A winding mechanism for inductor production

Abstract

The present invention relates to a winding mechanism for inductor production, comprising a processing table, a carrier table, a guide module, a winding module, and copper wire; the carrier table is fixedly connected to the processing table, and workstations 1 and 2 are reserved above the carrier table; the guide module is arranged in workstation 1 of the carrier table, and the winding module is arranged in workstation 2 of the carrier table, and the copper wire passes through the guide module and is coiled on the winding module; a U-shaped block is installed on the processing table, and a pair of cutting tools are arranged in the block for telescopic movement by means of a threaded rod and a threaded sleeve. This inductor production winding mechanism uses a telescopic cylinder to link the movable sleeve to flip, and adjusts the curvature of the copper wire between the conveyor belt and the winding column in real time, avoiding the problem of excessive curvature caused by wire accumulation, ensuring winding uniformity and copper wire tension stability, and preventing deformation or damage to the copper wire.

Description

Technical Field

[0001] The invention belongs to the technical field of inductors, and in particular relates to a winding mechanism for producing inductors. Background Art

[0002] An inductor is a component that converts electrical energy into magnetic energy and stores it. Its structure is similar to that of a transformer, but with only one winding. An inductor has a certain inductance, which only blocks changes in current. If no current flows through the inductor, it will attempt to block current flow when the circuit is connected. If current flows through the inductor, it will attempt to maintain the current when the circuit is disconnected. Inductors, also known as chokes, reactors, and dynamic reactors, require winding wire during inductor production, necessitating the use of an inductor winding device.

[0003] When winding multiple coils in traditional guided inductor production, the thickness of the copper wire changes. The curvature of the copper wire from the guide mechanism to the winding post gradually increases, causing the copper wire to become locally thinner and increase resistance, which may cause temperature rise. There is also a risk of micro-cracks, which may cause short circuits or leakage.

[0004] In view of this, an inductor production winding mechanism is proposed. Summary of the Invention

[0005] The purpose of this section is to summarize some aspects of the embodiments of the present invention and briefly introduce some preferred embodiments. Some simplifications or omissions may be made in this section and the abstract and title of this application to avoid obscuring the purpose of this section, the abstract and the title of the invention, and such simplifications or omissions should not be used to limit the scope of the present invention.

[0006] In view of the following technical problems in the existing technology: when the traditional guided inductor production winding mechanism is winding, the thickness will also change when winding multiple coils. The curvature of the copper wire from the guide mechanism to the winding column gradually expands, causing the copper wire to become locally thinner and the resistance to increase, which may cause temperature rise. At the same time, there is a risk of microcracks, causing short circuit or leakage.

[0007] To solve the above technical problems, the present invention provides the following technical solutions: an inductor production winding mechanism, comprising a processing table, a carrying table, a guide module, a winding module and copper wire;

[0008] The carrier platform is fixedly connected to the processing table, and a workstation 1 and a workstation 2 are reserved on the upper position of the carrier platform; the guide module is arranged in the workstation 1 of the carrier platform, and the winding module is arranged in the workstation 2 of the carrier platform. The copper wire passes through the guide module and is wound on the winding module;

[0009] A U-shaped block is installed on the processing table, and a pair of knives and forks are arranged in the U-shaped block for telescopic movement by means of a threaded rod and a threaded sleeve;

[0010] The winding module includes a third motor, a square frame, a winding column, and a fourth motor. The third motor is arranged on the second station of the carrier platform. A linkage rod is installed at the moving part of the third motor. The square frame is connected to the linkage rod at a position away from the third motor. The third motor is linked to the winding column by the linkage rod to perform a rotary motion.

[0011] The guide module includes a fixed sleeve, a movable sleeve and a bearing seat. The fixed sleeve is flip-configured on the workstation 1 of the bearing platform. The inner edge of the fixed sleeve is provided with a bearing frame. The movable sleeve is rotatably arranged at the position where the fixed sleeve faces the square frame. The movable sleeve is docked with the workstation 1 position of the bearing platform by relying on the bearing structure.

