A length detection device for inductor coil winding

Abstract

The invention discloses a length detection device for inductor coil winding, and relates to the technical field of inductor coil specification detection. The detection device comprises a detection box, a placement slot is arranged in the detection box, a profiling component is arranged in the placement slot, a receiving slot is arranged in the detection box, a positioning frame is arranged at one end of the receiving slot away from the placement slot, the positioning frame is electrically connected to the profiling component through a wire, a lifting cylinder is arranged in the detection box, a lifting platform is arranged on the output end of the lifting cylinder, a detection component is arranged on the lifting platform, a detection motor is arranged on the positioning frame, the detection motor is arranged in the detection box, an infrared component is arranged in the detection box, a monitoring panel is arranged in the detection box, the detection component and the detection motor are electrically connected to the monitoring panel through a wire, a transfer slide is arranged in the detection box, the transfer slide is arranged on the output end of the transfer cylinder, and the transfer cylinder is arranged in the detection box. The invention has the function of automatically detecting the thickness and shape information of the inductor coil.

Description

Technical Field

[0001] The invention relates to the technical field of inductor coil specification detection, in particular to a length detection device for inductor coil winding. Background Art

[0002] An inductor is a device that works on the principle of electromagnetic induction. When current flows through a wire, a magnetic field will be generated around the wire, and the electromagnetic field will induce the wire within the range of this electromagnetic field. This is the working principle of the inductor. The effect on the wire itself that generates the electromagnetic field is called self-inductance. Under this working principle, the greater the current and the more turns of the coil, the greater the magnetic field superimposed inside the coil. Therefore, the winding length and number of turns of the inductor are one of the most important parameters for determining the performance of the inductor.

[0003] During the winding operation, the winding length and other parameters need to be detected to determine the performance of the inductor coil. Since the winding angle and strength are different during the winding process, the wound inductor coil also needs to be detected. For example, Chinese utility model patent CN208588786U discloses an inductor coil detection device. The inductor coil detection device drives a rotating wheel through a conveyor belt so that a fixed box on the conveyor belt can be moved left and right to detect the coil. The detection device and this detection method cannot know the winding length and the number of winding layers of the inductor coil. Therefore, this device has certain defects in detecting the performance of the inductor coil. Summary of the invention

[0004] The object of the present invention is to provide a length detection device for inductor coil winding to solve the problems raised in the above background technology.

[0005] In order to solve the above technical problems, the present invention provides the following technical solution: a length detection device for inductor coil winding.

[0006] The detection equipment comprises a detection box, a placement slot is arranged in the detection box, a profiling component is arranged in the placement slot, a receiving slot is arranged in the detection box, the receiving slot is connected with the placement slot, a positioning frame is arranged at one end of the receiving slot away from the placement slot, the positioning frame is electrically connected with the profiling component through a wire, a lifting cylinder is arranged in the detection box, a lifting platform is arranged on the output end of the lifting cylinder, a detection component is arranged on the lifting platform, a detection motor is arranged on the positioning frame, the detection motor is arranged in the detection box, an infrared component is arranged in the detection box, a monitoring panel is arranged in the detection box, the detection component and the detection motor are electrically connected with the monitoring panel through a wire, a transfer slide is arranged in the detection box, the transfer slide is arranged on the output end of the transfer cylinder, and the transfer air cylinder is provided. The cylinder is set in the detection box. When conducting detection, the inductor coil is first placed in the placement slot. The profiling component on the placement slot will position and profile the inductor coil and transmit the shape information to the monitoring panel. The monitoring panel will adjust the receiving slot to adapt to the shape of the coil. Then the internal receiving component will send it to the positioning frame. The internal receiving component will place and fix it. Then the infrared component will be started. The infrared component will detect the inductor coil. At this time, the detection motor will rotate to detect the shape changes of various positions of the inductor coil. After the infrared detection component completes the detection, the detection component will work and release the magnetic field. By detecting the current changes, the winding thickness of the coil at various positions of the coil can be obtained.

[0007] The placement slot and the detection box are rotationally connected through a rotating shaft, a locking buckle is provided on the placement slot, a locking slot is provided on the detection box, the locking buckle corresponds to the locking slot, a discharge port is provided on the receiving slot, a plurality of adaptation plates are provided in the discharge port, each adaptation plate is rotationally connected to the discharge port, the adaptation plates are connected by elastic ropes, and the profiling component is provided on the adaptation plate. When placing the inductor coil to be tested, the placement slot and the detection box are first locked and installed, the locking buckle is placed on the locking slot, and automatically locked, and then the inductor coil is sent to the discharge port, the adaptation plate will adapt to the inductor coil, and then the profiling component will automatically adjust and adapt to the inductor coil, and transmit the shape information to the monitoring panel.

