the cable storage device, and the other upper inclined wheel (27) is matched with the second upper cable groove between the semicircular cover plate (111) of the cable storage device and the right cover plate (131) of the cable storage device, and one of the lower inclined wheels (28) is matched with the first lower cable groove between the semicircular bottom cover (113) of the cable storage device and the left bottom cover (123) of the cable storage device, and the other lower inclined wheel (28) is matched with the second lower cable groove between the semicircular bottom cover (113) of the cable storage device and the right bottom cover (133) of the cable storage device.
5. The magnetic ring cable winding mechanism according to claim 1, characterized in that: The wire needle assembly (3) comprises a wire needle driving cylinder (31), a wire needle pushing piece (32), a wire needle guiding sliding block (33) and a wire needle (34). The wire needle (34) is slidably connected to the wire needle guiding sliding block (33). The wire needle driving cylinder (31) is connected to the pin structure on the wire needle (34) through the wire needle pushing piece (32), and drives the wire needle (34) to be inserted into the magnetic ring located in the winding processing area (14), so as to introduce the enameled wire in the wiring channel (15) into the magnetic ring.
6. The magnetic ring cable winding mechanism according to claim 3, characterized in that: The switching channel assembly (4) comprises a door opening cylinder (41), a push rod (42) hinged to the output end of the door opening cylinder (41), a wire outlet door rotating pull block (43) hinged to the other end of the push rod (42), a mounting block (44) and a wire outlet door (45). The wire outlet door rotating pull block (43) is rotatably engaged with the mounting block (44). The wire outlet door (45) is arranged at the upper end of the wire outlet door rotating pull block (43). The upper end of the wire outlet door (45) is engaged between the wire outlet pre-discharge channel (1121) and the wire discharge channel (15). The door opening cylinder (41) drives the wire outlet door rotating pull block (43) to rotate through the push rod (42), thereby opening or closing the wire outlet door (45) to control the flow direction of the enameled wire.
7. The magnetic ring cable winding mechanism according to claim 5, characterized in that: The magnetic ring wire arrangement and winding mechanism further comprises a cutter assembly (5); the lower end of the winding processing area (14) is equipped with an enameled wire output tube connected to the previous enameled wire processing mechanism; the output end of the cutter assembly (5) is connected to the output end of the enameled wire output tube, and is used to cut the enameled wire input to the required length for winding.