[0012] As an optimal technical solution for an inductor production winding mechanism, the winding column is arranged in a rotary manner in the square frame, the motor four is arranged at the edge of the square frame, and the movable part of the motor four passes through the square frame and connects with the winding column.

[0013] As an optimal technical solution for an inductor production winding mechanism, the movable sleeve and the fixed sleeve are in a relatively rotating connection relationship, and a pair of guide frames are installed at the intersection of station 1 and station 2 of the support platform, and the pair of guide frames are distributed in a mirror image.

[0014] As an optimal technical solution for an inductor production winding mechanism, the supporting structure includes a guide and a telescopic cylinder. The guide is installed at the position of the movable sleeve facing the winding column. The curvature of the guide is the same as the curvature of the outer contour of the movable sleeve. The outer contour of the movable sleeve is configured with a guide rail. The guide is docked into the guide rail of the movable sleeve. The position of the telescopic cylinder facing the supporting platform is rotatably docked with it, and the position of the telescopic cylinder facing the guide is rotatably docked with it.

[0015] As an optimal technical solution for an inductor production winding mechanism, the supporting seats are configured in a pair, and the pair of supporting seats are connected to the inner edge of the movable sleeve in a telescopic manner by relying on an assembly structure. The assembly structure includes a pair of guide columns and linkage columns. The guide columns are fixedly connected to the inner edge of the movable sleeve, and the guide columns are telescopically docked with the supporting seats. A pair of linkage columns are rotatably configured on the supporting seat, and a pair of linkage columns on the supporting seat are jointly provided with a transfer belt, and the transfer belt is transfer-docked with the supporting seat by relying on the linkage column, and the pair of transfer belts limit the copper wire to its middle position; a motor 1 is configured on the movable sleeve, and the moving part of the motor 1 passes through the movable sleeve and docks with the linkage column, and the linkage column guides the telescopic movement in the moving part of the motor 1, and the linkage column moves together with the motor 1.

[0016] As an optimal technical solution for the winding mechanism of inductor production, the guide structure is configured on the fixed sleeve and the movable sleeve. The guide structure includes motor 2, linkage ring 1, linkage ring 2 and linkage plate. The linkage ring 1 is fixedly connected and wrapped around the outer contour of the movable sleeve facing the fixed sleeve. The outer contour of the linkage ring 1 is milled with array-distributed tooth groove patterns.

[0017] As an optimal technical solution for the winding mechanism of inductor production, the motor 2 is installed outside the fixed sleeve, the moving part of the motor 2 is connected to a linkage disk, and the outer contour of the linkage disk is milled with array-distributed tooth groove patterns, and the motor 2 relies on the linkage disk to engage with the linkage ring 1.

[0018] As an optimal technical solution for an inductor production winding mechanism, the second linkage ring is fixedly connected to the back of the carrier, and the outer contour of the second linkage ring is milled with an array of distributed notch patterns. The linkage plate is installed on the side of the carrier seat facing the carrier frame by relying on the carrier arm; the side of the linkage plate facing the copper wire is milled with continuous notch patterns, and the linkage plate is engaged with the second linkage ring.

[0019] As an optimal technical solution for an inductor production winding mechanism, the inner edge of the carrier is provided with a built-in loop.

[0020] As an optimal technical solution for an inductor production winding mechanism, a built-in wool strip is installed on the linkage plate.

[0021] Beneficial effects of the present invention:

[0022] The inductor production winding mechanism uses a telescopic cylinder to link the movable sleeve to flip, adjusting the curvature of the copper wire between the conveyor belt and the winding column in real time to avoid excessive curvature caused by wire accumulation, ensuring winding uniformity and copper wire tension stability, and preventing copper wire deformation or damage.

