Square core winding and unwinding mechanism
By designing a multi-module collaborative mechanism for pushing and pulling wires to complete the winding of square magnetic cores, the problems of high winding complexity and difficulty in adjusting wire leads were solved, achieving efficient winding and precise wire lead positioning.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2023-04-12
- Publication Date
- 2026-04-14
AI Technical Summary
In existing technologies, the winding process of square magnetic cores is complex, requiring separate winding and assembly, resulting in low efficiency and high cost. At the same time, adjusting the pins is difficult and it is hard to meet the requirements of subsequent soldering processes.
A mechanism was designed that includes a conveying base plate, a wire pushing and winding base mold device, a wire pushing and winding upper mold device, a wire pulling upper mold device, and a wire assembling upper mold device. Through the coordinated work of multiple modules of wire pushing, wire pulling, and wire assembling, efficient winding and wire positioning of square magnetic cores can be achieved.
It improves winding efficiency and accuracy, simplifies the process, and ensures that the wire leads are accurately positioned at both ends of the magnetic core to meet the requirements of subsequent processes.
Smart Images

Figure CN116364409B_ABST
Abstract
Description
Technical Field
[0001] This invention relates to a square magnetic core winding and pulling wire assembly mechanism. Background Technology
[0002] Square magnetic cores are named for their square shape, formed by two parallel core pillars. Traditionally, winding these cores using conventional hook winding methods is difficult because the winding of one core is blocked by the other, hindering completion. Therefore, a common practice is to separate the two core pillars, winding each pillar individually before reassembling them. However, this method divides the winding process into three steps: left winding, right winding, and assembly, significantly increasing complexity, equipment costs, and overall efficiency. Furthermore, the wound core requires wire pulling and alignment to position the wire into clamps at both ends for subsequent soldering. Therefore, designing a mechanism that sequentially pushes the wire through the two core pillars of a square magnetic core, pulls it into place, and clamps the wire into the clamps is essential. Summary of the Invention
[0003] The technical problem to be solved by the present invention is to overcome the shortcomings of the prior art and provide a square magnetic core pushing and pulling wire assembling mechanism that can sequentially push and form wire winding, pull wire feet into place, and press wire feet of a square magnetic core with two core pillars.
[0004] The technical solution adopted in this invention is as follows: This invention includes a conveying base plate, a conveying top plate, a bottom mold conveying device, a wire pushing and winding bottom mold device, a wire pushing and winding upper mold device, a wire pulling upper mold device, and a complete upper mold device. The conveying top plate is adapted and fixedly disposed above the conveying base plate. The bottom mold conveying device is adapted and disposed on the conveying base plate. The wire pushing and winding bottom mold device is adapted and movably disposed on the bottom mold conveying device and adapted and movably disposed above the bottom mold lifting device. The wire pushing and winding upper mold device, the wire pulling upper mold device, and the complete upper mold device are sequentially adapted and fixedly disposed on the conveying top plate. The wire pushing and winding bottom mold device is adapted and movably disposed below the wire pushing and winding upper mold device, the wire pulling upper mold device, and the complete upper mold device.
[0005] The bottom mold conveying device includes a bottom mold conveying electric cylinder, a bottom mold conveying parallel track, a bottom mold electric cylinder conveying component, and a bottom mold conveying driven component. The bottom mold conveying electric cylinder and the bottom mold conveying parallel track are adapted to and fixedly mounted on the conveying base plate. The bottom mold electric cylinder conveying component is adapted to and movably connected to the output end of the bottom mold conveying electric cylinder. The bottom mold conveying driven component is adapted to and movably mounted on the bottom mold conveying parallel track.
