Automatic winding processing equipment for inductor manufacturing

Abstract

The invention discloses automatic winding processing equipment for inductor manufacturing, and relates to the technical field of winding processing equipment for inductors, the automatic winding processing equipment comprises a base and a lifting rod, and a rack is mounted above the base. According to the automatic winding processing equipment for manufacturing the inductor, during winding of the iron core body, the inner side, the outer side and the top of the iron core body are subjected to multi-point extrusion through the pressing mechanism, so that wires of the wire coils can be tightly attached together, gaps between the wire coils are reduced, and after winding of the iron core body is completed, the wire coils are not damaged. An iron core body can be clamped through the feeding mechanism, then the first supporting frame and the sleeve frame are driven to ascend through the lifting rod, the first supporting frame firstly drives the pressing mechanism to be separated from the iron core body, and after the pressing mechanism ascends till discharging is not affected, a second electric push rod pushes a swing frame to drive the iron core body to rotate and swing out. And the working efficiency of the automatic winding processing equipment for manufacturing the inductor is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of winding processing equipment for inductors, and specifically provides an automatic winding processing equipment for manufacturing inductors. Background Art

[0002] An inductor is a passive component widely used in electronic circuits. Its main function is to store electrical energy and limit current changes. The basic structure of an inductor includes a coil wound with a wire, usually wound around an iron core to enhance its inductance value. During the inductor winding processing, an automatic winding processing equipment for manufacturing inductors is used. The automatic winding processing equipment for manufacturing inductors is a mechanical device specifically used for efficiently producing inductor coils. This equipment transmits power through a motor to drive a closed-loop winding coil to rotate within a cylindrical circle, thereby achieving the purpose of winding copper wire around the coil. Through automation technology, this equipment realizes precise winding of the wire, significantly improving production efficiency and product consistency.

[0003] However, before processing with the existing automatic winding processing equipment for manufacturing inductors, workers need to manually align the iron core component with the rotating surface of the roller, and then place the iron core component on one side of the rotating surface of the roller. The friction of the roller drives the iron core component to rotate for winding. Manual alignment is time-consuming, resulting in inconvenient feeding or discharging. At the same time, rollers for extruding the coil are provided outside the iron core, but these rollers also hinder feeding or discharging. Moreover, the rollers for extruding the coil usually only extrude the inner and outer sides of the iron core component, and the top is not extruded, thereby reducing the efficiency and quality of the winding processing. For this reason, we propose an automatic winding processing equipment for manufacturing inductors. Summary of the Invention

[0004] The purpose of the present invention is to provide an automatic winding processing equipment for manufacturing inductors to solve the problems raised in the above background art.

[0005] To achieve the above object, the present invention provides the following technical solution: An automatic winding processing device for manufacturing inductors, including a base and a lifting rod. A frame is installed above the base. A vertical frame is fixed above the base away from the frame. The lifting rod is installed inside the vertical frame through a bearing. A guide rod is fixed inside the vertical frame close to the lifting rod. A lifting motor connected to the lifting rod through a coupling is installed on the bottom surface of the vertical frame. A first support frame and a sleeve are sleeved outside the lifting rod. The sleeve is slidably sleeved with the guide rod. A connecting frame is welded to the end of the first support frame. A pressing mechanism is installed at the end of the connecting frame. The pressing mechanism includes a pressing motor fixedly connected to the connecting frame. The bottom end of the connecting frame is installed with a first pressing roller and a second pressing roller through bearings. A top pressing roller is installed on the bottom end of the connecting frame between the first pressing roller and the second pressing roller through a bracket. The end of the sleeve is movably connected to a swing frame through a rotating shaft. A feeding mechanism is installed at the end of the swing frame away from the rotating shaft. The feeding mechanism includes a first cylinder and a second cylinder fixedly installed on both sides of the swing frame. The output ends of the first cylinder and the second cylinder are respectively fixedly connected with a moving block and a second clamping block. A sliding rod is slidably sleeved in the middle of the moving block. A return spring is sleeved outside the sliding rod.

