An assembling mechanism of an amorphous transformer core, a core structure and an assembling method

Abstract

The application relates to the technical field of iron cores and discloses an amorphous transformer iron core assembling mechanism, which comprises a positioning table, a rotating disc is rotationally connected to the positioning table, a ring groove for placing an iron core is formed in the rotating disc, the shape of the ring groove is matched with the iron core, so that the groove wall of the ring groove can be in frictional abutment with the circumferential direction of the iron core placed therein, a pushing strip is slidably arranged on the rotating disc, the sliding direction of the pushing strip is towards the inner hole of the iron core, the pushing strip is used for pushing a wire to pass through the inner hole of the iron core, a rotating structure is arranged on the pushing strip, and the rotating structure is used for driving the rotating disc to rotate; after the threading action is completed, the pushing strip drives the rotating disc to rotate through the rotating structure, and the rotating disc drives the iron core to rotate; the application does not need manual rotation of the iron core, thereby the arrangement pitch of the wire can be accurately controlled, the wire overlapping or the gap being too wide is avoided, the possibility of the wire loosening is reduced, and the reliability and the heat dissipation capacity of a transformer finished product are improved.

Description

Technical Field

[0001] This application relates to the technical field of iron cores, and in particular to an assembly mechanism, iron core structure and assembly method for an amorphous transformer iron core. Background Technology

[0002] Amorphous alloy transformer cores are typically formed by winding amorphous alloy strips with soft magnetic properties, such as toroidal cores. These cores feature high permeability, low coercivity, and low loss. The amorphous alloy strips themselves have extremely low hysteresis and eddy current losses, giving the cores significant advantages in energy saving.

[0003] During transformer assembly, coil winding is required for the iron core. The common method is to use positioning jaws to hold the iron core, and the workers manually wind the wire around the iron core one turn at a time. During the winding process, when the wire gradually approaches and covers the area held by the positioning jaws, the jaws themselves will interfere with the wire path, making it impossible to continue winding smoothly. At this time, the jaws must be released, the iron core must be manually rotated to change the clamping position, and then the winding can be continued after re-clamping.

[0004] For situations where the wires need to be wound around the entire circumference of the core, the above operation needs to be repeated multiple times. During the rotation of the core, manual rotation of the core makes it impossible to precisely control the wire arrangement pitch, which can easily lead to wire overlap or excessively wide gaps. Furthermore, the wires may loosen during the rotation of the core, further reducing the reliability and heat dissipation capacity of the finished transformer. Summary of the Invention

[0005] To address the problem of difficulty in ensuring uniform conductor arrangement, this application provides an assembly mechanism, core structure, and assembly method for an amorphous transformer core.

[0006] This application provides an assembly mechanism, core structure, and assembly method for an amorphous transformer core, employing the following technical solution: An amorphous transformer core assembly mechanism includes a positioning platform with a rotating disk rotatably connected to it. The rotating disk has an annular groove for placing the core, the shape of which is adapted to the core so that the groove wall can rub against the circumference of the core. A push bar is slidably mounted on the rotating disk, its sliding direction facing the inner hole of the core. The push bar is used to push a wire through the inner hole of the core. A rotating structure is provided on the push bar to drive the rotating disk to rotate. After the wire threading action is completed, the push bar drives the rotating disk to rotate via the rotating structure, and the rotating disk drives the core to rotate.

[0007] By adopting the above technical solution, after the push bar completes the threading action of pushing the conductor through the inner hole of the iron core, it can continue to drive the rotating disk and the iron core to rotate by a preset angle through the rotating structure. This integrates the two actions of "threading" and "iron core indexing", eliminating the need for manual rotation of the iron core. This allows for precise control of the conductor arrangement pitch, avoids conductor overlap or excessively wide gaps, reduces the possibility of conductor loosening, and improves the reliability and heat dissipation capacity of the transformer product.

[0008] Optionally, the positioning platform is provided with an elastic reset shaft, which is fixedly mounted on the positioning platform. The reset shaft is polygonal in shape. The rotating disk has a reset groove for the reset shaft to engage. The rotating structure includes a rotating bar, which is mounted on a pushing bar. The rotating disk has multiple pushing blocks, which are arranged circumferentially along the rotating disk. The rotating bar has a pushing inclined surface, and the distance between the pushing inclined surface and the rotating disk gradually increases along the rotation direction of the rotating disk. The rotation path of the pushing block and the movement path of the pushing inclined surface intersect. When the pushing bar passes through the wire, the pushing inclined surface abuts against the pushing block, and the reset shaft deforms. When the pushing bar detaches from the iron core, the deformed reset shaft drives the rotating disk to reset, and the next pushing block is located on the movement path of the pushing inclined surface.