[0006] The push-and-wind bottom mold device includes a bottom mold base and a bottom mold adapted to be disposed within the bottom mold base. The bottom mold is provided with a bottom mold product placement slot, a bottom mold angled wire inlet channel, and a bottom mold first-round wire inlet guide groove. The bottom mold angled wire inlet channel is adapted to be disposed on both sides of the bottom mold product placement slot. The bottom mold first-round wire inlet guide groove is adapted to be disposed in the lower section of the bottom mold product placement slot and is adapted to correspond to the wire outlet end of the bottom mold angled wire inlet channel. An angled wire inlet wing plate is adapted to be inserted on the bottom mold base. The angled wire inlet wing plate includes an upper wing plate and a lower wing plate. A wire inlet guide channel is provided between the upper wing plate and the lower wing plate. The wire outlet end of the wire inlet guide channel is adapted to be connected to the wire inlet end of the bottom mold angled wire inlet channel. The bottom ends of the bottom mold base are respectively adapted to be fixedly disposed on the bottom mold electric cylinder conveying component and the bottom mold conveying driven component.
[0007] The wire pushing and winding upper die device includes a first pressing cylinder, a wire pushing and winding upper die cover, and a wire pushing and winding upper die. The first pressing cylinder is fixedly mounted on the conveying top plate, and its output end passes vertically downward through the conveying top plate. The wire pushing and winding upper die cover is adapted and fixedly connected to the output end of the first pressing cylinder. The wire pushing and winding upper die is adapted and disposed inside the wire pushing and winding upper die cover. The bottom die is adapted and movably positioned below the wire pushing and winding upper die. The wire pushing and winding upper die is provided with an upper die product placement slot, an upper die angled wire inlet channel, and an upper die first-round wire inlet guide arc groove. The upper die angled wire inlet channel is adapted and separately disposed. On both sides of the upper mold product placement slot, the upper mold first-round wire inlet guide arc groove is adapted to be disposed in the lower section of the upper mold product placement slot and is adapted to correspond with the exit end of the upper mold angled wire inlet channel. The bottom mold product placement slot is adapted to correspond with the upper mold product placement slot. The bottom mold angled wire inlet channel is adapted to correspond with the upper mold angled wire inlet channel. The exit end of the wire inlet guide channel is adapted to connect with the inlet end of the upper mold angled wire inlet channel. The bottom mold first-round wire inlet guide groove is adapted to correspond with the upper mold first-round wire inlet guide arc groove. The bottom mold first-round wire inlet guide groove and the upper mold first-round wire inlet guide arc groove cooperate to form the first-round lead wire thread groove.
[0008] The upper die pulling device includes a second pressing cylinder, an upper die pulling cover, an upper die pulling, an upper die pulling cylinder, and upper die pulling components. The second pressing cylinder is fixedly mounted on the conveying top plate, and its output end passes vertically through the conveying top plate. The upper die pulling cover is fixedly connected to the output end of the second pressing cylinder. The upper die pulling is adapted to be mounted inside the upper die pulling cover. The bottom die is adapted to be movably positioned below the push-and-winding upper die. The two upper die pulling cylinders are adapted to be fixedly and horizontally inserted on both sides of the upper die pulling cover. The two upper die pulling components are adapted to be movably mounted inside the upper die pulling cover and are adapted to be movably inserted into the push-and-winding upper die. The two upper die pulling components are respectively fixedly connected to the output ends of the two upper die pulling cylinders.
[0009] The upper mold puller includes a first upper mold puller and a second upper mold puller. The connecting end of the first upper mold puller is fixedly connected to the output end of one of the upper mold puller cylinders, and the connecting end of the second upper mold puller is fixedly connected to the output end of another upper mold puller cylinder. The puller ends of the first upper mold puller and the puller ends of the second upper mold puller are placed vertically side by side inside the upper mold puller.
[0010] The online mold assembly includes a third pressing cylinder, an online mold cover, and an online mold component. The third pressing cylinder is fixedly mounted on the conveying top plate, and its output end passes vertically through the conveying top plate. The online mold cover is fixedly connected to the output end of the third pressing cylinder. The online mold component is connected to the online mold cover via a buffer spring. The bottom mold is correspondingly movably positioned below the online mold component.
[0011] The online mold includes an online mold top connecting block and four online molding feet. The four online molding feet are evenly and vertically arranged at the bottom of the online mold top connecting block, and each online molding foot has a pressing online molding position at its bottom end.
