Tool structure for realizing frameless coil winding

Abstract

The utility model discloses a tooling structure for realizing frameless coil winding, which relates to the technical field of coil winding tooling, and comprises a guide block and a reset spring, a mounting groove is arranged in the guide block, a guide post is arranged at the lower end of the outer part of the guide block, a positioning block is additionally arranged at the lower end of the guide block, and the reset spring is arranged in the mounting groove. A framework is arranged below the positioning block, a winding groove is formed outside the framework, a movable sliding block is additionally arranged at the lower end of the framework, a mounting through hole is formed in the framework, a guide seat is arranged below the framework, and a limiting cavity is formed in the upper end of the guide seat. According to the structure for achieving the frameless coil winding tool, through the arrangement of the reset spring, the situation that when most tools conduct winding, due to the fact that tension is too large, a winding framework is prone to deformation and not easy to disassemble, and due to the fact that force is inconvenient to control, winding is likely to be uneven and not tight is avoided, and the overall use efficiency of the winding tool is conveniently improved.

Description

Technical Field

[0001] The utility model relates to the technical field of coil winding tooling, in particular to a structure of a coil winding tooling for a non-skeleton coil. Background Technique

[0002] When winding an electromagnetic coil, first, the winding shaft is connected to the chuck of the winding machine, and a lead wire is added to the end of the enameled wire. This lead wire will be wrapped inside the coil. Then, the winding machine is started to drive the winding shaft to rotate, thereby completing the winding work of the electromagnetic coil. However, if the enameled wire with the added lead wire is directly wound onto the electromagnetic coil, the initial section of the enameled wire is likely to become loose on the electromagnetic coil, which will cause a change in the tension of the initial section of the enameled wire, and then result in the problem of scattered arrangement of the enameled wire during the entire winding process. In order to improve the winding efficiency of the electromagnetic coil, a coil winding tooling is needed. However, the existing coil winding tooling still has the following deficiencies:

[0003] For example, the utility model with the application number 201720872202.4 discloses a coil winding tooling and a winding machine. The coil winding tooling and the winding machine provided by this utility model can wind transformers and reactor coils with different shapes and sizes by changing the shape and size of the baffle and adjusting the distance between the two sliders, realizing the multi-purpose function of one tooling, effectively improving the wire-changing production efficiency, reducing the tooling manufacturing cost, and improving the space utilization rate. However, for comparative documents similar to the above application, when the existing coil winding tooling is in use, since the general tooling is prone to deformation of the winding skeleton due to excessive tension during winding and is not easy to disassemble, and at the same time, because the force is inconvenient to control, the winding may be uneven and not tight, and it may also be scrapped if the force is too large.

[0004] Therefore, in view of this, research and improvement are carried out on the existing structure and deficiencies, and a structure of a coil winding tooling for a non-skeleton coil is proposed. Content of the Utility Model

[0005] The purpose of the utility model is to provide a structure of a coil winding tooling for a non-skeleton coil to solve the problems raised in the above background technique.

[0006] To achieve the above object, the present utility model provides the following technical solutions: A structure for realizing a non-skeleton coil winding tooling, including a guiding block and a return spring. An installation groove is provided inside the guiding block, and a guiding column is provided at the lower end of the outer part of the guiding block. A positioning block is additionally provided at the lower end of the guiding block. An upper limiting groove is provided inside the guiding column. A skeleton is provided below the positioning block. A winding groove is provided on the outer part of the skeleton. An active slider is additionally provided at the lower end of the skeleton. An installation through hole is provided inside the skeleton. A guiding seat is provided below the skeleton. A limiting cavity is provided inside the upper end of the guiding seat. A return spring is installed inside the limiting cavity. A lower limiting groove is provided inside the guiding seat.

[0007] Further, the guiding block and the guiding column are in an embedded connection, and the guiding block and the guiding column are in a threaded connection.

[0008] Further, the external dimension of the positioning block matches the internal dimension of the skeleton, and the positioning block and the skeleton are in an embedded connection.

[0009] Further, the skeleton is equally cut into four parts, and the skeleton and the guiding seat are in a threaded connection.

[0010] Further, the winding groove is in a hollow cylindrical shape, and the winding grooves are equally distributed on the outer part of the skeleton.

