A cutting apparatus for inductor manufacturing

Abstract

The application relates to the technical field of inductor production equipment, and provides an inductor manufacturing cutting-off equipment, which comprises an inductor conveying line for conveying cylindrical inductors, the inductor conveying line has an input end and an output end, the inductor conveying line can drive the cylindrical inductors to travel from the input end to the output end and separate from the inductor conveying line, and the inductor conveying line also drives the cylindrical inductors to rotate in the process of driving the cylindrical inductors to travel; an edge cutting-off mechanism is arranged on at least one side of the inductor conveying line, the edge cutting-off mechanism comprises a blade which is in contact with the cylindrical inductors traveling on the inductor conveying line and rotating, and the inductor manufacturing cutting-off equipment greatly improves the cutting-off operation efficiency of inductor edge corners and also improves operation safety.

Description

Technical Field

[0001] This application relates to the field of inductor manufacturing equipment technology, and more specifically, to a cutting device for inductor manufacturing. Background Technology

[0002] Inductors, as key basic components in electronic devices, are widely used in communications, energy, automotive electronics, and consumer electronics. During the manufacturing process of inductors, the surface of the formed workpiece often contains burrs, flash, and other excess material generated by stamping, injection molding, or winding processes. If these scraps are not removed, they will not only affect the appearance quality and structural accuracy of the inductor, but may also lead to problems such as short circuits, decreased insulation performance, or unstable electromagnetic characteristics during assembly or use, thereby reducing the overall reliability of the product.

[0003] Currently, the industry primarily relies on specialized cutting equipment combined with manual operation to remove inductor scrap. A typical workflow is as follows: the operator manually places a single inductor onto the fixed station of the cutting equipment, secures it with clamps or positioning mechanisms, and then starts the cutting or grinding device to remove burrs. After the inductor is removed, the workpiece is manually removed and placed in the finished product area, and then the process of loading, securing, cutting, and unloading the next workpiece is repeated. While this process achieves basic removal of scrap, it has the following significant drawbacks:

[0004] Low production efficiency, relying entirely on manual loading, unloading and positioning, long processing cycles for individual workpieces, and inability to achieve continuous batch operations, which restricts the overall cycle time of the production line; insufficient automation, making it difficult to meet the demands of modern intelligent manufacturing for efficient and high-precision machining; workers operating high-speed cutting tools at close range increase the safety risk of worker injury. Summary of the Invention

[0005] In view of this, this application provides a cutting device for inductor manufacturing to solve the technical problems of low work efficiency and poor safety when manually cutting inductor scraps in the prior art.

[0006] This application provides a cutting device for inductor manufacturing, wherein the cutting device for inductor manufacturing includes:

[0007] An inductor conveyor line is used to transport cylindrical inductors. The inductor conveyor line has an input end and an output end. The inductor conveyor line can drive the cylindrical inductor to travel from the input end to the output end and then disengage from the inductor conveyor line. During the process of driving the cylindrical inductor to travel, the inductor conveyor line also drives the cylindrical inductor to rotate.

[0008] An edge-cutting mechanism is provided on at least one side of the inductor delivery line, the edge-cutting mechanism comprising a blade that contacts a cylindrical inductor traveling and rotating on the inductor delivery line.

[0009] Furthermore, the inductor conveyor line includes two parallel and spaced-apart rotation drive mechanisms and a linear conveying mechanism located below the two inductor conveyor lines. Both the rotation drive mechanism and the linear conveying mechanism extend from the input end of the inductor conveyor line to the output end. The width of the linear conveying mechanism is smaller than the diameter of the cylindrical inductor. The axial bottom of the cylindrical inductor is supported on the linear conveying mechanism and driven to move by the linear conveying mechanism. The two rotation drive mechanisms are used to drive the cylindrical inductor supported on the linear conveying mechanism to rotate about its axis.

[0010] Furthermore, the edge-cutting mechanism is arranged on both sides of the two rotating drive mechanisms that are facing away from each other.