[0006] Preferably, second tooth discs and first tooth discs are fixedly sleeved on the tops of the first pressing roller and the second pressing roller respectively. A first bevel gear is fixedly sleeved at one end of the top pressing roller. A second bevel gear meshing with the first bevel gear is fixedly sleeved on the transmission shaft of the first pressing roller.

[0007] Preferably, the pressing motor is connected to the transmission shaft of the first pressing roller through a coupling. A first clamping block is fixedly connected to the end of the sliding rod close to the second clamping block.

[0008] Preferably, a guide groove is opened inside the swing frame close to the sliding rod, and the guide groove is slidably connected with the sliding rod.

[0009] Preferably, a first telescopic rod is connected between the surfaces of the first support frame and the sleeve. A second telescopic rod is fixedly connected to the bottom end on one side of the first support frame.

[0010] Preferably, a second electric push rod is connected between the second telescopic rod and the swing frame through a movable shaft. A chute is opened on the upper surface of the swing frame close to the moving block, and the convex block of the moving block is slidably connected with the chute.

[0011] Preferably, a feeding component is installed at one end of the frame. A first guide roller is installed on the side of the frame away from the feeding component through a bearing. A positioning wheel is installed on the side of the frame close to the first guide roller. A winding gear is slidably sleeved outside the positioning wheel. A driving gear assembly is installed on the side of the frame close to the winding gear.

[0012] Preferably, the driving gear assembly is meshed with the winding gear. A chassis and a driving roller are fixed on the upper surface of the base close to the vertical frame. An iron core body is arranged on the upper surface of the chassis. A driven roller is installed on the base above the chassis through a bearing.

[0013] Preferably, an inclined groove is formed on the inner wall of the frame. An adjusting mechanism is installed on the surface of the frame close to the inclined groove. The adjusting mechanism includes a first electric push rod fixed on the frame, and the output end of the first electric push rod is fixedly connected with a lifting block.

[0014] Preferably, a strip-shaped groove is formed on the inner side of the lifting block. A sliding block is slidably sleeved in the strip-shaped groove and the inclined groove. A second guide roller is installed on one side of the sliding block through a bearing.

[0015] Compared with the prior art, the beneficial effects of the present invention are as follows: for this automatic winding processing equipment for manufacturing inductors, when winding the iron core body, through the pressing mechanism, multi-point extrusion is performed on the inner side, outer side and top of the iron core body, so that each wire of the coil can be closely attached together, reducing the gap between the coils. After the winding of the iron core body is completed, the iron core body can be clamped by the feeding mechanism, and then the lifting rod drives the first support frame and the sleeve to rise. The first support frame first drives the pressing mechanism to disengage from the iron core body. After the pressing mechanism rises to a position where it does not affect discharging, the second electric push rod then pushes the swing frame to drive the iron core body to rotate and swing out, which is convenient for feeding and discharging, and can also press the coil, improving the working efficiency of the automatic winding processing equipment for manufacturing inductors.