[0009] By adopting the above technical solution, while the push bar completes the wire threading action, it uses the cooperation of the push inclined surface and the push block to push the rotating disk to rotate through a certain angle, and forces the polygonal elastic reset shaft to deform and store energy. When the push bar retracts and detaches from the iron core, the deformation of the reset shaft recovers and drives the rotating disk to rotate in the opposite direction to reset, and makes the next push block automatically enter the moving path of the push inclined surface, preparing for the next wire threading action. This process integrates wire threading, iron core indexing and automatic reset into one unit. Each wire threading action can drive the iron core to rotate by an angle precisely defined by the structure itself, and the next push block is accurately positioned after reset, ensuring strict consistency of each rotation angle throughout the entire winding cycle. This effectively prevents uneven conductor pitch, overlap or excessively wide gaps, and significantly improves the reliability and heat dissipation capacity of the finished transformer. At the same time, the elastic reset shaft does not require an additional power source, has a simple and compact structure, and reliable operation, further improving the automation and stability of iron core winding assembly.

[0010] Optionally, the rotating disk includes a rotating plate and a fixed plate. The rotating plate is rotatably mounted on the positioning platform. A fixed spring is provided on the rotating plate. The fixed spring drives the fixed plate to move toward the rotating plate. The annular groove is formed on the outer surface of the rotating plate and extends through to the surface of the rotating plate facing the fixed plate.

[0011] By adopting the above technical solution, the rotating disk adopts a rotating plate and a fixed plate structure that can be elastically clamped. The fixed plate is driven by the fixed spring to move towards the rotating plate, which can clamp the iron core axially. Combined with radial friction fixation, the double limit prevents the iron core from axial movement or radial loosening during rotation, thereby improving the winding stability and winding quality. The annular groove extends to the surface of the rotating plate facing the fixed plate, which facilitates the insertion and removal of the iron core and is conducive to the wire passing through the end face when winding.

[0012] Optionally, a plurality of elastic blocks are provided on the sidewall of the annular groove, and the plurality of elastic blocks are distributed along the circumference of the annular groove; when the iron core is located in the annular groove, the elastic blocks abut against the iron core, and the elastic blocks can be located between two adjacent conductors.

[0013] By adopting the above technical solution, elastic blocks are set on the side wall of the annular groove. These blocks not only rely on elastic force to further press against the iron core, making it easier for the rotating disk to drive the iron core to rotate, but also allow the elastic blocks to be embedded between two adjacent wires during the winding process. This provides isolation and limiting, helps to keep the wires tightly and neatly arranged, prevents the wires from shifting axially or becoming loose during the winding process, and further improves the quality of wire laying.

[0014] Optionally, the fixed plate is provided with a guide surface, and the distance between the guide surface and the rotating plate gradually decreases from the outer diameter of the fixed plate to the inner diameter of the fixed plate.

[0015] By adopting the above technical solution, an inclined guide surface is set on the fixing plate, which can smoothly guide the wire between the iron core and the fixing plate during the wire threading action, avoid the wire end directly colliding with the edge of the structure, reduce the risk of wire damage and operating resistance, and make the winding process smoother.

[0016] Optionally, the positioning platform is provided with a positioning rod, and a positioning roller for inserting into the inner hole of the iron core is rotatably connected to the positioning rod. The outer diameter of the positioning roller is smaller than the inner diameter of the iron core. When the positioning roller abuts against the inner wall of the iron core, the bottom wall of the annular groove abuts against the outer wall of the iron core.

[0017] By adopting the above technical solution, the positioning roller on the positioning rod can be inserted into the inner hole of the iron core and support the inner wall. Together with the bottom wall of the annular groove, it limits the position of the iron core from both the inside and outside, ensuring that the iron core maintains good coaxiality during rotation, and improving the winding uniformity and the electrical and heat dissipation performance of the finished iron core.

[0018] Optionally, the positioning roller is provided with a positioning ring, which is used to clamp one end of the wire.

[0019] By adopting the above technical solution, the positioning ring can clamp one end of the wire, fix the wire end when starting to wind, prevent the wire from loosening and slipping, reduce manual assistance, and improve the convenience and efficiency of the winding operation.