[0011] Furthermore, the linear conveying mechanism includes a first conveying section, an intermediate conveying section, and a second conveying section connected sequentially from the input end to the output end. The second conveying section is lower than the first conveying section. The intermediate conveying section slopes downward from the first conveying section towards the second conveying section. When the axial bottom of the cylindrical inductor is supported on the first conveying section, the height of the portion of the cylindrical inductor above the rotation drive mechanism is greater than 1 / 2 of the total height of the cylindrical inductor. When the axial bottom of the cylindrical inductor is supported on the second conveying section, the height of the portion of the cylindrical inductor below the rotation drive mechanism is greater than the height of the cylindrical inductor itself. The edge cutting mechanism comprises a first edge cutting mechanism and a second edge cutting mechanism, and the blade comprises a first blade corresponding to the first edge cutting mechanism and a second blade corresponding to the second edge cutting mechanism. The first edge cutting mechanism is located on the side of the first conveying section and above the rotation drive mechanism. The first blade is capable of contacting at least the entire outer circumferential surface of the axial upper half of the cylindrical inductor. The second edge cutting mechanism is located on the side of the second conveying section and below the rotation drive mechanism. The second blade is capable of contacting at least the entire outer circumferential surface of the axial lower half of the cylindrical inductor.

[0012] Furthermore, the linear conveying mechanism is a conveyor belt mechanism, and the outer surface of the conveyor belt of the conveyor belt mechanism is provided with multiple arc-shaped upright plates. When the cylindrical inductor travels on the conveyor belt mechanism, each of the arc-shaped upright plates running to the upper part of the conveyor belt abuts against the rear of the cylindrical inductor in the direction of travel.

[0013] Furthermore, the rotation drive mechanism is a roller drive mechanism, which includes a rotation drive beam, a roller motor mounted on the rotation drive beam, and a row of friction rollers rotatably mounted on the rotation drive beam along its length. The length of the rotation drive beam is arranged along the conveying direction of the inductor conveyor line. The rotation drive beam has a lateral groove. The friction rollers are rotatably mounted in the lateral grooves via roller shafts and protrude from the opening of the lateral grooves. The rotation axis of the friction rollers is parallel to the axis of the cylindrical inductor supported on the linear conveying mechanism. The friction rollers are rotatably in frictional contact with the outer circumferential surface of the cylindrical inductor supported on the linear conveying mechanism. The roller shaft of one friction roller in each roller drive mechanism is connected to the corresponding roller motor.

[0014] Furthermore, an annular groove is formed on the outer circumferential surface of the friction roller, and the roller drive mechanism includes a transmission belt that is fitted into the annular groove of each friction roller, with the outer side of the transmission belt located inside the corresponding outer circumferential surface of the friction roller.

[0015] Furthermore, the first blades are arranged in multiple rows along the conveying direction of the inductor conveyor line, and each row of first blades includes multiple first blades arranged along the height direction of the inductor conveyor line; the second blades are arranged in multiple rows along the conveying direction of the inductor conveyor line, and each row of first blades includes multiple first blades arranged along the height direction of the inductor conveyor line.

[0016] Furthermore, the first blade is arranged at an angle relative to the conveying direction of the inductor conveyor line, and the second blade is also arranged at an angle relative to the conveying direction of the inductor conveyor line.

[0017] Furthermore, the inductor manufacturing cutting device includes a first lateral movement drive mechanism, a second lateral movement drive mechanism, and a third lateral movement drive mechanism. The first lateral movement drive mechanism is connected to the rotation drive mechanism. The first edge cutting mechanism includes a first tool holder, and the first blade is disposed on the first tool holder. The second edge cutting mechanism includes a second tool holder, and the second blade is disposed on the second tool holder. The second lateral movement drive mechanism is connected to the first tool holder, and the third lateral movement drive mechanism is connected to the second tool holder. The lateral movement drive direction of each of the first lateral movement drive mechanism, the second lateral movement drive mechanism, and the third lateral movement drive mechanism is perpendicular to the conveying direction of the inductor conveying line.