[0008] The contour-matching component includes a plurality of pressing seats, each of which is arranged on a corresponding adaptation plate, each of which is provided with a sliding sheet, each of which is slidingly connected to the corresponding pressing seat, a sliding ring is provided on the sliding sheet, and a plurality of sliding switches are provided in the pressing seat, each of which is in contact with the sliding ring, and each of which is electrically connected to the monitoring panel through a wire. First, the inductor coil is placed in the placement groove, and then the inductor coil will be against the adaptation plate and will pass through the pressing seat at the same time, and the inductor coil will be against the sliding sheet, so that the sliding sheet drives the sliding ring to move, and the shape information of the inductor coil is determined by triggering the sliding switch at a specific position, and the inductor switch at each position in the monitoring panel corresponds to a different position program.

[0009] There are multiple sliding balls rotatably connected to the receiving groove, and correction plates are respectively arranged on both sides of the receiving groove. The correction plates are slidably connected to the receiving groove. A correction motor and two correction pull plates are arranged on the receiving groove, and each correction pull plate is respectively arranged with teeth. Each correction pull plate is respectively engaged with the output end of the correction motor, and the correction pull plates are respectively connected to the corresponding correction plates. The correction motor is electrically connected to the monitoring panel through wires. Before the inductor coil is detected, the inductor coil will pass through the sliding balls, and the sliding balls will play the role of smooth lubrication. Subsequently, the shape information detected by the profiling component is used to mobilize the correction motor to rotate, and the correction motor will drive the correction pull plate to rotate, thereby adjusting the position of the correction plate, so that the receiving groove can adapt to the detection of coils of various specifications.

[0010] A first operating platform and a second operating platform are arranged on the positioning frame, an interlaced column is arranged on the first operating platform, a moving motor and a lifting column are arranged in the interlaced column, a lifting gear is arranged on the moving motor, the lifting gear is meshed with teeth on the lifting column, a diffusion spring is arranged on the interlaced column, the diffusion spring is in sliding contact with the lifting column, a clamping plate is arranged on the second operating platform, the clamping plate is rotationally connected to the second operating platform through an electric shaft, the moving motor and the electric shaft are electrically connected to the monitoring panel through a wire, during the detection process, the detection motor will drive the first operating platform and the second operating platform to rotate, and then in order to adapt to the installation of the inductor coil, the moving motor can be started to drive the lifting gear to rotate, thereby indirectly driving the lifting column to push out the diffusion spring, thereby fixing the inductor coil, and facing the cylindrical inductor coil, the electric shaft is started to fix the clamping plate on the second operating platform, and when magnetic field detection is required, the clamping plate can be adjusted to the center position to reduce large detection errors caused by excessive position changes.

[0011] The infrared component includes an infrared emitter and an infrared receiving board. The infrared emitter and the infrared receiving board are respectively arranged on both sides of the positioning frame. The infrared emitter and the infrared receiving board are respectively electrically connected to the monitoring panel through wires. A shading plate is slidably connected to the receiving groove. When performing detection, it is necessary to detect the shape of the inductor coil to determine the shape information and specifications of the inductor coil. The area of ​​the inductor coil and the winding length of the inductor coil can be known by blocking the area of ​​infrared rays, and the winding thickness of the inductor coil can also be indirectly known. To avoid interference, the shading plate can be activated to block external light sources.

[0012] The detection component includes a magnetic field generator and a lifting tube. A sliding block is provided on the lifting tube. The sliding block is sleeved on the lifting tube and is slidably connected to the lifting tube. The magnetic field generator is arranged on the sliding block. The lifting tube is arranged on the lifting platform. The magnetic field generator and the lifting tube are electrically connected to the monitoring panel through wires. An isolation sleeve is arranged on the detection motor body. During the detection process, the magnetic field generator will move on the lifting tube and be driven by kinetic energy components such as cylinders or motors. Subsequently, the magnetic field generated by the magnetic field generator will also change, and the magnetic field falling on the inductor will also change, which will eventually cause the current of the inductor to change. The current changes generated by different thicknesses are also different, so that the wire harness thickness at each position of the inductor can be obtained.