[0020] An amorphous transformer core structure includes a core body, on the inner wall of which a plurality of grooves are formed, the plurality of grooves being arranged in a circumferential array along the core body, the grooves being for placing wires.

[0021] By adopting the above technical solution, the wires are placed in the groove, making them less likely to move with the rotation of the iron core body, thus allowing for precise control of the spacing between adjacent wires.

[0022] An assembly method for an amorphous transformer core. S1: Place the iron core; First, place the iron core in the annular groove of the rotating disk; S2: Attaching the conductor; the conductor is placed against the outer surface of the iron core along the length of the iron core. S3: Move the wire and rotate the disk to make the iron core rotate; push the bar to make the wire pass through the inner hole of the iron core; After the threading action is completed, the push bar drives the rotating disk and the iron core to rotate by a preset angle through the rotating structure; S4: Winding the wire; Repeat steps S2 and S3 along the circumference of the iron core until the wire has been wound the predetermined number of turns on the iron core; S5: Remove the iron core; remove the iron core from the rotating disk.

[0023] By adopting the above technical solution, the steps of placing the iron core, attaching the conductor, pushing the wire through and automatically indexing, and repeating the winding are combined in an orderly manner. The whole process does not require frequent loosening or re-clamping of the iron core. The rotation angle is automatically preset by the structure, which realizes precise control of the winding pitch, effectively avoids conductor overlap, excessive gap and winding loosening, and significantly improves winding efficiency and the reliability and heat dissipation capacity of the transformer product.

[0024] In summary, this application includes at least one of the following beneficial technical effects: After the push bar completes the threading action of pushing the conductor through the inner hole of the iron core, it can continue to drive the rotating disk and the iron core to rotate by a preset angle through the rotating structure. This integrates the two actions of "threading" and "iron core indexing", eliminating the need for manual rotation of the iron core. This allows for precise control of the conductor arrangement pitch, avoiding conductor overlap or excessively wide gaps, reducing the possibility of conductor loosening, and improving the reliability and heat dissipation capacity of the transformer.

[0025] The sidewall of the annular groove is equipped with elastic blocks, which not only rely on elastic force to further press against the iron core, making it easier for the rotating disk to drive the iron core to rotate, but also allow the elastic blocks to be embedded between two adjacent wires during the winding process, playing a role in isolation and limiting, helping to keep the wires tightly and neatly arranged, preventing the wires from shifting axially or loosening during the winding process, and further improving the quality of wire laying. Attached Figure Description

[0026] Figure 1This is a structural schematic diagram of an embodiment of this application; Figure 2 This is an exploded view highlighting the reset axis in an embodiment of this application; Figure 3 This is an exploded view of the fixed spring in an embodiment of this application; Figure 4 This is a schematic diagram highlighting the support rod in the embodiments of this application; Figure 5 yes Figure 1 An enlarged schematic diagram of part A in the middle.

[0027] Reference numerals: 1. Positioning platform; 11. Support frame; 12. Reset shaft; 13. Support rod; 131. Receiving groove; 132. Receiving spring; 133. Receiving rod; 134. Positioning rod; 135. Positioning roller; 136. Positioning ring; 14. Placement bar; 141. Push bar; 15. Rotating structure; 151. Pushing inclined surface; 2. Rotating disk; 21. Rotating plate; 211. Reset groove; 212. Ring groove; 213. Fixing groove; 214. Fixing spring; 22. Fixing plate; 221. Guide surface; 222. Elastic block; 23. Pushing block; 3. Iron core body; 31. Groove. Detailed Implementation

[0028] The following is in conjunction with the appendix Figures 1-5 This application will be described in further detail.

[0029] This embodiment discloses an assembly mechanism, core structure, and assembly method for an amorphous transformer core. (Refer to...) Figure 1 An amorphous transformer core structure includes a core body 3, with multiple grooves 31 formed on the inner wall of the core body 3. The multiple grooves 31 are arranged in a circumferential array along the core body 3, and each of the multiple grooves 31 is used for placing wires.

[0030] Reference Figure 1 and Figure 2 An assembly mechanism for an amorphous transformer core includes a positioning platform 1, a support frame 11 fixedly connected to the surface of the positioning platform 1, and a flexible reset shaft 12 fixedly connected to the surface of the support frame 11. The length direction of the reset shaft 12 is perpendicular to the height direction of the support frame 11, and the reset shaft 12 is an icosahedral prism.