[0023] The guide structure of the inductor production winding mechanism drives the bearing seat and the conveyor belt to reciprocate and retract through the engagement of gears, changing the contact position between the copper wire and the conveyor belt, avoiding damage to the conveyor belt caused by resistance during long-term local contact, and preventing copper wire deviation caused by conveyor belt damage, thereby improving winding accuracy.

[0024] The inductor production winding mechanism has a built-in flexible loop on the carrier frame, which automatically removes surface impurities when the copper wire is inserted, preventing impurities from squeezing and damaging the copper wire or affecting the winding quality. The built-in wool strips on the linkage board clean the conveyor belt in real time to prevent impurities from sticking to the conveyor belt and contaminating the copper wire and causing damage to the copper wire.

[0025] Other features and advantages of the present invention will be described in the following description, and in part will become apparent from the description, or will be understood by practicing the present invention. The purposes and other advantages of the present invention can be realized and obtained through the structures particularly pointed out in the description and the drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0026] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the following briefly introduces the drawings required for describing the embodiments. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be derived from these drawings without inventive work. Among them:

[0027] Figure 1 It is a schematic diagram of the overall structure of the present invention.

[0028] Figure 2 It is a schematic diagram of the supporting platform, guide module and winding module of the present invention.

[0029] Figure 3 The present invention is based on Figure 2 Schematic diagram of the fixed set plane.

[0030] Figure 4 The present invention is based on Figure 3 Schematic diagram at the center X.

[0031] Figure 5 The present invention is based on Figure 2 Schematic diagram below.

[0032] Figure 6 The present invention is based on Figure 5 Half-section diagram.

[0033] Figure 7 The present invention is based on Figure 6 Schematic diagram at point Y in the middle.

[0034] Figure 8 This is a schematic diagram of the square frame of the present invention being turned over.

[0035] Figure 9 The present invention is based on Figure 6 Schematic diagram of point Z in the middle.

[0036] Figure 10 The present invention is based on Figure 8 Schematic diagram of the fixed set plane.

[0037] Figure 11 The present invention is based on Figure 6 Schematic diagram at point P in the middle.

[0038] Figure 12It is a schematic diagram of the docking of the bearing seat and the linkage column of the present invention.

[0039] Reference numerals:

[0040] 10. Processing table; 20. U-shaped block; 21. Knife; 30. Carrying platform; 40. Fixed sleeve; 41. Moving sleeve; 42. Guide; 43. Telescopic cylinder; 44. Carrying frame; 45. Built-in loop; 46. Guide frame; 47. Carrying seat; 48. Guide column; 49. Linkage column; 410. Conveyor belt; 411. Motor 2; 412. Linkage loop 1; 413. Linkage loop 2; 414. Linkage plate; 415. Built-in wool strip; 50. Motor 3; 51. Square frame; 52. Coiled column; 53. Motor 4; 60. Copper wire. DETAILED DESCRIPTION

[0041] In order to make the above-mentioned objects, features and advantages of the present invention more obvious and easy to understand, the specific embodiments of the present invention are described in detail below with reference to the accompanying drawings.

[0042] In the following description, many specific details are set forth to facilitate a full understanding of the present invention. However, the present invention may also be implemented in other ways different from those described herein. Those skilled in the art may make similar generalizations without violating the connotation of the present invention. Therefore, the present invention is not limited to the specific embodiments disclosed below.

[0043] Secondly, the term "one embodiment" or "embodiment" herein refers to a specific feature, structure, or characteristic that may be included in at least one implementation of the present invention. The phrase "in one embodiment" appearing in various places throughout this specification does not necessarily refer to the same embodiment, nor does it constitute a separate or selective embodiment that is mutually exclusive with other embodiments.

[0044] Furthermore, the present invention is described in detail with reference to schematic diagrams. For ease of illustration, when describing the embodiments of the present invention, cross-sectional views illustrating device structures may be partially enlarged and not to scale. Furthermore, the schematic diagrams are merely illustrative and should not limit the scope of protection of the present invention. Furthermore, in actual production, the three-dimensional dimensions of length, width, and depth should be included.