[0013] A detection electrode sheet group and a sliding rod are provided on the second operating table. The detection electrode sheet group and the sliding rod are slidably connected. The detection electrode sheet group is electrically connected to the monitoring panel through a wire. The sliding rod is slidably connected to the second operating table. A support frame is provided in the detection box. The support frame is in sliding contact with the sliding rod. The support frame is slidably connected to the detection box. During the detection process, the position of the detection electrode sheet group on the sliding rod is adjusted to make the adjustment motor sheet group contact with both ends of the inductor coil harness. Subsequently, a magnetic field is generated, and the magnetic field is constantly moving, so that the coil tangent to the magnetic field generates current, which will be captured by the detection electrode sheet group, and the current change generated by the movement of the magnetic field will be transmitted to the monitoring panel. When the detection is completed, the support frame will knock down the fixed inductor coil.

[0014] A flip motor is arranged on the transfer slide, a receiving block is arranged on the output end of the flip motor, a sliding groove is arranged on the receiving block, the sliding groove is rotationally connected with the receiving block through a spring shaft, a discharge hole is arranged on the detection box, a flip rod is arranged on the discharge hole, the sliding groove is in sliding contact with the flip rod, after the detection is completed, the inductor coil will be sent to the transfer slide by the internal receiving component, and then the transfer cylinder will drive the transfer slide to move, and after sending it to the discharge hole, the flip motor is started, the flip motor will drive the receiving block to rotate, and the sliding groove will also rotate with the receiving block and send it to the vicinity of the flip rod, the flip rod will block the inductor coil and send it out of the detection box.

[0015] Compared with the prior art, the beneficial effects achieved by the present invention are: 1. The present invention adopts an adaptive structural component, which can detect a variety of inductance coils through the form of profiling components and multiple operating tables, reduce the single detection of the equipment, and increase the detection range of the equipment. At the same time, by using the positioning information of the profiling component, the inductance coil can also be fully positioned in a targeted manner, reducing the problem of detection errors during the detection process of the equipment.

[0016] 2. The present invention adopts the cooperation of infrared components and detection components, which can not only obtain the external dimensions and specifications of the inductor coil, but also use the principle of electromagnetic induction to detect the winding thickness at each position of the inductor coil, thereby obtaining the winding thickness and winding angle of the inductor coil at each layer of the inductor coil for subsequent adjustment.

[0017] 3. This equipment adopts an integrated feeding and discharging structure, and can also add manual intervention, so that this equipment can be more flexibly applied to various working environments, fully reducing the use of labor, and also reducing the possibility of the detection equipment damaging the inductor coil to a certain extent. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings:

[0019] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention;

[0020] Figure 2 It is a schematic diagram of the internal structure of the detection box of the present invention;

[0021] Figure 3 It is a schematic diagram of the structure of the matching relationship between the detection box and the placement slot of the present invention;

[0022] Figure 4 yes Figure 2 The schematic diagram of the structure A is partially enlarged in the middle;

[0023] Figure 5 It is a schematic diagram of the structure of the profiling component of the present invention;

[0024] Figure 6 It is a schematic diagram of the receiving groove structure of the present invention;

[0025] Figure 7 It is a schematic diagram of the interlaced column structure of the present invention;

[0026] Figure 8 It is a schematic diagram of the structure of the detection component of the present invention;

[0027] Fig. 9 It is a schematic diagram of the structure of the transfer slide of the present invention;

[0028] In the figure: 1. detection box; 2. placement slot; 201. locking buckle; 3. profiling component; 301. pressing seat; 302. sliding sheet; 303. sliding ring; 304. sliding switch; 4. receiving slot; 401. discharge port; 402. adapting plate; 403. sliding ball; 404. correction plate; 405. correction motor; 406. correction pull plate; 407. shading plate; 5. positioning frame; 501. first operating table; 502. second operating table; 503. interlaced column; 504. moving motor; 505. lifting column; 506. lifting gear; 507, diffusion spring; 508, clamping piece; 509, detection electrode sheet group; 510, sliding rod; 511, support frame; 6, lifting cylinder; 7, lifting platform; 8, detection component; 801, magnetic field generator; 802, lifting tube; 803, sliding block; 9, detection motor; 10, monitoring panel; 11, transfer slide; 1101, inverted motor; 1102, supporting block; 1103, sliding groove; 1104, inverted rod; 12, transfer cylinder; 13, infrared component; 1301, infrared transmitter; 1302, infrared receiving plate. DETAILED DESCRIPTION