[0012] Beneficial effects: In this invention, a push-and-wind bottom mold device is used in conjunction with a push-and-wind top mold device to complete the self-forming winding of the wire segment onto the square magnetic core within the module. This eliminates the need for separate winding and reassembly of the two cores of the square magnetic core, effectively improving winding efficiency and accuracy. The pull-up top mold device and the push-and-wind bottom mold device work together to pull the wire leads toward both ends of the square magnetic core, so that the wire leads are initially positioned above the metal clips at both ends of the square magnetic core. Finally, the whole top mold device and the push-and-wind bottom mold device work together to ensure that the wire leads are completely placed within the metal clips at both ends of the square magnetic core. Attached Figure Description
[0013] Figure 1 This is a schematic diagram of a partial assembly structure of the present invention in an external integrated device;
[0014] Figure 2 This is a schematic diagram of the combined structure of the push-and-wind bottom mold device and the push-and-wind upper mold cover of the present invention;
[0015] Figure 3 This is a schematic diagram of the push-and-wind bottom mold device of the present invention;
[0016] Figure 4 yes Figure 3 Enlarged view of section A (labeled A);
[0017] Figure 5 This is a top view schematic diagram of the structure of the push-and-wind bottom mold device of the present invention;
[0018] Figure 6 Figure 5 Enlarged view of section B (the number in the diagram);
[0019] Figure 7 This is a bottom view schematic diagram of the push-wire winding upper mold cover structure of the present invention;
[0020] Figure 8 This is a schematic diagram of the combined three-dimensional structure of the upper mold cover, upper mold, upper mold pulling cylinder, and upper mold pulling component of the upper mold pulling device in this invention.
[0021] Figure 9 This is a schematic diagram of the combined three-dimensional structure of the upper die, the upper die pulling cylinder, and the upper die pulling component of the upper die pulling device in this invention.
[0022] Figure 10 This is a schematic diagram of the combined three-dimensional structure of the upper mold wire pulling cylinder and the upper mold wire pulling component of the wire pulling device in this invention;
[0023] Figure 11 This is a side view of the combined upper die wire pulling cylinder and upper die wire pulling component of the wire pulling die device in this invention;
[0024] Figure 12 This is a schematic diagram of the combined structure of the push-winding bottom mold device and the upper mold cover of the present invention;
[0025] Figure 13 This is a schematic diagram of the combined structure of the push-winding bottom mold device and the whole-line mold of the present invention;
[0026] Figure 14 yes Figure 13 Enlarged view of section E (Chinese character symbol);
[0027] Figure 15 This is a schematic diagram of the overall structure of the online module of the present invention. Detailed Implementation
[0028] like Figures 1 to 15 As shown, the present invention includes a conveying base plate 1, a conveying top plate 2, a bottom mold conveying device, a wire pushing and winding bottom mold device, a wire pushing and winding upper mold device, a wire pulling upper mold device, and a complete upper mold device. The conveying top plate 2 is adapted and fixedly disposed above the conveying base plate 1. The bottom mold conveying device is adapted and disposed on the conveying base plate 1. The wire pushing and winding bottom mold device is adapted and movably disposed on the bottom mold conveying device and adapted and movably disposed above the bottom mold lifting device. The wire pushing and winding upper mold device, the wire pulling upper mold device, and the complete upper mold device are sequentially adapted and fixedly disposed on the conveying top plate 2. The wire pushing and winding bottom mold device is adapted and movably disposed below the wire pushing and winding upper mold device, the wire pulling upper mold device, and the complete upper mold device.
[0029] The bottom mold conveying device includes a bottom mold conveying electric cylinder 31, a bottom mold conveying parallel track 32, a bottom mold electric cylinder conveying component 33, and a bottom mold conveying driven component 34. The bottom mold conveying electric cylinder 31 and the bottom mold conveying parallel track 32 are adapted to and fixedly mounted on the conveying base plate 1. The bottom mold electric cylinder conveying component 33 is adapted to be movably connected to the output end of the bottom mold conveying electric cylinder 31. The bottom mold conveying driven component 34 is adapted to be movably mounted on the bottom mold conveying parallel track 32.