[0045] Example, see Figure 1 and 2 , an inductor production winding mechanism, comprising a processing table 10, a carrying table 30, a guide module, a winding module and a copper wire 60;

[0046] The carrier 30 is fixedly connected to the processing table 10. The upper position of the carrier 30 is reserved for station 1 and station 2. The guide module is configured in station 1 of the carrier 30, and the winding module is configured in station 2 of the carrier 30. The copper wire 60 passes through the guide module and is coiled on the winding module.

[0047] A U-shaped block 20 is installed on the processing table 10. A pair of cutters 21 are arranged in the U-shaped block 20 to move telescopically by means of a threaded rod and a threaded sleeve. The cutters 21 are normally stored in the U-shaped block 20. After a set of windings is completed, the threaded rod and the threaded sleeve control the relative movement of the cutters 21 to cut the copper wire 60.

[0048] Reference Figure 2 、 5 and 8. The winding module includes a motor three 50, a square frame 51, a winding column 52 and a motor four 53. The motor three 50 is arranged on the workstation two of the supporting platform 30. The moving part of the motor three 50 is equipped with a linkage rod. The square frame 51 is connected to the part of the linkage rod away from the motor three 50. The motor three 50 relies on the linkage rod to link the winding column 52 to perform a rotary motion. The winding column 52 is rotary-arranged in the square frame 51. The motor four 53 is arranged at the edge of the square frame 51. The moving part of the motor four 53 passes through the square frame 51 and is connected to the winding column 52, wherein the motor four 53 controls the winding column 52 to perform a rotary motion.

[0049] Reference Figure 2 、 5 and 6. The guide module includes a fixed sleeve 40, a movable sleeve 41 and a bearing seat 47. The fixed sleeve 40 is flip-configured on the workstation 1 of the bearing platform 30. The inner edge of the fixed sleeve 40 is provided with a bearing frame 44. The movable sleeve 41 is rotatably arranged at the position of the fixed sleeve 40 facing the square frame 51. The movable sleeve 41 is docked with the workstation 1 position of the bearing platform 30 by relying on the bearing structure. The movable sleeve 41 and the fixed sleeve 40 are in a relatively rotatable connection relationship. A pair of guide frames 46 are installed at the intersection of the workstations 1 and 2 of the bearing platform 30, and the pair of guide frames 46 are distributed in a mirror-image manner.

[0050] Reference Figure 6 and 7 The bearing structure includes a guide 42 and a telescopic cylinder 43. The guide 42 is installed at the position of the movable sleeve 41 facing the winding column 52. The curvature of the guide 42 is the same as the curvature of the outer contour of the movable sleeve 41. The outer contour of the movable sleeve 41 is equipped with a guide rail. The guide 42 is docked into the guide rail of the movable sleeve 41 to ensure that the movable sleeve 41 can perform a rotary motion. The position of the telescopic cylinder 43 facing the bearing platform 30 is rotatably docked with it. The position of the telescopic cylinder 43 facing the guide 42 is rotatably docked with it. When the movable sleeve 41 rotates, the motor 453 The control frame 51 is controlled to perform a rotary motion, which can reduce the surface pressure effect of the copper wire 60 on the portion where the conveyor belt 410 extends out. When the copper wire 60 is wound more or more heavily on the winding column 52, the curvature of the point where the copper wire 60 extends out of the conveyor belt 410 and the point where the copper wire 60 connects to the winding column 52 will increase. At this time, the telescopic cylinder 43 is controlled, and the telescopic cylinder 43 links the movable sleeve 41 to flip, so that the curvature of the conveyor belt 410 and the copper wire 60 on the winding column 52 can be effectively controlled to prevent the curvature from affecting the subsequent application effect of the copper wire 60.