[0029] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0030] The detection device includes a detection box 1, a placement slot 2 is arranged in the detection box 1, a profiling component 3 is arranged in the placement slot 2, a receiving slot 4 is arranged in the detection box 1, the receiving slot 4 is connected with the placement slot 2, a positioning frame 5 is arranged at one end of the receiving slot 4 away from the placement slot 2, the positioning frame 5 is electrically connected to the profiling component 3 through a wire, a lifting cylinder 6 is arranged in the detection box 1, a lifting platform 7 is arranged on the output end of the lifting cylinder 6, a detection component 8 is arranged on the lifting platform 7, a detection motor 9 is arranged in the detection box 1, an infrared component 13 is arranged in the detection box 1, a monitoring panel 10 is arranged in the detection box 1, the detection component 8 and the detection motor 9 are electrically connected to the monitoring panel 10 through a wire, and the detection box 1 is provided with a transfer slide 11, the transfer slide 11 is arranged on the output end of the transfer cylinder 12, and the transfer cylinder 12 is arranged in the detection box 1. When performing detection, the inductor coil is first placed in the placement slot, and the profiling component on the placement slot will position and profile the inductor coil, and transmit the shape information to the monitoring panel, and the monitoring panel will adjust the receiving slot to adapt to the shape of the coil, and then the internal receiving component will send it to the positioning frame, and the internal receiving component will place and fix it, and then start the infrared component, and the infrared component will detect the inductor coil. At this time, the detection motor rotates to detect the shape changes of various positions of the inductor coil. After the infrared detection component completes the detection, the detection component will work, release the magnetic field, and obtain the winding thickness of the coil at various positions of the coil by detecting the current change.

[0031] The placement slot 2 is rotationally connected to the detection box 1 through a rotating shaft, a locking buckle 201 is provided on the placement slot 2, a locking slot is provided on the detection box 1, the locking buckle 201 corresponds to the locking slot, a discharge port 401 is provided on the receiving slot 4, a plurality of adaptation plates 402 are provided in the discharge port 401, each adaptation plate 402 is rotationally connected to the discharge port 401 respectively, the adaptation plates 402 are connected by elastic ropes, the profiling component 3 is provided on the adaptation plate 402, when placing the inductor coil to be tested, firstly, the placement slot and the detection box are locked and installed, the locking buckle is placed on the locking slot, and automatically locked, and then the inductor coil is sent to the discharge port, the adaptation plate will adapt to the inductor coil, and then the profiling component will automatically adjust and adapt to the inductor coil, and transmit the shape information to the monitoring panel.

[0032] The profiling component 3 includes a plurality of pressing seats 301, each of which is arranged on a corresponding adapting plate 402, each of which is provided with a sliding sheet 302, each of which is slidably connected with the corresponding pressing seat 301, a sliding ring 303 is provided on the sliding sheet 302, a plurality of sliding switches 304 are provided in the pressing seat 301, each of which is in contact with the sliding ring 303, each of which is electrically connected with the monitoring panel 10 through a wire, firstly, the inductor coil is placed in the placement groove, then the inductor coil will be against the adapting plate, and at the same time, it will pass through the pressing seat, and the inductor coil will be against the sliding sheet, so that the sliding sheet drives the sliding ring to move, and the shape information of the inductor coil is determined by triggering the sliding switch at a specific position, and the inductor switch at each position in the monitoring panel corresponds to a different position program.

[0033] A plurality of sliding balls 403 are rotatably connected to the receiving groove 4, and correction plates 404 are respectively provided on both sides of the receiving groove 4. The correction plates 404 are slidably connected to the receiving groove 4, and a correction motor 405 and two correction pull plates 406 are provided on the receiving groove 4. Each correction pull plate 406 is respectively provided with teeth, and each correction pull plate 406 is respectively engaged with the output end of the correction motor 405, and the correction pull plates 406 are respectively connected to the corresponding correction plates 404. The correction motor 405 is electrically connected to the monitoring panel 10 through a wire. Before the inductor coil is detected, the inductor coil will pass through the sliding balls, which have the function of smooth lubrication. Subsequently, the shape information detected by the profiling component is used to mobilize the correction motor to rotate, and the correction motor will drive the correction pull plate to rotate, thereby adjusting the position of the correction plate, so that the receiving groove can adapt to the detection of coils of various specifications.