[0031] Reference Figure 1 and Figure 2A rotating disk 2 is rotatably connected to the reset shaft 12. The rotating disk 2 includes a rotating plate 21 and a fixed plate 22. The rotating plate 21 has a reset groove 211 for the reset shaft 12 to insert into. The cross-section of the reset groove 211 is icosagonal, meaning that the reset groove 211 and the reset shaft 12 cooperate with each other. The rotating plate 21 is rotatably mounted on the reset shaft 12. When the rotating plate 21 is subjected to a force and rotates, the reset shaft 12 deforms, causing the rotating plate 21 and the reset shaft 12 to become misaligned.

[0032] Reference Figure 2 and Figure 3 An annular groove 212 is formed on the outer surface of the rotating plate 21. The shape of the annular groove 212 is adapted to the iron core, and the groove wall of the annular groove 212 can rub against the circumference of the iron core. The annular groove 212 extends along the circumference of the rotating plate 21 and penetrates to the end face of the rotating plate 21. A fixing groove 213 is formed on the end face of the rotating plate 21. A fixing spring 214 is fixedly connected to the bottom wall of the fixing groove 213. The surface of the fixing spring 214 away from the bottom wall of the fixing groove 213 is fixedly connected to the end face of the fixing plate 22. The fixing spring 214 drives the fixing plate 22 to move towards the rotating plate 21, so that the fixing plate 22 can block the opening in the penetrating direction of the annular groove 212.

[0033] Reference Figure 3 A guide surface 221 is provided on the outer surface of the fixing plate 22. The distance between the guide surface 221 and the rotating plate 21 gradually decreases from the outer diameter to the inner diameter of the fixing plate 22. The guide surface 221 allows the wires wound around the iron core to pass through. Multiple elastic blocks 222 are fixedly connected to the surface of the guide surface 221, and the multiple elastic blocks 222 are distributed in a circumferential array along the guide surface 221. When the iron core is located in the annular groove 212, the elastic blocks 222 abut against the iron core, and the elastic blocks 222 are located between two adjacent wires.

[0034] Reference Figure 4 A support rod 13 is fixedly connected to the support frame 11, and the support rod 13 extends vertically. A receiving groove 131 is formed on the surface of the support rod 13 away from the support frame 11, and a receiving spring 132 is fixedly connected to the end face of the support rod 13. A receiving rod 133 is slidably connected in the receiving groove 131, and the receiving spring 132 is sleeved on the outer surface of the receiving rod 133.

[0035] Reference Figure 4A positioning rod 134 is integrally formed on the receiving rod 133, and the length direction of the positioning rod 134 is perpendicular to the length direction of the receiving rod 133. A positioning roller 135 is rotatably connected to the positioning rod 134, and the positioning roller 135 can rotate along the circumference of the positioning rod 134. The end face of the receiving spring 132 away from the bottom wall of the receiving groove 131 is fixedly connected to the outer surface of the positioning rod 134, so that the receiving spring 132 drives the positioning rod 134 to move towards the support frame 11, so that the positioning roller 135 can press against the inner hole of the iron core, and the outer surface of the iron core can press against the groove wall of the annular groove 212, so that the rotating disk 2 can drive the iron core to rotate.

[0036] Reference Figure 4 An elastic positioning ring 136 is fitted on the positioning roller 135. When one end of the wire is inserted between the positioning ring 136 and the positioning roller 135, the positioning ring 136 can fix the wire and the positioning roller 135 relative to each other.

[0037] Reference Figure 5 A placement strip 14 is fixedly connected to the support frame 11, and the placement strip 14 extends along the height direction of the support frame 11. A pusher strip 141 is slidably disposed on the placement strip 14. The pusher strip 141 can slide toward the inner hole of the iron core, and the pusher strip 141 can push the wire through the inner hole of the iron core to facilitate the subsequent winding operation of the wire.

[0038] Reference Figure 1 and Figure 5 A rotating structure 15 is provided on the push bar 141, which drives the rotating disk 2 to rotate. The rotating structure 15 includes a rotating bar, which is L-shaped and is disposed on the push bar 141. Twenty-four push blocks 23 are fixedly connected to the surface of the rotating plate 21 away from the fixed plate 22. The twenty-four push blocks 23 are distributed in a circumferential array along the rotating plate 21. In other embodiments, the number of push blocks 23 may be other. In this application, the number of push blocks 23 is adapted to the number of turns of the iron core winding.

[0039] Reference Figure 5 A pushing inclined surface 151 is provided on the surface of the rotating bar facing the rotating plate 21. The distance between the pushing inclined surface 151 and the rotating plate 21 gradually increases along the rotation direction of the rotating plate 21. The rotation path of the pushing block 23 and the movement path of the pushing inclined surface 151 intersect.