[0051] Reference Figure 4 、 6 , 9, 11 and 12, the number of bearing seats 47 is a pair, and a pair of bearing seats 47 is connected to the inner edge of the movable sleeve 41 by telescopic movement of the assembly structure. The assembly structure includes a pair of guide columns 48 and linkage columns 49. The guide columns 48 are fixedly connected to the inner edge of the movable sleeve 41. The guide columns 48 and the bearing seats 47 are telescopically connected. A pair of linkage columns 49 are swivel-mounted on the bearing seat 47. A transmission belt 410 is commonly configured on the pair of linkage columns 49 on the bearing seat 47. The transmission belt 410 is connected by the linkage column 49. On the supporting seat 47, a pair of transfer belts 410 confine the copper wire 60 to its middle position; a motor 1 is provided on the movable sleeve 41, and the motor 1 controls the transfer belt 410 to perform the transfer work, thereby guiding the copper wire 60. The copper wire 60 passes from the supporting frame 44 and reaches the transfer belt 410, and is finally coiled on the winding column 52. The moving part of the motor 1 passes through the movable sleeve 41 and docks with the linkage column 49, and the linkage column 49 guides the telescopic movement in the moving part of the motor 1, and the linkage column 49 moves with the motor 1.

[0052] Reference Figure 2 and 5 The guide structure is configured on the fixed sleeve 40 and the movable sleeve 41. When the conveyor belt 410 transfers the copper wire 60, the guide structure can control the supporting seat 47 to link the conveyor belt 410 to change its telescopic position, thereby reciprocatingly changing the contact position between the conveyor belt 410 and the copper wire 60, which can prevent the conveyor belt 410 from being damaged by long-term contact at the same position, thereby improving the working efficiency of the conveyor belt 410, and preventing the position of the copper wire 60 from being offset due to slight damage to the conveyor belt 410, affecting the winding effect, and the guide structure It includes a second motor 411, a first linkage ring 412, a second linkage ring 413, and a linkage plate 414. The first linkage ring 412 is fixedly connected and surrounds the outer contour of the movable sleeve 41 facing the fixed sleeve 40. The outer contour of the first linkage ring 412 is milled with an array of tooth groove patterns. The second motor 411 is installed outside the fixed sleeve 40. The moving part of the second motor 411 is connected to a linkage disk, and the outer contour of the linkage disk is milled with an array of tooth groove patterns. The second motor 411 is engaged with the first linkage ring 412 by the linkage disk.

[0053] Reference Figure 4 、 911, the second linkage ring 413 is fixedly connected to the back of the carrier 44, and the outer contour of the second linkage ring 413 is milled with an array of tooth groove patterns. The linkage plate 414 is installed on the side of the carrier seat 47 facing the carrier 44 by the support arm; the side of the linkage plate 414 facing the copper wire 60 is milled with continuous tooth groove patterns. The linkage plate 414 engages with the second linkage ring 413. Under the action of the linkage disk, the second motor 411 can link the linkage ring 1 412 to perform a rotary motion, and the movable sleeve 41 can also perform a rotary motion accordingly. The movable sleeve 41 relies on the assembled structure to link the supporting seat 47 and the transmission belt 410 to perform a rotary motion. When the linkage plate 414 rotates, it engages with the linkage ring 2 413. At the same time, the supporting seat 47 and the transmission belt 410 perform a telescopic motion, thereby reciprocatingly changing the fitting position of the transmission belt 410 and the copper wire 60. This can prevent the transmission belt 410 from being damaged by long-term fitting at the same position, thereby improving the working efficiency of the transmission belt 410, and preventing the position of the copper wire 60 from being offset due to slight damage to the transmission belt 410, affecting the winding effect.

[0054] Reference Figure 9 and 11 After the copper wire 60 is manufactured, it first passes through the carrier 44 to reach the position of the conveyor belt 410. The inner edge of the carrier 44 is provided with a built-in loop 45, and the built-in loop 45 is flexible to avoid damage to the copper wire 60. When the copper wire 60 passes through the carrier 44, the built-in loop 45 separates the impurities adhered to the surface of the copper wire 60 to avoid the impurities on the copper wire 60 being squeezed with its surface and damaged in subsequent operations.