[0034] The positioning frame 5 is provided with a first operating table 501 and a second operating table 502. The first operating table 501 is provided with an interpenetrating column 503. A moving motor 504 and a lifting column 505 are provided in the interpenetrating column 503. A lifting gear 506 is provided on the moving motor 504. The lifting gear 506 is meshed with the teeth on the lifting column 505. A diffusion spring 507 is provided on the interpenetrating column 503. The diffusion spring 507 is in sliding contact with the lifting column 505. A clamping sheet 508 is provided on the second operating table 502. The clamping sheet 508 is rotatably connected to the second operating table 502 through an electric shaft. The moving motor 504 is provided with a lifting gear 506. The lifting gear 506 is meshed with the teeth on the lifting column 505. 04. The electric shaft is electrically connected to the monitoring panel 10 through a wire. During the detection process, the detection motor will drive the first operating table and the second operating table to rotate. Then, in order to adapt to the installation of the inductor coil, the mobile motor can be started to drive the lifting gear to rotate, thereby indirectly driving the lifting column to push out the diffusion spring sheet, thereby fixing the inductor coil. Facing the cylindrical inductor coil, the electric shaft is started to fix the clamping plate on the second operating table. When magnetic field detection is required, the clamping plate can be adjusted to the center position to reduce large detection errors caused by excessive position changes.

[0035] The infrared component 13 includes an infrared emitter 1301 and an infrared receiving plate 1302. The infrared emitter 1301 and the infrared receiving plate 1302 are respectively arranged on both sides of the positioning frame 5. The infrared emitter 1301 and the infrared receiving plate 1302 are respectively electrically connected to the monitoring panel 10 through wires. A shading plate 407 is slidably connected to the receiving groove 4. When performing detection, it is necessary to detect the shape of the inductor coil to determine the shape information and specifications of the inductor coil. The area of ​​the inductor coil and the winding length of the inductor coil can be known by blocking the area of ​​infrared rays, and the winding thickness of the inductor coil can also be indirectly known. In order to avoid interference, the shading plate can be activated to block the external light source.

[0036] The detection component 8 includes a magnetic field generator 801 and a lifting tube 802. The lifting tube 802 is provided with a sliding block 803. The sliding block 803 is sleeved on the lifting tube 802 and is slidably connected to the lifting tube 802. The magnetic field generator 801 is set on the sliding block 803, and the lifting tube 802 is set on the lifting platform 7. The magnetic field generator 801 and the lifting tube 802 are electrically connected to the monitoring panel 10 through wires. An isolation sleeve is set on the body of the detection motor 9. During the detection process, the magnetic field generator will move on the lifting tube and be driven by kinetic energy components such as cylinders or motors. Subsequently, the magnetic field generated by the magnetic field generator will also change, and the magnetic field falling on the inductor will also change, which will eventually cause the current of the inductor to change, and the current changes generated by different thicknesses are also different, so that the wire harness thickness at each position of the inductor can be obtained.

[0037] A detection electrode sheet group 509 and a sliding rod 510 are provided on the second operating table 502, and the detection electrode sheet group 509 and the sliding rod 510 are slidably connected. The detection electrode sheet group 509 is electrically connected to the monitoring panel 10 through a wire, and the sliding rod 510 is slidably connected to the second operating table 502. A support frame 511 is provided in the detection box 1, and the support frame 511 is in sliding contact with the sliding rod 510, and the support frame 511 is slidably connected to the detection box 1. During the detection process, the position of the detection electrode sheet group on the sliding rod is adjusted so that the adjustment motor sheet group is in contact with both ends of the inductor coil harness, and then a magnetic field is generated, and the magnetic field is constantly moving, so that the coil tangent to the magnetic field generates a current, and the current will be captured by the detection electrode sheet group, and the current change generated by the movement of the magnetic field will be transmitted to the monitoring panel. When the detection is completed, the support frame will knock down the fixed inductor coil.