[0018] The beneficial effects of the inductor manufacturing cutting device provided by the present invention are as follows:

[0019] Compared to existing technologies, the inductor manufacturing cutting equipment provided by this invention has an inductor conveyor line for transporting cylindrical inductors. This conveyor line drives the cylindrical inductors to move and rotate during their travel. The edge cutting mechanism includes blades that contact the cylindrical inductors traveling and rotating on the inductor conveyor line. Therefore, the cylindrical inductors can rotate while traveling on the inductor conveyor line. When the rotating cylindrical inductor passes the edge cutting mechanism, burrs and other scraps on its outer surface are cut off by the blades. Thus, the scrap removal process can be automatically completed during the conveying process of the cylindrical inductor. There is no need for manual operation of loading and unloading the cylindrical inductor at a fixed station on the cutting equipment and waiting for the scrap to be removed. This greatly improves the efficiency of inductor scrap removal operations and also enhances operational safety, eliminating the risk of worker injury. Attached Figure Description

[0020] To more clearly illustrate the technical solutions in the embodiments of this application, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0021] Figure 1 This is a perspective view of a cutting device for manufacturing an inductor according to an embodiment of this application;

[0022] Figure 2 for Figure 1 Enlarged view of point A in the middle;

[0023] Figure 3 for Figure 1 Enlarged view of point B in the middle;

[0024] Figure 4 This is another perspective view of a cutting device for inductor manufacturing according to an embodiment of this application;

[0025] Figure 5 This is another perspective view of a cutting device for inductor manufacturing according to an embodiment of this application;

[0026] Figure 6 for Figure 5 Enlarged view of point C in the middle;

[0027] Figure 7 This is another perspective view of a cutting device for inductor manufacturing according to an embodiment of this application;

[0028] Figure 8 for Figure 7 Enlarged view at point D;

[0029] Figure 9 This is another perspective view of a cutting device for inductor manufacturing according to an embodiment of this application;

[0030] Figure 10 This is a side view of the structure after a portion of the structure has been removed from the inductor manufacturing cutting device according to an embodiment of this application.

[0031] Explanation of reference numerals in the attached figures:

[0032] 1-Cylindrical inductor; 2-Input terminal; 3-Output terminal; 4-First blade; 5-Second blade; 6-First tool holder; 7-Second tool holder; 8-First transverse drive mechanism; 9-Second transverse drive mechanism; 10-Third transverse drive mechanism; 11-Sliding beam; 12-Sliding guide rail; 13-Base; 100-Rotation drive mechanism; 101-Rotation drive beam; 102-Roller motor; 103-Friction roller; 104-Side groove; 105-Roller shaft; 106-Annular groove; 107-Transmission belt; 200-Linear conveying mechanism; 201-First conveying section; 202-Intermediate conveying section; 203-Second conveying section; 204-Conveyor belt; 205-Arc-shaped vertical plate; 206-Driving pulley; 207-Driven pulley; 208-Travel drive motor. Detailed Implementation

[0033] To facilitate understanding of this application, a more complete description will be provided below with reference to the accompanying drawings. One or more embodiments of this application are exemplarily shown in the drawings to provide a more accurate and thorough understanding of the technical solutions disclosed herein. However, it should be understood that this application can be implemented in many different forms and is not limited to the embodiments described below.

[0034] In the accompanying drawings of this application, the same or similar reference numerals correspond to the same or similar components. In the description of this application, it should be understood that if terms such as "upper," "lower," "left," "right," etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the drawings, they are only for the convenience of describing this application and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, the terms used to describe positional relationships in the drawings are only for illustrative purposes and should not be construed as limiting this application. For those skilled in the art, the specific meaning of the above terms can be understood according to the specific circumstances.

[0035] Furthermore, if the embodiments of this application involve descriptions such as "first" or "second," these descriptions are for descriptive purposes only and should not be construed as indicating or implying their relative importance or implicitly specifying the number of technical features indicated. Therefore, features defined with "first" or "second" may explicitly or implicitly include at least one of those features. Additionally, if "and / or" or "and / or" appears throughout the text, its meaning includes three parallel solutions. For example, "A and / or B" includes solution A, solution B, or a solution where both A and B are satisfied simultaneously.

[0036] Furthermore, the technical solutions of the various embodiments can be combined with each other, but only if they are based on the ability of those skilled in the art to implement them. When the combination of technical solutions is contradictory or cannot be implemented, it should be considered that such combination of technical solutions does not exist and is not within the scope of protection claimed in this application.