[0055] Reference Figure 9 A built-in wool strip 415 is installed on the linkage plate 414, and the built-in wool strip 415 acts on the transfer belt 410. The built-in wool strip 415 can separate impurities on the transfer belt 410 to avoid damage to the copper wire 60 when the transfer belt 410 is in contact with the copper wire 60.

[0056] The above contents can be used to achieve the following: firstly, the copper wire 60 passes through the carrier 44 to the position of the conveyor belt 410, and passes through the conveyor belt 410 and the guide frame 46 and is wound on the winding column 52. Under the action of the linkage disk, the motor 2 411 can link the linkage ring 1 412 to perform a rotary motion, and the movable sleeve 41 can also perform a rotary motion accordingly. The movable sleeve 41 relies on the assembly structure to link the carrier seat 47 and the conveyor belt 410 to perform a rotary motion. The linkage plate 414 engages with the linkage ring 2 413 during the rotary motion. The carrier seat 47 and the conveyor belt 410 perform a telescopic motion at the same time, thereby reciprocatingly changing the fitting position of the conveyor belt 410 and the copper wire 60. This can prevent the conveyor belt 410 from being damaged by long-term contact at the same position, thereby improving the working efficiency of the conveyor belt 410, and preventing the position of the copper wire 60 from being offset due to slight damage to the conveyor belt 410, affecting the coiling effect. When the copper wire 60 passes through the carrier 44, the built-in loop 45 is used to separate impurities adhered to the surface of the copper wire 60 to prevent the impurities on the copper wire 60 from being squeezed and damaged by the surface during subsequent operations, and the built-in wool strip 415 acts on the conveyor belt 410 that is in the process of conveying. The built-in wool strip 415 can separate the impurities on the conveyor belt 410 to prevent the copper wire 60 from being damaged when the conveyor belt 410 and the copper wire 60 are in contact. When the copper wire 60 is wound more or more on the winding column 52, the curvature of the point where the copper wire 60 extends out of the conveyor belt 410 and the point where the copper wire 60 connects to the winding column 52 will increase; at this time, the telescopic cylinder 43 is controlled, and the telescopic cylinder 43 links the movable sleeve 41 to flip, so that the curvature of the conveyor belt 410 and the copper wire 60 on the winding column 52 can be effectively controlled to prevent the curvature from affecting the subsequent application effect of the copper wire 60. Finally, after a set of winding is completed, the threaded rod and the threaded sleeve control the relative movement of the knife 21 to cut the copper wire 60.

[0057] It will be understood that in the development of any actual embodiment, as in any engineering or design project, numerous implementation-specific decisions may be made. Such a development effort may be complex and time-consuming, but for those of ordinary skill having the benefit of this disclosure, the development effort will be a routine task of design, fabrication, and production without undue experimentation.

[0058] It should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the preferred embodiments, those skilled in the art should understand that the technical solutions of the present invention may be modified or replaced by equivalents without departing from the spirit and scope of the technical solutions of the present invention, which should all be included in the scope of the claims of the present invention.