[0016] 1. For this automatic winding processing equipment for manufacturing inductors, when the driving roller is driven to rotate, the iron core body is driven to rotate counterclockwise by friction. The pressing motor drives the second pressing roller to rotate counterclockwise, and the second pressing roller drives the first pressing roller and the top pressing roller to rotate simultaneously. The position of the iron core body wound with the wire enters the gap between the first pressing roller and the second pressing roller. The first pressing roller, the second pressing roller and the top pressing roller perform three-sided multi-point extrusion on the iron core body, so that each wire of the coil can be closely attached together, reducing the gap between the coils. Compared with only extruding the outside of the coil, multi-point extrusion is more helpful to form a more stable coil structure, improving the winding quality of the automatic winding processing equipment for manufacturing inductors; 2. After the winding of the iron core body is completed on the automatic winding processing equipment for manufacturing the inductor, the iron core body needs to be taken out. The iron core body can be clamped by the feeding mechanism, and then the lifting motor is started to drive the lifting rod to rotate, so that the first support frame rises and drives the pressing mechanism to rise through the connecting frame, so that the pressing mechanism disengages from the iron core body. While the first support frame rises, it will drive the first telescopic rod and the second telescopic rod to extend and pull the sleeve frame to slide upward on the outer sides of the lifting rod and the guide rod, so that the sleeve frame drives the swing frame to rise. Finally, the second electric push rod pushes the swing frame to drive the iron core body to rotate and swing out. The setting of the inclined surface of the first clamping block allows manual feeding to be directly pushed horizontally. While facilitating feeding and discharging, it can also press the coil, improving the working efficiency of the automatic winding processing equipment for manufacturing the inductor. 3. For the automatic winding processing equipment for manufacturing the inductor, by starting the first electric push rod to push the lifting block downward, since the sliding sleeve connection between the inclined groove and the slider, the slider slides obliquely along the inclined groove, and at the same time, the slider slides horizontally in the strip-shaped groove, changing the position of the second guide roller, thereby adjusting the tension of the wire transmission. Compared with horizontal adjustment or longitudinal adjustment, oblique adjustment can change the horizontal and longitudinal positions faster, better control the winding angle and tension of the wire, and thus improve the winding accuracy. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 is a schematic three-dimensional structure diagram of the frame of the present invention; Figure 2 is a schematic three-dimensional structure diagram of the present invention; Figure 3 is a schematic three-dimensional structure diagram of the vertical frame of the present invention; Figure 4 is a schematic three-dimensional structure diagram of the bottom frame of the present invention; Figure 5 is a schematic three-dimensional structure diagram of the pressing mechanism of the present invention; Figure 6 is a schematic three-dimensional structure diagram of the second pressing roller of the present invention; Figure 7 is a schematic three-dimensional structure diagram of the feeding mechanism of the present invention; Figure 8 is a schematic three-dimensional sectional structure diagram of the swing frame of the present invention; Figure 9 is a schematic three-dimensional structure diagram of the first clamping block of the present invention; Figure 10 is a schematic three-dimensional structure diagram of the second clamping block of the present invention; Figure 11 is a schematic three-dimensional structure diagram of the sliding groove of the present invention; Figure 12 is a schematic three-dimensional structure diagram of the second electric push rod of the present invention; Figure 13 is a schematic three-dimensional structure diagram of the adjusting mechanism of the present invention.

[0018] In the figure: 1, base; 2, frame; 3, feeding component; 4, first guide roller; 5, second guide roller; 6, pressing mechanism; 601, pressing motor; 602, first gear disk; 603, second gear disk; 604, first pressing roller; 605, top pressing roller; 606, second pressing roller; 7, first support frame; 8, loading mechanism; 801, slide bar; 802, first cylinder; 803, guide groove; 804, first clamping block; 805, moving block; 806, second clamping block; 807, second cylinder; 9, lifting rod; 10, vertical frame; 11, iron core body; 12, active roller; 13, chassis; 14, guide rod; 15, driven roller; 16, winding gear; 17, positioning wheel; 18, inclined groove; 19, drive gear assembly; 20, sleeve; 21, connecting frame; 22, swing frame; 23, rotating shaft; 24, first telescopic rod; 25, second telescopic rod; 26, first bevel gear; 27, second bevel gear; 28, adjusting mechanism; 2801, first electric push rod; 2802, lifting block; 2803, strip groove; 2804, slider; 29, return spring; 30, chute; 31, second electric push rod; 32, lifting motor. Specific embodiments

[0019] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0020] Please refer to Figures 1 - 5 and Figure 13 As shown in the figure, the present invention provides a technical solution: an automatic winding processing device for manufacturing inductors, including a base 1 and a lifting rod 9. A frame 2 is installed above the base 1. A feeding component 3 is installed at one end of the frame 2. A first guide roller 4 is installed on one side of the frame 2 away from the feeding component 3 through a bearing. A positioning wheel 17 is installed on one side of the frame 2 close to the first guide roller 4. A winding gear 16 is slidably sleeved on the outer side of the positioning wheel 17. A drive gear assembly 19 is installed on one side of the frame 2 close to the winding gear 16. The drive gear assembly 19 is meshed with the winding gear 16. A chassis 13 and an active roller 12 are fixed on the upper surface of the base 1 close to the vertical frame 10. An iron core body 11 is arranged on the upper surface of the chassis 13. A driven roller 15 is installed on the base 1 above the chassis 13 through a bearing.