[0011] Further, the active slider and the skeleton are vertically distributed, and the active slider and the skeleton are in a threaded connection.

[0012] Further, the active slider and the limiting cavity are in an embedded connection, and the active slider is elastically connected to the limiting cavity through the return spring.

[0013] Further, the outer side of the skeleton and the outer side of the guiding seat are closely attached, and the skeleton is slidably connected to the guiding seat through the return spring.

[0014] The present utility model provides a structure for realizing a non-skeleton coil winding tooling, having the following beneficial effects:

[0015] 1. Through the setting of the positioning block in the present utility model, when the structure of the non-skeleton coil winding tooling is used, it can avoid the problem that the stability of most winding toolings is poor during the winding operation, resulting in the tension of the electromagnetic coil being easily affected and the use efficiency of the winding tooling being reduced. The positioning block is fixedly installed at the lower end of the guiding block through a fastener, and the guiding block is installed inside the guiding column and bolt-fixed, so that the positioning block protrudes from the middle of the bottom of the guiding column. The guiding column, the skeleton, and the guiding seat are placed in sequence, and the guiding column, the skeleton, and the guiding seat are bolt-fixed by using the upper limiting groove to cooperate with the installation through hole and the lower limiting groove, so that the positioning block is embedded into the upper end of the inside of the skeleton, thereby limiting and fixing the skeleton and avoiding the position deviation of the skeleton during the winding process, and improving the overall winding efficiency.

[0016] 2. By setting the return spring, when the structure of the frameless coil winding tooling is used, it can avoid the problem that most toolings are prone to deformation of the winding frame due to excessive tension during winding, which is not easy to disassemble. At the same time, because the force is inconvenient to control, the winding may be uneven and not tight, and if the force is too large, it may even cause scrapping. The movable slider is fixedly installed in the middle of the lower end of the frame through the fastener. At the same time, the internal size of the limiting cavity opened inside the guide seat matches the external size of the movable slider. The return spring is installed inside the limiting cavity through the fastener, and the movable slider is fixedly installed at the front end of the return spring in cooperation with the fastener, so that the movable slider is elastically connected to the limiting cavity through the return spring, so that the frame slides on the upper end of the guide seat through the return spring. The cylinder is installed inside the guide block through the installation groove. The part of the cylinder extends out of its front end through the through groove opened in the middle of the positioning block. At the same time, the front part of the cylinder is closely attached to the middle part inside the frame. When the cylinder operates, the frame cut into four parts will disperse accordingly. The cable coil is wound around the outside of the frame at equal intervals through the winding groove to prevent the enameled wire from loosening and being scattered during winding. After winding, the cylinder contracts and the frame rebounds with the return spring, so that it is convenient to remove the electromagnetic coil. During the winding process, the whole tooling rotates. The structure is simple, the process is reduced, the control operation is convenient, and the assembly efficiency can be effectively improved and the coil deformation problem can be reduced. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 is a three-dimensional structure schematic diagram of a structure of a frameless coil winding tooling of the present utility model;

[0018] Figure 2 is a three-dimensional top view structure schematic diagram of the return spring of a structure of a frameless coil winding tooling of the present utility model;

[0019] Figure 3 is a three-dimensional bottom view structure schematic diagram of the positioning block of a structure of a frameless coil winding tooling of the present utility model;

[0020] Figure 4 is a three-dimensional bottom view structure schematic diagram of the frame of a structure of a frameless coil winding tooling of the present utility model.

[0021] In the figure: 1. Guide block; 2. Installation groove; 3. Guide post; 4. Positioning block; 5. Upper limit groove; 6. Frame; 7. Winding groove; 8. Movable slider; 9. Installation through hole; 10. Guide seat; 11. Limiting cavity; 12. Return spring; 13. Lower limit groove. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0022] The following further describes in detail the implementation mode of the present utility model in conjunction with the accompanying drawings and embodiments. The following embodiments are used to illustrate the present utility model, but cannot be used to limit the scope of the present utility model.