[0038] A flip motor 1101 is arranged on the transfer slide 11, a receiving block 1102 is arranged on the output end of the flip motor 1101, a sliding groove 1103 is arranged on the receiving block 1102, the sliding groove 1103 is rotatably connected with the receiving block 1102 through a spring shaft, a discharge hole is arranged on the detection box 1, a flip rod 1104 is arranged on the discharge hole, the sliding groove 1103 is in sliding contact with the flip rod 1104, after the detection is completed, the inductor coil will be sent to the transfer slide by the internal receiving component, and then the transfer cylinder will drive the transfer slide to move, and after sending it to the discharge hole, the flip motor is started, the flip motor will drive the receiving block to rotate, and the sliding groove will also rotate with the receiving block and send it to the vicinity of the flip rod, the flip rod will block the inductor coil and send it out of the detection box.

[0039] The working principle of the present invention is as follows: when testing, the inductor coil is fed into the discharge port 401, the adaption plate 402 will adapt to the inductor coil, and through the pressing seat 301, the inductor coil will be against the sliding sheet 302, so that the sliding sheet 302 drives the sliding ring 303 to move, and by triggering the sliding switch 304 at a specific position, the shape information of the inductor coil is determined, and the shape information is transmitted to the monitoring panel 10, and the monitoring panel 10 mobilizes the correction motor 405 to rotate, and the correction motor 405 will drive the correction pull plate 406 to rotate Rotate, thereby adjusting the position of the correction plate 404, and then the internal receiving component sends it to the positioning frame 5, the monitoring panel 10 controls the detection motor 9 to drive the first operating table 501 and the second operating table 502 to rotate, and then, in order to adapt to the installation of the inductor coil, the moving motor 504 can be started to drive the lifting gear 506 to rotate, thereby indirectly driving the lifting column 505 to push out the diffusion spring 507, so as to fix the inductor coil, and facing the cylindrical inductor coil, start the electric shaft to fix the clamping piece 508 on the second operating table 502, and When magnetic field detection is required, the internal receiving component is placed and fixed, and then the infrared component 13 is started, and the infrared transmitter 1301 cooperates with the infrared receiving plate 1302. By blocking the area of ​​infrared rays, the area of ​​the inductor coil and the winding length of the inductor coil can be known. At this time, the detection motor 9 rotates to detect the shape changes of each position of the inductor coil. After the infrared component 13 is detected, the detection component 8 will work, and the magnetic field generator 801 will move on the lifting tube 802. Then the magnetic field generated by the magnetic field generator 801 The magnetic field will also change, and the magnetic field falling on the inductor will also change, eventually causing the current in the inductor to change, thereby obtaining the winding thickness of the coil at each position of the coil. After the detection is completed, the inductor will be sent to the transfer slide 11 by the internal receiving component, and then the transfer cylinder 12 will drive the transfer slide 11 to move, and the flip motor 1101 will drive the receiving block 1102 to rotate, and the sliding groove 1103 will also rotate with the receiving block 1102, and send it to the vicinity of the flip rod 1104, and discharge the equipment.

[0040] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device.

[0041] Finally, it should be noted that the above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art can still modify the technical solutions described in the aforementioned embodiments or replace some of the technical features therein by equivalents. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. A length detection device for inductor coil winding, characterized in that: The detection device comprises a detection box (1), wherein a placement slot (2) is arranged in the detection box (1), wherein a profiling component (3) is arranged in the placement slot (2), wherein a receiving slot (4) is arranged in the detection box (1), wherein the receiving slot (4) is connected to the placement slot (2), wherein a positioning frame (5) is arranged at one end of the receiving slot (4) away from the placement slot (2), wherein the positioning frame (5) is electrically connected to the profiling component (3) via a wire, wherein a lifting cylinder (6) is arranged in the detection box (1), wherein a lifting platform (7) is arranged on the output end of the lifting cylinder (6), wherein the lifting platform (7) is provided with a lifting device (8) and a lifting device (9) is provided on the lifting platform (7). A detection component (8) is provided, a detection motor (9) is provided on the positioning frame (5), the detection motor (9) is arranged in a detection box (1), an infrared component (13) is provided in the detection box (1), a monitoring panel (10) is provided in the detection box (1), the detection component (8) and the detection motor (9) are electrically connected to the monitoring panel (10) via a wire, the detection box (1) is provided with a transfer slide (11), the transfer slide (11) is arranged on the output end of a transfer cylinder (12), and the transfer cylinder (12) is arranged in the detection box (1); The infrared component (13) comprises an infrared emitter (1301) and an infrared receiving plate (1302), the infrared emitter (1301) and the infrared receiving plate (1302) being respectively arranged on both sides of the positioning frame (5), the infrared emitter (1301) and the infrared receiving plate (1302) being respectively electrically connected to the monitoring panel (10) via wires, and a light shielding plate (407) being slidably connected to the receiving groove (4); The detection component (8) comprises a magnetic field generator (801) and a lifting tube (802); a sliding block (803) is provided on the lifting tube (802); the sliding block (803) is sleeved on the lifting tube (802) and is slidably connected to the lifting tube (802); the magnetic field generator (801) is arranged on the sliding block (803); the lifting tube (802) is arranged on the lifting platform (7); the magnetic field generator (801) and the lifting tube (802) are electrically connected to the monitoring panel (10) via a wire; and an isolation sleeve is provided on the body of the detection motor (9).