[0021] Please refer to Figures 1 - 3 、 Figure 5 and Figure 12, a vertical frame 10 is fixedly installed above the base 1 away from the frame 2. The lifting rod 9 is installed inside the vertical frame 10 through a bearing. A guide rod 14 is fixedly installed inside the vertical frame 10 close to the lifting rod 9. A lifting motor 32 connected to the lifting rod 9 through a coupling is installed on the bottom surface of the vertical frame 10. A first support frame 7 and a sleeve 20 are sleeved outside the lifting rod 9. The sleeve 20 is slidably sleeved with the guide rod 14. The end of the first support frame 7 is welded with a connecting frame 21. A pressing mechanism 6 is installed at the end of the connecting frame 21. The pressing mechanism 6 includes a pressing motor 601 fixedly connected to the connecting frame 21. A first pressing roller 604 and a second pressing roller 606 are installed at the bottom end of the connecting frame 21 through bearings. A top pressing roller 605 is installed at the bottom end of the connecting frame 21 between the first pressing roller 604 and the second pressing roller 606 through a bracket. Second gear discs 603 and first gear discs 602 are fixedly sleeved at the tops of the first pressing roller 604 and the second pressing roller 606 respectively. A first bevel gear 26 is fixedly sleeved at one end of the top pressing roller 605. A second bevel gear 27 meshed with the first bevel gear 26 is fixedly sleeved on the transmission shaft of the first pressing roller 604. The threaded part of the lifting rod 9 is threadedly sleeved with the first support frame 7. The sleeve 20 is slidably sleeved with the lifting rod 9.

[0022] During specific implementation, when the driving roller 12 is driven to rotate, the iron core body 11 is driven to rotate counterclockwise through friction. The first pressing roller 604, the second pressing roller 606 and the top pressing roller 605 are respectively located on the outside, inside and top of the iron core body 11. The second pressing roller 606 is driven to rotate counterclockwise by the pressing motor 601. At the same time, the second pressing roller 606 drives the second bevel gear 27 and the first gear disc 602 to rotate counterclockwise. The second bevel gear 27 is meshed with the first bevel gear 26, and the first gear disc 602 is meshed with the second gear disc 603, so that the second bevel gear 27 drives the first bevel gear 26 to rotate. Subsequently, the first bevel gear 26 drives the top pressing roller 605 to rotate, and the first gear disc 602 drives the second gear disc 603 to rotate. Subsequently, the second gear disc 603 drives the second pressing roller 606 to rotate. The position where the iron core body 11 is wound with the wire enters the gap between the first pressing roller 604 and the second pressing roller 606. The first pressing roller 604 and the second pressing roller 606 roll and press the wire coils on both sides of the iron core body 11. At the same time, the top pressing roller 605 rotates following the second pressing roller 606, and the top pressing roller 605 rolls and presses the wire coil on the upper surface of the iron core body 11. Through three-sided multi-point pressing, each wire of the wire coil can be closely attached together, reducing the gap between the wire coils. Compared with only pressing on the outside of the wire coil, multi-point pressing is more helpful to form a more stable coil structure, improving the winding quality of the inductor manufacturing automatic winding processing equipment.