[0037] See Figures 1 to 10 This application provides a cutting apparatus for inductor manufacturing, wherein the cutting apparatus for inductor manufacturing includes:

[0038] An inductor conveying line is used to transport a cylindrical inductor 1. The inductor conveying line has an input end 2 and an output end 3. The inductor conveying line can drive the cylindrical inductor 1 from the input end 2 to the output end 3 and disengage from the inductor conveying line. During the process of the inductor conveying line driving the cylindrical inductor 1 to travel, it also drives the cylindrical inductor 1 to rotate.

[0039] An edge-cutting mechanism is provided on at least one side of the inductor transport line. The edge-cutting mechanism includes a blade that contacts a cylindrical inductor 1 that travels and rotates on the inductor transport line.

[0040] Because the inductor manufacturing cutting equipment provided by the present invention has an inductor conveyor line for conveying cylindrical inductors 1, and the inductor conveyor line drives the cylindrical inductor 1 to rotate during its movement, and the edge cutting mechanism includes blades that contact the cylindrical inductor 1 moving and rotating on the inductor conveyor line, the cylindrical inductor 1 can also rotate during its movement on the inductor conveyor line. When the rotating cylindrical inductor 1 passes through the edge cutting mechanism, the burrs and other scraps on its outer surface are cut off by the blades. Thus, the cylindrical inductor 1 can automatically complete the scrap cutting process during its conveying process, without the need for manual operation of the cylindrical inductor 1 to be picked up and placed at a fixed station of the cutting equipment and wait for the scrap to be cut off. This greatly improves the efficiency of inductor scrap cutting operations, improves operational safety, and eliminates the risk of worker injury.

[0041] According to one embodiment of the present invention, the inductor conveyor line includes two rotating drive mechanisms 100 arranged in parallel and spaced apart, and a linear conveying mechanism 200 located below the two inductor conveyor lines. Both the rotating drive mechanism 100 and the linear conveying mechanism 200 extend from the input end 2 of the inductor conveyor line to the output end 3. The width of the linear conveying mechanism 200 is smaller than the diameter of the cylindrical inductor 1. The axial bottom of the cylindrical inductor 1 is supported on the linear conveying mechanism 200 and driven to move by the linear conveying mechanism 200. The two rotating drive mechanisms 100 are used to drive the cylindrical inductor 1 supported on the linear conveying mechanism 200 to rotate about its axis.

[0042] According to a preferred embodiment of the present invention, edge cutting mechanisms are arranged on both sides of the two rotating drive mechanisms 100 that are facing away from each other.

[0043] According to a specific embodiment of this application, the linear conveying mechanism 200 includes a first conveying section 201, an intermediate conveying section 202, and a second conveying section 203 connected sequentially from the input end 2 to the output end 3. The second conveying section 203 is lower than the first conveying section 201. The intermediate conveying section 202 slopes downward from the first conveying section 201 toward the second conveying section 203. When the axial bottom of the cylindrical inductor 1 is supported on the first conveying section 201, the height of the portion of the cylindrical inductor 1 above the rotation drive mechanism 100 is greater than 1 / 2 of the total height of the cylindrical inductor 1. When the axial bottom of the cylindrical inductor 1 is supported on the second conveying section 203, the height of the portion of the cylindrical inductor 1 below the rotation drive mechanism 100 is greater than 1 / 2 of the total height of the cylindrical inductor. The edge cutting mechanism includes a first edge cutting machine. The first edge cutting mechanism includes a first blade 4 corresponding to the first edge cutting mechanism and a second blade 5 corresponding to the second edge cutting mechanism. The first edge cutting mechanism is located on the side of the first conveying section 201 and above the rotation drive mechanism 100. The first blade 4 can contact at least the entire outer circumferential surface of the upper half of the cylindrical inductor 1 in the axial direction. The second edge cutting mechanism is located on the side of the second conveying section 203 and below the rotation drive mechanism 100. The second blade 5 can contact at least the entire outer circumferential surface of the lower half of the cylindrical inductor 1 in the axial direction. In this way, when the cylindrical inductor 1 passes through the first conveying section 201 and the second conveying section 203, the outer circumferential surface of its entire height direction in the axial direction can be scrapped by the first blade 4 and the second blade 5.