Claims

1. An inductor production winding mechanism, characterized by: It includes a processing table, a carrying table, a guide module, a winding module and copper wire; The carrier platform is fixedly connected to the processing table, and a workstation 1 and a workstation 2 are reserved on the upper position of the carrier platform; the guide module is arranged in the workstation 1 of the carrier platform, and the winding module is arranged in the workstation 2 of the carrier platform. The copper wire passes through the guide module and is wound on the winding module; A U-shaped block is installed on the processing table, and a pair of knives and forks are arranged in the U-shaped block for telescopic movement by means of a threaded rod and a threaded sleeve; The winding module includes a third motor, a square frame, a winding column, and a fourth motor. The third motor is arranged on the second station of the carrier platform. A linkage rod is installed at the moving part of the third motor. The square frame is connected to the linkage rod at a position away from the third motor. The third motor is linked to the winding column by the linkage rod to perform a rotary motion. The guide module includes a fixed sleeve, a movable sleeve and a bearing seat. The fixed sleeve is flip-type configured on the workstation 1 of the bearing platform. The inner edge of the fixed sleeve is configured with a bearing frame. The movable sleeve is rotatably configured at the position where the fixed sleeve faces the square frame. The movable sleeve is docked with the workstation 1 position of the bearing platform by relying on the bearing structure. The bearing structure includes a guide member and a telescopic cylinder. The guide member is installed at the position of the movable sleeve facing the winding column. The curvature of the guide member is the same as the curvature of the outer contour of the movable sleeve. The outer contour of the movable sleeve is configured with a guide rail. The guide member is docked into the guide rail of the movable sleeve. The position of the telescopic cylinder facing the bearing platform is rotatably docked with it, and the position of the telescopic cylinder facing the guide member is rotatably docked with it.

2. The inductor production winding mechanism according to claim 1, characterized in that: The coiled column is rotatably arranged in the square frame, the motor four is arranged at the edge of the square frame, and the movable part of the motor four passes through the square frame and connects with the coiled column.

3. The inductor production winding mechanism according to claim 1, characterized in that: The movable sleeve and the fixed sleeve are in a relatively rotating connection relationship. A pair of guide frames are installed at the intersection of the first station and the second station of the supporting platform, and the pair of guide frames are distributed in a mirror image.

4. The inductor production winding mechanism according to claim 1, characterized in that: The bearing seats are configured in a pair, and the pair of bearing seats are connected to the inner edge of the movable sleeve in a telescopic manner by relying on the assembly structure. The assembly structure includes a pair of guide columns and linkage columns. The guide columns are fixedly connected to the inner edge of the movable sleeve, and the guide columns are telescopically docked with the bearing seats. A pair of linkage columns are rotatably configured on the bearing seat. A pair of linkage columns on the bearing seat are jointly provided with a transmission belt, and the transmission belt is transfer-docked to the bearing seat by relying on the linkage column. The pair of transmission belts limit the copper wire to its middle position; a motor 1 is configured on the movable sleeve, and the moving part of the motor 1 passes through the movable sleeve and docks with the linkage column, and the linkage column guides the telescopic movement in the moving part of the motor 1, and the linkage column moves together with the motor 1.

5. The inductor production winding mechanism according to claim 1, characterized in that: The fixed sleeve and the movable sleeve are provided with a guiding structure, and the guiding structure includes a second motor, a first linkage ring, a second linkage ring and a linkage plate. The first linkage ring is fixedly connected and surrounds the outer contour of the movable sleeve facing the fixed sleeve. The outer contour of the first linkage ring is milled with array-distributed tooth groove patterns.

6. The inductor production winding mechanism according to claim 5, characterized in that: The second motor is installed outside the fixed sleeve, the moving part of the second motor is connected to the linkage disk, and the outer contour of the linkage disk is milled with array-distributed tooth groove patterns, and the second motor is engaged with the linkage ring by the linkage disk.

7. The inductor production winding mechanism according to claim 6, characterized in that: The second linkage ring is fixedly connected to the back of the carrier frame, and the outer contour of the second linkage ring is milled with an array of distributed notch patterns. The linkage plate is installed on the side of the carrier seat facing the carrier frame by relying on the carrier arm; the side of the linkage plate facing the copper wire is milled with continuous notch patterns, and the linkage plate is engaged with the second linkage ring.

8. The inductor production winding mechanism according to claim 1, characterized in that: The inner edge of the carrier is provided with a built-in loop.

9. The inductor production winding mechanism according to claim 6, characterized in that: The linkage plate is provided with built-in wool strips.

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