[0023] As Figures 1 to 4 shown, a structure for realizing a non-skeleton coil winding tooling includes a guide block 1 and a return spring 12. An installation groove 2 is provided inside the guide block 1, and a guide post 3 is arranged at the lower end of the outer part of the guide block 1. A positioning block 4 is additionally provided at the lower end of the guide block 1. At the same time, an upper limit groove 5 is provided inside the guide post 3. A skeleton 6 is arranged below the positioning block 4. The guide block 1 and the guide post 3 are in an embedded connection, and the guide block 1 and the guide post 3 are in a threaded connection. The external dimension of the positioning block 4 matches the internal dimension of the skeleton 6, and the positioning block 4 and the skeleton 6 are in an embedded connection. The skeleton 6 is equally cut into four parts, and the skeleton 6 is in a threaded connection with the guide seat 10. The positioning block 4 is fixedly installed at the lower end of the guide block 1 through a fastener, and the guide block 1 is installed inside the guide post 3 and bolted, so that the positioning block 4 protrudes from the middle of the bottom of the guide post 3. The guide post 3, the skeleton 6 and the guide seat 10 are placed in sequence, and the guide post 3, the skeleton 6 and the guide seat 10 are bolted by using the upper limit groove 5 to cooperate with the installation through hole 9 and the lower limit groove 13, so that the positioning block 4 is embedded into the upper end of the inside of the skeleton 6, thereby limiting and fixing the skeleton 6, avoiding the position deviation of the skeleton 6 during the winding process, and improving the overall winding efficiency.

[0024] As Figures 1 to 4As shown, a wire winding groove 7 is provided on the outside of the skeleton 6, and a movable slider 8 is additionally provided at the lower end of the skeleton 6. At the same time, an installation through hole 9 is provided inside the skeleton 6. A guide seat 10 is arranged below the skeleton 6, and a limiting cavity 11 is provided inside the upper end of the guide seat 10. A return spring 12 is installed inside the limiting cavity 11. A lower limiting groove 13 is provided inside the guide seat 10. The wire winding groove 7 is in a hollow cylindrical shape and is equidistantly distributed on the outside of the skeleton 6. The movable slider 8 is vertically distributed with respect to the skeleton 6 and is threadedly connected to the skeleton 6. The movable slider 8 is embedded in the limiting cavity 11 and is elastically connected to the limiting cavity 11 through the return spring 12. The outer side of the skeleton 6 is in close contact with the outer side of the guide seat 10, and the skeleton 6 is slidably connected to the guide seat 10 through the return spring 12. The movable slider 8 is fixedly installed in the middle of the lower end of the skeleton 6 through a fastener. At the same time, the internal dimension of the limiting cavity 11 provided inside the guide seat 10 matches the external dimension of the movable slider 8. The return spring 12 is installed inside the limiting cavity 11 through a fastener, and the movable slider 8 is fixedly installed at the front end of the return spring 12 in cooperation with the fastener, so that the movable slider 8 is elastically connected to the limiting cavity 11 through the return spring 12, thereby enabling the skeleton 6 to slide on the upper end of the guide seat 10 through the return spring 12. The cylinder is installed into the guide block 1 through the installation groove 2. The cylinder extends out of the front part of the cylinder through the through groove provided in the middle of the front end of the positioning block 4. At the same time, the front part of the cylinder is in close contact with the middle part inside the skeleton 6. When the cylinder operates, the skeleton 6 cut into four parts scatters accordingly. The cable reel is evenly wound around the outside of the skeleton 6 through the wire winding groove 7, preventing the enameled wire from loosening and being randomly arranged during winding. After winding, the cylinder contracts and the skeleton 6 rebounds with the return spring 12, facilitating the removal of the electromagnetic coil. During the winding process, the whole tooling rotates. The structure is simple, the process is reduced, the control operation is convenient, the assembly efficiency can be effectively improved, and the problem of coil deformation can be reduced.