[0030] The wire pushing and winding die device includes a die base 41 and a die 42 adapted to be disposed within the die base 41. The die 42 is provided with a die product placement slot 421, a die angled wire inlet channel 422, and a die first-round wire inlet guide groove 423. The die angled wire inlet channel 422 is adapted to be disposed on both sides of the die product placement slot 421. The die first-round wire inlet guide groove 423 is adapted to be disposed in the lower section of the die product placement slot 421 and corresponds to the wire outlet end of the die angled wire inlet channel 422. An angled wire inlet wing plate 45 is adapted to be inserted on the bottom mold base 41. The angled wire inlet wing plate 45 includes an upper wing plate 451 and a lower wing plate 452. A wire inlet guide channel 453 is provided between the upper wing plate 451 and the lower wing plate 452. The wire outlet end of the wire inlet guide channel 453 is adapted to be connected to the wire inlet end of the bottom mold angled wire inlet channel 422 and the wire inlet end of the upper mold angled wire inlet channel 422. The bottom ends of the bottom mold base 41 are respectively adapted to be fixedly mounted on the bottom mold electric cylinder conveying component 33 and the bottom mold conveying driven component 34.
[0031] The wire pushing and winding upper die device includes a first pressing cylinder 51, a wire pushing and winding upper die cover 52, and a wire pushing and winding upper die 53. The first pressing cylinder 51 is fixedly mounted on the conveying top plate 2, and its output end passes vertically downward through the conveying top plate 2. The wire pushing and winding upper die cover 52 is adapted and fixedly connected to the output end of the first pressing cylinder 51. The wire pushing and winding upper die 53 is adapted and mounted inside the wire pushing and winding upper die cover 52. The bottom die 42 is adapted and movably positioned below the wire pushing and winding upper die 53. The wire pushing and winding upper die 53 is provided with an upper die product placement slot 531, an upper die angled wire inlet channel 532, and an upper die first-round wire inlet guide arc groove 533. The upper mold angled inlet channel 532 is adapted to be distributed on both sides of the upper mold product placement slot 531. The upper mold first ring inlet guide arc groove 533 is adapted to be disposed in the lower section of the upper mold product placement slot 531 and is adapted to be corresponding to the outlet end of the upper mold angled inlet channel 532. The bottom mold product placement slot 421 is adapted to be corresponding to the upper mold product placement slot 531. The bottom mold angled inlet channel 422 is adapted to be corresponding to the upper mold angled inlet channel 532. The bottom mold first ring inlet guide groove 423 is adapted to be corresponding to the upper mold first ring inlet guide arc groove 533. The bottom mold first ring inlet guide groove 423 and the upper mold first ring inlet guide arc groove 533 cooperate to form the first ring lead thread groove.
[0032] The wire pulling die device includes a second pressing cylinder 61, a wire pulling die cover 62, a wire pulling die 63, an upper die wire pulling cylinder 64, and upper die wire pulling components. The second pressing cylinder 61 is fixedly mounted on the conveying top plate 2, and its output end passes vertically through the conveying top plate 2. The wire pulling die cover 62 is fixedly connected to the output end of the second pressing cylinder 61. The wire pulling die 63 is adapted to be installed inside the wire pulling die cover 62. The bottom die 42 is adapted to be movably positioned below the wire pushing and winding upper die 53. The two upper die wire pulling cylinders 64 are adapted to be fixedly and horizontally inserted on both sides of the wire pulling die cover 62. The two upper die wire pulling components are adapted to be movably installed inside the wire pulling die cover 62 and adapted to be movably inserted inside the wire pushing and winding upper die 53. The two upper die wire pulling components are respectively fixedly connected to the output ends of the two upper die wire pulling cylinders 64.
[0033] The upper die pull assembly includes a first upper die pull assembly 1 and a second upper die pull assembly 2. The connecting end of the first upper die pull assembly 1 is fixedly connected to the output end of an upper die pull cylinder 64, and the connecting end of the second upper die pull assembly 2 is fixedly connected to the output end of another upper die pull cylinder 64. The pull ends of the first upper die pull assembly 1 and the pull ends of the second upper die pull assembly 2 are placed vertically side by side in the upper die 63.