[0040] Reference Figure 5 When the push bar 141 pushes the wire to the iron core, the push bar 141 drives the rotating bar to abut against the push block 23. As the push bar 141 pushes the wire through the iron core, that is, after the wire threading action is completed, the rotating bar continues to move towards the rotating plate 21, so that the push inclined surface 151 drives the push block 23 to rotate, causing the rotating plate 21 to rotate.

[0041] Reference Figure 5 When the operator resets the push bar 141, the push bar 141 does not apply force to the rotating plate 21. Since the push blocks 23 are twenty-four evenly distributed, and the reset shaft 12 is an icosahedron, when the rotating bar drives the rotating plate 21 to complete the rotation, the reset shaft 12 and the wall of the reset groove 211 are still intersecting, that is, the reset shaft 12 is in a slightly deformed state. In addition, the rotating plate 21 lacks the force to drive the reset shaft 12 to continue to deform. Therefore, the deformed reset shaft 12 can be reset. The reset shaft 12 can drive the rotating plate 21 to continue to rotate in the direction of rotation of the rotating bar. At this time, the next push block 23 can be aligned with the rotating bar so that the rotating bar can continue to drive the rotating plate 21 to rotate through the next push block 23.

[0042] A method for assembling an amorphous transformer core S1: Place the iron core; First, pull open the fixing plate 22 and place the iron core in the annular groove 212 of the rotating plate 21. Loosen the fixing plate 22 so that the fixing plate 22 abuts against the rotating plate 21. At the same time, the iron core is sleeved on the positioning roller 135, and the receiving spring 132 drives the positioning roller 135 to abut against the iron core, so that the positioning roller 135 fixes the iron core in the annular groove 212. S2: Attaching the conductor; the conductor is placed against the outer surface of the iron core along the length of the iron core. S3: Move the wire and rotate the disk 2 to drive the iron core to rotate; drive the wire through the inner hole of the iron core by pushing the bar 141; After the threading action is completed, the push bar 141, through the cooperation of the rotating bar, the push block 23, the reset shaft 12, and the wall of the reset groove 211, drives the rotating disk 2 and the iron core to rotate by a preset angle; S4: Winding the wire; Repeat steps S2 and S3 along the circumference of the iron core until the wire has been wound the predetermined number of turns on the iron core; S5: Remove the iron core; pull open the fixing plate 22 and remove the iron core from the positioning roller 135 and the annular groove 212.

[0043] The implementation principle of the assembly mechanism for an amorphous transformer core in this application embodiment is as follows: The worker places the wire on the push bar 141, which can drive the wire to move. After the wire is threaded, the push bar 141 drives the rotating plate 21 to rotate through the rotating inclined plane and the push block 23. At this time, the reset shaft 12 is slightly deformed, that is, the reset shaft 12 and the groove wall of the reset groove 211 are intersected. The worker resets the push bar 141. At this time, the rotating bar does not abut against the push block 23, and the rotating plate 21 lacks force, allowing the deformed reset shaft 12 to be reset. The rotating plate 21 continues to rotate in the rotation direction until the reset shaft 12 and the reset groove 211 are aligned.

[0044] Unless otherwise defined, the technical or scientific terms used in this application shall have the ordinary meaning understood by one of ordinary skill in the art to which this application pertains. The terms "first," "second," "third," and similar terms used in this application specification and claims do not indicate any order, quantity, or importance, but are merely used to distinguish different components. The terms "an" or "a" and similar terms do not indicate a quantity limitation, but rather indicate the presence of at least one. The terms "comprising" or "including" and similar terms mean that the elements or objects preceding "comprising" or "including" encompass the elements or objects listed following "comprising" or "including" and their equivalents, and do not exclude other elements or objects. "Above," "below," "left," "right," etc., are used only to indicate relative positional relationships; when the absolute position of the described object changes, the relative positional relationship may also change accordingly.

[0045] The above description is only a preferred embodiment of this application and is not intended to limit this application. Any modifications, equivalent substitutions, improvements, etc., made within the design concept of this application should be included within the protection scope of this application.