[0044] According to one embodiment of this application, the linear conveying mechanism 200 is a conveyor belt mechanism. The outer surface of the conveyor belt 204 of the conveyor belt mechanism is provided with a plurality of arc-shaped vertical plates 205. The first conveying section 201, the intermediate conveying section 202 and the second conveying section 203 are located on the upper part of the running conveyor belt 204. When the cylindrical inductor 1 travels on the conveyor belt mechanism, each arc-shaped vertical plate 205 that travels to the upper part of the conveyor belt 204 abuts against the rear of each cylindrical inductor 1 in the direction of travel. In this way, when the cylindrical inductor 1 comes into contact with the first blade 4 and the second blade 5 during travel and rotation, it will be blocked by the arc-shaped vertical plates 205, so that it will not fall down due to the cutting force and collision force of the first blade 4 and the second blade 5. The conveyor belt mechanism includes a drive pulley 206 and a plurality of driven pulleys 207 that abut against the inner side of the conveyor belt 204. The drive pulley 206 is connected to the travel drive motor 208.

[0045] According to a preferred embodiment of this application, the conveyor belt 204 is a metal conveyor belt, especially a metal conveyor belt composed of multiple metal plates (sheets), which can better support the cylindrical inductor 1 and make it easier to arrange the arc-shaped upright plate 205 on the metal conveyor belt. The arc-shaped upright plate 205 can be welded to the metal conveyor belt or detachably connected to the metal conveyor belt.

[0046] According to one embodiment of this application, the rotation drive mechanism 100 is a roller drive mechanism, which includes a rotation drive beam 101, a roller motor 102 disposed on the rotation drive beam 101, and a row of friction rollers 103 rotatably mounted on the rotation drive beam 101 along its length. The length of the rotation drive beam 101 is arranged along the conveying direction of the inductor conveyor line. The rotation drive beam 101 has a lateral groove 104. The friction rollers 103 are rotatably mounted in the lateral groove 104 via roller shafts 105 and protrude from the opening of the lateral groove 104. The friction rollers 103 are rotatably connected to the linear conveying mechanism 20. The outer circumferential surface of the cylindrical inductor 1 supported on the top is in frictional contact. The roller shaft 105 of one friction roller 103 (e.g., the first or last friction roller 103) in each roller drive mechanism is connected to the corresponding roller motor 102. When the friction rollers 103 in the roller drive mechanisms on both sides of the cylindrical inductor 1 rotate clockwise, the cylindrical inductor 1 in contact between the two friction rollers 103 can be driven to rotate counterclockwise. Similarly, when the friction rollers 103 in the roller drive mechanisms on both sides of the cylindrical inductor 1 rotate counterclockwise, the cylindrical inductor 1 in contact between the two friction rollers 103 can be driven to rotate clockwise.

[0047] According to a preferred embodiment of this application, an annular groove 106 is formed on the outer circumferential surface of the friction roller 103. The roller drive mechanism includes a transmission belt 107 that is fitted into the annular groove 106 of each friction roller 103. The outer side of the transmission belt 107 is located inside the outer circumferential surface of the corresponding friction roller 103. In this way, a row of friction rollers 103 in the roller drive mechanism is driven by the same roller motor 102 and transmission belt 107. Since the transmission belt 107 is located inside the outer circumferential surface of the corresponding friction roller 103, it will not affect the frictional contact between the outer circumferential surface of the friction roller 103 and the outer circumferential surface of the cylindrical inductor 1.

[0048] According to a specific embodiment of this application, the first blade 4 is arranged in multiple rows (e.g., 7 rows) along the conveying direction of the inductor conveying line. Each row of the first blade 4 includes multiple (e.g., 4) first blades 4 arranged along the height direction of the inductor conveying line. The second blade 5 is arranged in multiple rows (e.g., 7 rows) along the conveying direction of the inductor conveying line. Each row of the first blade 4 includes multiple (e.g., 4) first blades 4 arranged along the height direction of the inductor conveying line. In this embodiment, it is equivalent to both the first blade 4 and the second blade 5 being arranged in multiple rows and columns, which can ensure that the entire outer circumferential surface of the rotating cylindrical inductor 1 is contacted by the first blade 4 and the second blade 5 without any dead angles, so as to ensure that all burrs and other scraps on the outer circumferential surface of the cylindrical inductor 1 are completely removed as much as possible.