2. The inductor coil winding length detection device according to claim 1, characterized in that: The placement slot (2) is rotatably connected to the detection box (1) via a rotating shaft; a locking buckle (201) is provided on the placement slot (2); a locking slot is provided on the detection box (1); the locking buckle (201) corresponds to the locking slot; a discharge port (401) is provided on the receiving slot (4); a plurality of adaptable plates (402) are provided in the discharge port (401); each of the adaptable plates (402) is rotatably connected to the discharge port (401); the adaptable plates (402) are connected via elastic ropes; and the contouring component (3) is provided on the adaptable plate (402).

3. The inductor coil winding length detection device according to claim 2, characterized in that: The contour component (3) comprises a plurality of pressing seats (301), each of the pressing seats (301) being arranged on a corresponding adaptable plate (402), each of the pressing seats (301) being arranged with a sliding sheet (302), each of the sliding sheets (302) being slidably connected to the corresponding pressing seat (301), a sliding ring (303) being arranged on the sliding sheet (302), a plurality of sliding switches (304) being arranged in the pressing seat (301), each of the sliding switches (304) being in contact with the sliding ring (303), and each of the sliding switches (304) being electrically connected to the monitoring panel (10) via a wire.

4. The inductor coil winding length detection device according to claim 3, characterized in that: A plurality of sliding balls (403) are rotatably connected to the receiving groove (4), correction plates (404) are respectively arranged on both sides of the receiving groove (4), the correction plates (404) are slidably connected to the receiving groove (4), a correction motor (405) and two correction pull plates (406) are arranged on the receiving groove (4), each correction pull plate (406) is respectively provided with teeth, each correction pull plate (406) is respectively meshed with an output end of the correction motor (405), the correction pull plates (406) are respectively connected to the corresponding correction plates (404), and the correction motor (405) is electrically connected to the monitoring panel (10) via a wire.

5. The inductor coil winding length detection device according to claim 1, characterized in that: The positioning frame (5) is provided with a first operating platform (501) and a second operating platform (502); the first operating platform (501) is provided with an interpenetrating column (503); a moving motor (504) and a lifting column (505) are provided inside the interpenetrating column (503); a lifting gear (506) is provided on the moving motor (504); the lifting gear (506) is meshed with teeth on the lifting column (505); a diffusion spring (507) is provided on the interpenetrating column (503); the diffusion spring (507) is in sliding contact with the lifting column (505); a clamping sheet (508) is provided on the second operating platform (502); the clamping sheet (508) is rotationally connected to the second operating platform (502) via an electric shaft; and the moving motor (504) and the electric shaft are electrically connected to the monitoring panel (10) via a wire.

6. The inductor coil winding length detection device according to claim 5, characterized in that: The second operating table (502) is provided with a detection electrode sheet group (509) and a sliding rod (510), the detection electrode sheet group (509) and the sliding rod (510) are slidably connected, the detection electrode sheet group (509) is electrically connected to the monitoring panel (10) via a wire, the sliding rod (510) is slidably connected to the second operating table (502), and a support frame (511) is provided in the detection box (1), the support frame (511) is in slidable contact with the sliding rod (510), and the support frame (511) is slidably connected to the detection box (1).

7. The inductor coil winding length detection device according to claim 1, characterized in that: The transfer slide plate (11) is provided with an inverted motor (1101), the output end of the inverted motor (1101) is provided with a receiving block (1102), the receiving block (1102) is provided with a sliding groove (1103), the sliding groove (1103) is rotatably connected to the receiving block (1102) via a spring shaft, the detection box (1) is provided with a discharge hole, the discharge hole is provided with an inverted rod (1104), and the sliding groove (1103) is in sliding contact with the inverted rod (1104).

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