[0023] Please refer toFigures 1 - 4 and Figures 7 - 12 One end of the sleeve frame 20 is movably connected with a swing frame 22 through a rotating shaft 23. An end of the swing frame 22 far from the rotating shaft 23 is provided with a feeding mechanism 8. The feeding mechanism 8 includes a first air cylinder 802 and a second air cylinder 807 fixedly installed on both sides of the swing frame 22. Output ends of the first air cylinder 802 and the second air cylinder 807 are respectively fixedly connected with a moving block 805 and a second clamping block 806. A sliding rod 801 is slidably sleeved in the middle of the moving block 805. A return spring 29 is sleeved outside the sliding rod 801. A transmission shaft between the pressing motor 601 and the first pressing roller 604 is connected through a coupling. An end of the sliding rod 801 close to the second clamping block 806 is fixedly connected with a first clamping block 804. A guiding groove 803 is formed in the inner side of the swing frame 22 close to the sliding rod 801, and the guiding groove 803 is slidably connected with the sliding rod 801. A first telescopic rod 24 is connected between the first support frame 7 and the surface of the sleeve frame 20. A bottom end of one side of the first support frame 7 is fixedly connected with a second telescopic rod 25. A second electric push rod 31 is connected between the second telescopic rod 25 and the swing frame 22 through a movable shaft. A sliding groove 30 is formed in the upper surface of the swing frame 22 close to the moving block 805, and a convex block of the moving block 805 is slidably connected with the sliding groove 30. An end of the second clamping block 806 connected with the second air cylinder 807 slidably penetrates through the inner side of the swing frame 22. A cross section of the first clamping block 804 is triangular. Opposite sides of the second clamping block 806 and the first clamping block 804 are both arc-shaped. The driven roller 15 movably penetrates through both ends of the bottom frame 13.

[0024] During specific implementation, after winding the iron core body 11, it is necessary to take out the iron core body 11. The first cylinder 802 and the second cylinder 807 can be used to push the moving block 805 and the second clamping block 806 towards opposite ends respectively. The moving block 805 drives the sliding rod 801 to slide in the guiding groove 803. At the same time, the convex block at the bottom end of the moving block 805 slides in the sliding groove 30, so that the sliding rod 801 drives the first clamping block 804 to abut against the inner side of the iron core body 11, and the second clamping block 806 abuts against the outer side of the iron core body 11. Subsequently, by starting the lifting motor 32 to drive the lifting rod 9 to rotate, the threaded part of the lifting rod 9 is threadedly engaged with the first support frame 7, so that the first support frame 7 moves upward on the outside of the lifting rod 9. At the same time, the first support frame 7 drives the pressing mechanism 6 to rise through the connecting frame 21, so that the pressing mechanism 6 disengages from the iron core body 11. Since the first telescopic rod 24 and the second telescopic rod 25 are telescopic, when the first support frame 7 rises, it will drive the first telescopic rod 24 and the second telescopic rod 25 to extend. When the first telescopic rod 24 and the second telescopic rod 25 extend to a certain limit, the first telescopic rod 24 and the second telescopic rod 25 will pull the sleeve frame 20 to slide upward on the outside of the lifting rod 9 and the guide rod 14, so that the sleeve frame 20 drives the swing frame 22 to rise. At the same time, the swing frame 22 clamps the iron core body 11 through the first clamping block 804 and the second clamping block 806, and the swing frame 22 will drive the iron core body 11 to rise and disengage from the driving roller 12 and the driven roller 15. Then the iron core body 11 rises to the opening position of the winding gear 16. Finally, the second electric push rod 31 extends and pushes one end of the swing frame 22 to rotate clockwise around the rotating shaft 23 and swing out, which is convenient for the staff to quickly take materials and will not be affected by the driving roller 12, the driven roller 15 and the winding gear 16. And when feeding again, directly horizontally squeeze the inclined surface of the first clamping block 804 on one side of the iron core body 11, so that the first clamping block 804 is squeezed and drives the sliding rod 801 to slide upward inside the moving block 805. Since a return spring 29 is arranged between the sliding rod 801 and the moving block 805, both ends of the return spring 29 are squeezed by the sliding rod 801 and the moving block 805 and contract. Subsequently, one side of the iron core body 11 enters between the first clamping block 804 and the second clamping block 806, and the longitudinal rebound of the return spring 29 drives the first clamping block 804 to approach the inner side of the iron core body 11. Finally, the iron core body 11 is clamped by the first clamping block 804 and the second clamping block 806. By contracting the second electric push rod 31 to pull the swing frame 22 back to its original position, the outer side of the iron core body 11 is aligned with the rotating surfaces of the driving roller 12 and the driven roller 15, without manual alignment and placement. The bottom frame 13 supports the iron core body 11, and the balls on the upper surface of the bottom frame 13 facilitate the rotation of the iron core body 11. While the first support frame 7 drives the pressing mechanism 6 to descend, the first support frame 7 will push the sleeve frame 20 to descend, so that the swing frame 22 and the feeding mechanism 8 drive the iron core body 11 to descend. When the iron core body 11 descends to the processing position,The pressing mechanism 6 also just reaches the outside of the iron core body 11. While facilitating loading and unloading, it can also press the coil, improving the working efficiency of the automatic winding processing equipment for manufacturing inductors.