[0049] According to a specific embodiment of this application, the first blade 4 is arranged at an angle relative to the conveying direction of the inductor conveying line, and the second blade 5 is arranged at an angle relative to the conveying direction of the inductor conveying line. When the conveying direction of the inductor conveying line is arranged in a horizontal direction, the first blade 4 and the second blade 5 are preferably arranged at an angle of 45° relative to the horizontal plane.

[0050] According to one embodiment of this application, the inductor manufacturing cutting equipment includes a first transverse drive mechanism 8, a second transverse drive mechanism 9, and a third transverse drive mechanism 10. The first transverse drive mechanism 8 is connected to a rotation drive mechanism 100 and is specifically connected to the outside of the rotation drive beam 101. The first edge cutting mechanism includes a first tool holder 6, with a first blade 4 disposed on the first tool holder 6. The second edge cutting mechanism includes a second tool holder 7, with a second blade 5 disposed on the second tool holder 7. The second transverse drive mechanism 9 is connected to the first tool holder 6, and the third transverse drive mechanism 10 is connected to the second tool holder 7. The transverse drive direction of each of the first transverse drive mechanism 8, the second transverse drive mechanism 9, and the third transverse drive mechanism 10 is perpendicular to the conveying direction of the inductor conveying line. In this way, the spacing between the two first edge cutting mechanisms, the spacing between the two second edge cutting mechanisms, and the spacing between the two rotation drive mechanisms 100 can all be adjusted, thereby adapting to the scrap cutting operation of cylindrical inductors 1 with various diameter sizes.

[0051] According to a specific embodiment of this application, the first transverse drive mechanism 8, the second transverse drive mechanism 9, and the third transverse drive mechanism 10 are all electric guide rails. The outer sides of both ends of the rotation drive mechanism 100 can also be provided with sliding beams 11 arranged along the conveying direction perpendicular to the inductor conveying line. The sliding beams 11 are specifically connected to the outer side of the rotation drive beam 101 and are perpendicular to the rotation drive beam 101. The sliding beams 11 are slidably supported on the sliding guide rails 12. The inductor manufacturing cutting device includes a base 13. The first transverse drive mechanism 8, the second transverse drive mechanism 9, the third transverse drive mechanism 10, the inductor conveying line, and the sliding guide rails 12 are all supported on the base 13.

[0052] It should be noted that the above embodiments only illustrate preferred embodiments of this application, and their descriptions are relatively specific and detailed, but they should not be construed as limiting this application. It should be pointed out that those skilled in the art can make several modifications and improvements without departing from the concept of this application, such as combining different features in various embodiments, and these should all fall within the protection scope of this application.

Claims

1. A cutting device for inductor manufacturing, characterized in that, The inductor manufacturing cutting equipment includes: An inductor conveyor line is used to transport cylindrical inductors. The inductor conveyor line has an input end and an output end. The inductor conveyor line can drive the cylindrical inductor to travel from the input end to the output end and then disengage from the inductor conveyor line. During the process of driving the cylindrical inductor to travel, the inductor conveyor line also drives the cylindrical inductor to rotate. An edge-cutting mechanism is provided on at least one side of the inductor delivery line, the edge-cutting mechanism comprising a blade that contacts a cylindrical inductor traveling and rotating on the inductor delivery line; The inductor conveyor line includes two parallel, spaced-apart rotary drive mechanisms and a linear conveying mechanism located below the two inductor conveyor lines. Both the rotary drive mechanism and the linear conveying mechanism extend from the input end of the inductor conveyor line to the output end. The width of the linear conveying mechanism is smaller than the diameter of the cylindrical inductor. The axial bottom of the cylindrical inductor is supported on the linear conveying mechanism and driven to move by the linear conveying mechanism. The two rotary drive mechanisms are used to drive the cylindrical inductor supported on the linear conveying mechanism to rotate about its axis. The edge cutting mechanism is arranged on both sides of the two rotating drive mechanisms that are facing away from each other. The linear conveying mechanism includes a first conveying section, an intermediate conveying section, and a second conveying section connected sequentially from the input end to the output end. The second conveying section is lower than the first conveying section. The intermediate conveying section slopes downward from the first conveying section toward the second conveying section. When the axial bottom of the cylindrical inductor is supported on the first conveying section, the height of the portion of the cylindrical inductor above the rotation drive mechanism is greater than 1 / 2 of the total height of the cylindrical inductor. When the axial bottom of the cylindrical inductor is supported on the second conveying section, the height of the portion of the cylindrical inductor below the rotation drive mechanism is greater than the height of the cylindrical inductor itself. The edge cutting mechanism, comprising half of the total height, includes a first edge cutting mechanism and a second edge cutting mechanism. The blade includes a first blade corresponding to the first edge cutting mechanism and a second blade corresponding to the second edge cutting mechanism. The first edge cutting mechanism is located on the side of the first conveying section and above the rotation drive mechanism. The first blade is capable of contacting at least the entire outer circumferential surface of the axial upper half of the cylindrical inductor. The second edge cutting mechanism is located on the side of the second conveying section and below the rotation drive mechanism. The second blade is capable of contacting at least the entire outer circumferential surface of the axial lower half of the cylindrical inductor.