Claims

1. An amorphous transformer core assembly mechanism, characterized in that: The device includes a positioning platform (1), on which a rotating disk (2) is rotatably connected. The rotating disk (2) has an annular groove (212) for placing an iron core. The shape of the annular groove (212) is adapted to the iron core so that the groove wall of the annular groove (212) can rub against the circumference of the iron core placed therein. A push bar (141) is slidably arranged on the rotating disk (2). The sliding direction of the push bar (141) is towards the inner hole of the iron core. The push bar (141) is used to push the wire through the inner hole of the iron core. A rotating structure (15) is provided on the push bar (141). The rotating structure (15) is used to drive the rotating disk (2) to rotate. After the wire threading action is completed, the push bar (141) drives the rotating disk (2) to rotate through the rotating structure (15), and the rotating disk (2) drives the iron core to rotate.

2. The amorphous transformer core assembly mechanism according to claim 1, characterized in that: The positioning platform (1) is provided with an elastic reset shaft (12), which is fixedly mounted on the positioning platform (1). The reset shaft (12) is prismatic in shape. The rotating disk (2) is provided with a reset groove (211) for the reset shaft (12) to cooperate with. The rotating structure (15) includes a rotating bar, which is mounted on a push bar (141). The rotating disk (2) is provided with multiple push blocks (23), which are arranged along the circumference of the rotating disk (2). The rotating bar is provided with a push inclined surface (151). The distance between the inclined plane (151) and the rotating disk (2) gradually increases along the rotation direction of the rotating disk (2). The rotation path of the push block (23) and the movement path of the push inclined plane (151) intersect. When the push bar (141) passes through the wire, the push inclined plane (151) abuts against the push block (23), and the reset shaft (12) deforms. When the push bar (141) disengages from the iron core, the deformed reset shaft (12) drives the rotating disk (2) to reset, and the next push block (23) is located on the movement path of the push inclined plane (151).

3. The amorphous transformer core assembly mechanism according to claim 2, characterized in that: The rotating disk (2) includes a rotating plate (21) and a fixed plate (22). The rotating plate (21) is rotatably mounted on the positioning platform (1). A fixed spring (214) is provided on the rotating plate (21). The fixed spring (214) drives the fixed plate (22) to move toward the rotating plate (21). The annular groove (212) is opened on the outer surface of the rotating plate (21) and extends through to the surface of the rotating plate (21) facing the fixed plate (22).

4. The amorphous transformer core assembly mechanism according to claim 3, characterized in that: Multiple elastic blocks (222) are provided on the side wall of the annular groove (212), and the multiple elastic blocks (222) are distributed along the circumference of the annular groove (212); when the iron core is located in the annular groove (212), the elastic blocks (222) abut against the iron core, and the elastic blocks (222) can be located between two adjacent conductors.

5. The amorphous transformer core assembly mechanism according to claim 3, characterized in that: The fixed plate (22) has a guide surface (221), and the distance between the guide surface (221) and the rotating plate (21) gradually decreases from the outer diameter of the fixed plate (22) to the inner diameter of the fixed plate (22).

6. The amorphous transformer core assembly mechanism according to claim 1, characterized in that: The positioning platform (1) is provided with a positioning rod (134), and a positioning roller (135) for inserting into the inner hole of the iron core is rotatably connected to the positioning rod (134). The outer diameter of the positioning roller (135) is smaller than the inner diameter of the iron core. When the positioning roller (135) abuts against the inner wall of the iron core, the bottom wall of the annular groove (212) abuts against the outer wall of the iron core.

7. The amorphous transformer core assembly mechanism according to claim 6, characterized in that: The positioning roller (135) is provided with a positioning ring (136), which is used to clamp one end of the wire.

8. An amorphous transformer core structure, characterized in that: The device includes a core body (3), and a plurality of grooves (31) are provided on the inner wall of the core body (3). The plurality of grooves (31) are arranged in a circumferential array along the core body (3), and the grooves (31) are for placing wires.

9. A method for assembling an amorphous transformer core, employing the amorphous transformer core assembly mechanism as described in any one of claims 1 to 7, characterized in that: S1: Place the iron core; First, place the iron core in the annular groove (212) of the rotating disk (2); S2: Attaching the conductor; the conductor is placed against the outer surface of the iron core along the length of the iron core. S3: Move the wire and rotate the disk (2) to drive the iron core to rotate; drive the wire through the inner hole of the iron core by pushing the bar (141); After the threading action is completed, the push bar (141) drives the rotating disk (2) and the iron core to rotate by a preset angle through the rotating structure (15); S4: Winding the wire; Repeat steps S2 and S3 along the circumference of the iron core until the wire has been wound the predetermined number of turns on the iron core; S5: Remove the iron core; remove the iron core from the rotating disk (2).

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