[0025] Please refer to Figure 1 、 Figure 2 and Figure 13 As shown in, an inclined slot 18 is formed on the inner wall of the frame 2. An adjusting mechanism 28 is installed on the surface of the frame 2 near the inclined slot 18. The adjusting mechanism 28 includes a first electric push rod 2801 fixed to the frame 2. The output end of the first electric push rod 2801 is fixedly connected with a lifting block 2802. A strip-shaped slot 2803 is formed inside the lifting block 2802. A sliding block 2804 is slidably sleeved inside the strip-shaped slot 2803 and the inclined slot 18. A second guide roller 5 is installed on one side of the sliding block 2804 through a bearing.

[0026] During specific implementation, when adjusting the position of the tension pulley of the existing automatic winding processing equipment for manufacturing inductors, it is usually adjusted horizontally or longitudinally, which is time-consuming. The first electric push rod 2801 can be started to push the lifting block 2802 downward, so that the lifting block 2802 squeezes the sliding block 2804. Since the inclined slot 18 and the sliding block 2804 are slidably sleeved, the sliding block 2804 slides obliquely along the inclined slot 18. At the same time, the sliding block 2804 slides horizontally in the strip-shaped slot 2803, changing the position of the second guide roller 5, thereby adjusting the tension of the wire transmission. Compared with horizontal adjustment or longitudinal adjustment, oblique adjustment can change the horizontal and longitudinal positions faster, better control the winding angle and tension of the wire, and thus improve the winding accuracy.

[0027] To sum up, when using this automatic winding processing equipment for manufacturing inductors, the staff places the iron core body 11 at the loading mechanism 8. The iron core body 11 is placed on the bottom frame 13 through the loading mechanism 8 and the swing frame 22. While loading, the first support frame 7 descends through the lifting rod 9 and drives the pressing mechanism 6 to abut against the inner side, outside and top of the iron core body 11. The driving gear assembly 19 drives the winding gear 16 to rotate. The first guide roller 4 and the second guide roller 5 convey the wire. The positioning wheel 17 supports the winding gear 16. When the driving roller 12 drives the iron core body 11 to rotate, the winding gear 16 winds the iron core body 11. During winding, the pressing mechanism 6 squeezes the coil, which is beneficial to the close distribution of the coil. After winding, the loading mechanism 8 is used to assist in unloading, improving the working efficiency of the automatic winding processing equipment for manufacturing inductors. The content not described in detail in this specification belongs to the prior art well-known to those skilled in the art.

[0028] Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments, or perform equivalent replacements for some of the technical features. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principle of the present invention shall be included within the protection scope of the present invention.

Claims

1. An automated winding processing equipment for manufacturing inductors, comprising a base (1) and a lifting rod (9), wherein a frame (2) is installed above the base (1), and it is characterized in that: Above the base (1) far from the frame (2), a vertical frame (10) is fixed. The lifting rod (9) is installed inside the vertical frame (10) through bearings. A guide rod (14) is fixed inside the vertical frame (10) close to the lifting rod (9). At the bottom surface of the vertical frame (10), a lifting motor (32) connected to the lifting rod (9) through a coupling is installed. A first support frame (7) and a sleeve frame (20) are sleeved outside the lifting rod (9). The sleeve frame (20) is slidably sleeved with the guide rod (14). The end of the first support frame (7) is welded with a connecting frame (21). A pressing mechanism (6) is installed at the end of the connecting frame (21). The pressing mechanism (6) includes a pressing motor (601) fixedly connected to the connecting frame (21). At the bottom end of the connecting frame (21), a first pressing roller (604) and a second pressing roller (606) are installed through bearings. At the bottom end of the connecting frame (21) close to the middle between the first pressing roller (604) and the second pressing roller (606), a top pressing roller (605) is installed through a bracket. The end of the sleeve frame (20) is movably connected with a swing frame (22) through a rotating shaft (23). At the end of the swing frame (22) far from the rotating shaft (23), a feeding mechanism (8) is installed. The feeding mechanism (8) includes a first air cylinder (802) and a second air cylinder (807) fixedly installed on both sides of the swing frame (22). The output ends of the first air cylinder (802) and the second air cylinder (807) are respectively fixedly connected with a moving block (805) and a second clamping block (806). A sliding rod (801) is slidably sleeved in the middle of the moving block (805). A return spring (29) is sleeved outside the sliding rod (801).