2. The inductor manufacturing cutting apparatus according to claim 1, characterized in that, The linear conveying mechanism is a conveyor belt mechanism. The outer surface of the conveyor belt of the conveyor belt mechanism is provided with multiple arc-shaped upright plates. When the cylindrical inductor moves on the conveyor belt mechanism, the arc-shaped upright plates at the top of the conveyor belt correspond to the rear of the cylindrical inductor in the direction of travel.

3. The inductor manufacturing cutting apparatus according to claim 1, characterized in that, The rotation drive mechanism is a roller drive mechanism, which includes a rotation drive beam, a roller motor mounted on the rotation drive beam, and a row of friction rollers rotatably mounted on the rotation drive beam along its length. The rotation drive beam is arranged along the conveying direction of the inductor conveyor line. The rotation drive beam has a lateral groove. The friction rollers are rotatably mounted in the lateral grooves via roller shafts and protrude from the opening of the lateral grooves. The rotation axis of the friction rollers is parallel to the axis of the cylindrical inductor supported on the linear conveying mechanism. The friction rollers are rotatably in frictional contact with the outer circumferential surface of the cylindrical inductor supported on the linear conveying mechanism. The roller shaft of one friction roller in each roller drive mechanism is connected to the corresponding roller motor.

4. The inductor manufacturing cutting apparatus according to claim 3, characterized in that, The outer circumferential surface of the friction roller is formed with an annular groove, and the roller drive mechanism includes a transmission belt that is fitted into the annular groove of each friction roller, with the outer side of the transmission belt located inside the outer circumferential surface of the corresponding friction roller.

5. The inductor manufacturing cutting apparatus according to claim 1, characterized in that, The first blades are arranged in multiple rows along the conveying direction of the inductor conveyor line, and each row of first blades includes multiple first blades arranged along the height direction of the inductor conveyor line; the second blades are arranged in multiple rows along the conveying direction of the inductor conveyor line, and each row of first blades includes multiple first blades arranged along the height direction of the inductor conveyor line.

6. The inductor manufacturing cutting apparatus according to claim 5, characterized in that, The first blade is arranged at an angle relative to the conveying direction of the inductor conveyor line, and the second blade is also arranged at an angle relative to the conveying direction of the inductor conveyor line.

7. The inductor manufacturing cutting apparatus according to claim 1, characterized in that, The inductor manufacturing cutting device includes a first lateral drive mechanism, a second lateral drive mechanism, and a third lateral drive mechanism. The first lateral drive mechanism is connected to the rotation drive mechanism. The first edge cutting mechanism includes a first tool holder, and the first blade is disposed on the first tool holder. The second edge cutting mechanism includes a second tool holder, and the second blade is disposed on the second tool holder. The second lateral drive mechanism is connected to the first tool holder. The third lateral drive mechanism is connected to the second tool holder. The lateral drive direction of each of the first, second, and third lateral drive mechanisms is perpendicular to the conveying direction of the inductor conveying line.

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