[0025] In summary, for the structure of the skeleton-free coil winding tooling, during use, first, the positioning block 4 is fixedly installed at the lower end of the guiding block 1 via a fastener, and the guiding block 1 is installed inside the guiding column 3 and bolted, such that the positioning block 4 protrudes from the middle of the bottom of the guiding column 3. The guiding column 3, the skeleton 6, and the guiding seat 10 are placed in sequence, and the guiding column 3, the skeleton 6, and the guiding seat 10 are bolted using the upper limit groove 5, the fitting installation through-hole 9, and the lower limit groove 13, such that the positioning block 4 is embedded into the upper end inside the skeleton 6, thereby limiting and fixing the skeleton 6. Next, the movable slider 8 is fixedly installed at the middle of the lower end of the skeleton 6 via a fastener. Meanwhile, the internal dimension of the limiting cavity 11 opened inside the guiding seat 10 matches the external dimension of the movable slider 8. The return spring 12 is installed inside the limiting cavity 11 via a fastener, and the movable slider 8 is fixedly installed at the front end of the return spring 12 in cooperation with the fastener, such that the movable slider 8 is elastically connected to the limiting cavity 11 through the return spring 12, thereby enabling the skeleton 6 to slide on the upper end of the guiding seat 10 through the return spring 12. The cylinder is installed inside the guiding block 1 through the installation groove 2. The part of the front end of the cylinder extends out through the through-hole opened in the middle of the positioning block 4, and at the same time, the part of the front end of the cylinder is closely attached to the middle inside the skeleton 6. When the cylinder operates, the skeleton 6 cut into four parts scatters accordingly. The cable reel is evenly wound around the outside of the skeleton 6 through the winding groove 7, preventing the enameled wire from loosening and being scattered during winding. After winding, the cylinder contracts and the skeleton 6 rebounds with the return spring 12, thus facilitating the removal of the electromagnetic coil. During the winding process, the whole tooling rotates. The structure is simple, the processes are reduced, the control operation is convenient, which can effectively improve the assembly efficiency and reduce the problem of coil deformation.

[0026] The embodiments of the present invention are given for purposes of illustration and description, and are not exhaustive or limit the present invention to the disclosed form. Many modifications and variations are obvious to those of ordinary skill in the art. The embodiments are selected and described to better illustrate the principles and practical applications of the present invention, and enable those of ordinary skill in the art to understand the present invention and design various embodiments with various modifications suitable for specific purposes.

Claims

1. A structure for realizing a frameless coil winding tool, comprising a guide block (1) and a return spring (12), characterized in that: The guide block (1) is provided with a mounting groove (2) inside, and a guide column (3) is provided at the lower end of the guide block (1), and a positioning block (4) is added at the lower end of the guide block (1), and an upper limit groove (5) is provided inside the guide column (3), a frame (6) is provided below the positioning block (4), and a winding groove (7) is provided outside the frame (6), and a movable slider (8) is added at the lower end of the frame (6), and a mounting through hole (9) is provided inside the frame (6), a guide seat (10) is provided below the frame (6), and a limit cavity (11) is provided inside the upper end of the guide seat (10), and a reset spring (12) is installed inside the limit cavity (11), and a lower limit groove (13) is provided inside the guide seat (10).

2. The structure for realizing frameless coil winding tooling according to claim 1, characterized in that: The guide block (1) and the guide column (3) are embedded in each other and are threadedly connected to each other.

3. The structure for realizing frameless coil winding tooling according to claim 1, characterized in that: The external dimensions of the positioning block (4) match the internal dimensions of the frame (6), and the positioning block (4) and the frame (6) are embeddedly connected.

4. The structure for realizing frameless coil winding tooling according to claim 1, characterized in that: The frame (6) is equally cut into four parts, and the frame (6) is threadedly connected to the guide seat (10).

5. The structure for realizing frameless coil winding tooling according to claim 1, characterized in that: The winding grooves (7) are in the shape of a hollow cylinder, and the winding grooves (7) are evenly distributed outside the frame (6).

6. The structure for realizing frameless coil winding tooling according to claim 1, characterized in that: The movable slider (8) and the frame (6) are vertically distributed, and the movable slider (8) and the frame (6) are threadedly connected.

7. The structure for realizing frameless coil winding tooling according to claim 1, characterized in that: The movable slider (8) is embeddedly connected to the limiting cavity (11), and the movable slider (8) is elastically connected to the limiting cavity (11) via a return spring (12).

8. The structure for realizing frameless coil winding tooling according to claim 1, characterized in that: The outer side of the frame (6) is tightly fitted with the outer side of the guide seat (10), and the frame (6) is slidably connected with the guide seat (10) via a return spring (12).

Images