2. The automatic winding processing equipment for manufacturing an inductor according to claim 1, wherein: At the top ends of the first pressing roller (604) and the second pressing roller (606), a second gear disc (603) and a first gear disc (602) are respectively fixedly sleeved. At one end of the top pressing roller (605), a first bevel gear (26) is fixedly sleeved. On the transmission shaft of the first pressing roller (604), a second bevel gear (27) meshed with the first bevel gear (26) is fixedly sleeved.

3. An automated winding processing device for manufacturing an inductor according to claim 2, characterized in that: The pressing motor (601) is connected to the transmission shaft of the first pressing roller (604) through a coupling. At the end of the sliding rod (801) close to the second clamping block (806), a first clamping block (804) is fixedly connected.

4. An automated winding processing device for manufacturing an inductor according to claim 3, characterized in that: A guide groove (803) is formed inside the swing frame (22) close to the sliding rod (801), and the guide groove (803) is slidably connected with the sliding rod (801).

5. An automated winding processing device for manufacturing an inductor according to claim 1, characterized in that: A first telescopic rod (24) is connected between the surfaces of the first support frame (7) and the sleeve frame (20). At the bottom end of one side of the first support frame (7), a second telescopic rod (25) is fixedly connected.

6. An automated winding processing device for manufacturing an inductor according to claim 5, characterized in that: The second telescopic rod (25) and the swing frame (22) are connected with a second electric push rod (31) through a movable shaft. A chute (30) is formed on the upper surface of the swing frame (22) close to the moving block (805), and the convex block of the moving block (805) is slidably connected with the chute (30).

7. An automated winding processing device for manufacturing an inductor according to claim 1, characterized in that: One end of the frame (2) is provided with a feeding component (3). One side of the frame (2) away from the feeding component (3) is provided with a first guide roller (4) through a bearing. One side of the frame (2) close to the first guide roller (4) is provided with a positioning wheel (17). A wire winding gear (16) is slidably sleeved on the outer side of the positioning wheel (17). One side of the frame (2) close to the wire winding gear (16) is provided with a driving gear assembly (19).

8. An automated winding processing device for manufacturing an inductor according to claim 7, characterized in that: The driving gear assembly (19) is in meshing connection with the wire winding gear (16). A chassis (13) and a driving roller (12) are fixed on the upper surface of the base (1) close to the vertical frame (10). A core body (11) is arranged on the upper surface of the chassis (13). A driven roller (15) is installed on the base (1) above the chassis (13) through a bearing.

9. An automated winding processing device for manufacturing an inductor according to claim 8, characterized in that: An inclined groove (18) is formed in the inner wall of the frame (2). An adjusting mechanism (28) is installed on the surface of the frame (2) close to the inclined groove (18). The adjusting mechanism (28) includes a first electric push rod (2801) fixed on the frame (2). The output end of the first electric push rod (2801) is fixedly connected with a lifting block (2802).

10. An automatic winding processing device for manufacturing an inductor according to claim 9, characterized in that: A strip-shaped groove (2803) is formed in the inner side of the lifting block (2802). A sliding block (2804) is slidably sleeved in the strip-shaped groove (2803) and the inclined groove (18). A second guide roller (5) is installed on one side of the sliding block (2804) through a bearing.

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