[0034] The online mold assembly includes a third pressing cylinder, an online mold cover 72, and an online mold component 73. The third pressing cylinder is adapted and fixedly mounted on the conveying top plate 2. The output end of the third pressing cylinder passes vertically through the conveying top plate 2. The online mold cover 72 is fixedly connected to the output end of the third pressing cylinder. The online mold component 73 is adapted and connected inside the online mold cover 72 through a buffer spring 74. The bottom mold 42 is adapted and movably positioned below the online mold component 73.
[0035] The online mold 73 includes an online mold top connecting block 731 and four online mold feet 732. The four online mold feet 732 are evenly and vertically arranged at the bottom of the online mold top connecting block 731, and each online mold foot 732 has a pressing online position 733 at its bottom end.
[0036] During work:
[0037] The square magnetic core 8 is fitted onto the bottom mold 42. Then, the upper mold cover 52, driven by the first pressing cylinder 51, presses the cover onto the bottom mold base 41, i.e., the upper mold 53 is fitted onto the bottom mold 42. At the same time, the upper mold product placement slot 531 is fitted onto the square magnetic core 8. The external wire feeding equipment feeds the wire into the wire guide channel 453 of the angled wire feeding wing plate 45. The wire 9 enters the angled wire feeding channel and the first lead wire thread groove of the module in sequence through the wire feeding guide channel 453. The first section of the wire 9 advances along the first lead wire thread groove and forms a layer of threaded coil around the product magnetic core column, wrapping the magnetic core column of the product. The external wire feeding device continuously feeds and pushes the wire, which advances along the first lead thread groove and forms a threaded coil around the product's magnetic core pillar. The already formed threaded coil rotates and rises along the product's magnetic core pillar under the push of the subsequent forming until the entire thread surrounds the product's magnetic core pillar, completing the wire pushing and winding forming of the two magnetic core pillars of the square magnetic core 8. Then, the wire pushing and winding upper mold cover 52 is reset under the action of the first pressing cylinder 51.
[0038] The bottom mold conveying cylinder 31 drives the bottom mold base 41 to move below the upper mold cover 62. The second pressing cylinder 61 drives the upper mold cover 62 to press down onto the bottom mold base 41, so that the upper mold 63 is pressed onto the bottom mold 42. At this time, the pull end of the first upper mold pull member 1 and the pull end of the second upper mold pull member 2 are respectively placed between the horizontally placed wires at both ends of the square magnetic core 8. Then, the two upper mold pull cylinders 64 start simultaneously and drive the first upper mold pull member 1 and the second upper mold pull member 2 to separate. During the separation process, the pull end of the first upper mold pull member 1 and the pull end of the second upper mold pull member 2 respectively straighten the wires at both ends of the square magnetic core 8, so that the ends of the wires at both ends are vertically distributed along the two ends of the square magnetic core 8, completing the wire pulling action of the wires at both ends of the square magnetic core 8. Then, the upper mold cover 62 is reset under the action of the second pressing cylinder 61.
[0039] The bottom mold conveying cylinder 31 drives the bottom mold base 41 to move below the upper mold cover 72. The third pressing cylinder drives the upper mold cover 72 to press down onto the bottom mold base 41, so that the upper mold component 73 is pressed onto the bottom mold 42. During the pressing process, the four wire leads 732 on the upper mold component 73 are respectively aligned with the four wire leads on both ends of the square magnetic core 8 and the four metal clips 81 on both ends of the square magnetic core 8. In the early stage of the pressing process, the four wire leads fall into the four pressing wire positions 733 along the curved edge of the pressing wire position 733. In the later stage of the pressing process, the four wire leads are respectively guided by the four pressing wire positions 733 and pressed into the four metal clips 81 on both ends of the square magnetic core 8, completing the wire assembly action. Finally, the upper mold cover 72 is reset under the action of the third pressing cylinder. During the pressing process, the buffer spring 74 acts as a buffer for the mold 73 on the whole line, preventing the mold 73 on the whole line from pressing hard on the bottom mold 42 and damaging the square magnetic core 8.
[0040] This invention is applicable to the field of square magnetic core winding.
Claims
1. A square magnetic core winding, pulling, and coiling mechanism, characterized in that: The device includes a conveying base plate (1), a conveying top plate (2), a bottom mold conveying device, a wire pushing and winding bottom mold device, a wire pushing and winding upper mold device, a wire pulling upper mold device, and a complete upper mold device. The conveying top plate (2) is adapted and fixedly installed above the conveying base plate (1). The bottom mold conveying device is adapted and installed on the conveying base plate (1). The wire pushing and winding bottom mold device is adapted and movably installed on the bottom mold conveying device and adapted and movably placed above the bottom mold lifting device. The wire pushing and winding upper mold device, the wire pulling upper mold device, and the complete upper mold device are sequentially adapted and fixedly installed on the conveying top plate (2). The wire pushing and winding bottom mold device is adapted and movably placed below the wire pushing and winding upper mold device, the wire pulling upper mold device, and the complete upper mold device. The bottom mold conveying device includes a bottom mold conveying electric cylinder (31), a bottom mold conveying parallel track (32), a bottom mold electric cylinder conveying component (33), and a bottom mold conveying driven component (34). The bottom mold conveying electric cylinder (31) and the bottom mold conveying parallel track (32) are adapted to be fixedly arranged side by side on the conveying base plate (1). The bottom mold electric cylinder conveying component (33) is adapted to be movably connected to the output end of the bottom mold conveying electric cylinder (31). The bottom mold conveying driven component (34) is adapted to be movably arranged on the bottom mold conveying parallel track (32). The push-winding bottom mold device includes a bottom mold base (41) and a bottom mold (42) adapted to be disposed in the bottom mold base (41). The bottom mold (42) is provided with a bottom mold product placement slot (421), a bottom mold angled wire inlet channel (422), and a bottom mold first-round wire inlet guide groove (423). The bottom mold angled wire inlet channel (422) is adapted to be disposed on both sides of the bottom mold product placement slot (421). The bottom mold first-round wire inlet guide groove (423) is adapted to be disposed in the lower section of the bottom mold product placement slot (421) and is connected to the wire outlet end of the bottom mold angled wire inlet channel (422). Correspondingly, an angled wire inlet wing plate (45) is fitted and inserted on the bottom mold base (41). The angled wire inlet wing plate (45) includes an upper wing plate (451) and a lower wing plate (452). A wire inlet guide channel (453) is provided between the upper wing plate (451) and the lower wing plate (452). The wire outlet end of the wire inlet guide channel (453) is adapted and connected to the wire inlet end of the angled wire inlet channel (422) of the bottom mold. The bottom ends of the bottom mold base (41) are respectively adapted and fixedly installed on the bottom mold electric cylinder conveying component (33) and the bottom mold conveying driven component (34).
2. The square magnetic core pushing, pulling, and winding mechanism according to claim 1, characterized in that: The wire pushing and winding upper mold device includes a first pressing cylinder (51), a wire pushing and winding upper mold cover (52), and a wire pushing and winding upper mold (53). The first pressing cylinder (51) is fixedly mounted on the conveying top plate (2). The output end of the first pressing cylinder (51) passes vertically downward through the conveying top plate (2). The wire pushing and winding upper mold cover (52) is adapted and fixedly connected to the output end of the first pressing cylinder (51). The wire pushing and winding upper mold (53) is adapted and mounted inside the wire pushing and winding upper mold cover (52). The bottom mold (42) is adapted and movably positioned below the wire pushing and winding upper mold (53). The wire pushing and winding upper mold (53) is provided with an upper mold product placement slot (531), an upper mold angled wire inlet channel (532), and an upper mold first-round wire inlet guide arc groove (533). The upper mold angled wire inlet channel (532) is adapted to... The upper mold product placement slot (531) is located on both sides of the upper mold product placement slot (531). The upper mold first-ring inlet guide arc groove (533) is adapted to be located in the lower section of the upper mold product placement slot (531) and is adapted to be corresponding to the outlet end of the upper mold angled inlet channel (532). The lower mold product placement slot (421) is adapted to be corresponding to the upper mold product placement slot (531). The lower mold angled inlet channel (422) is adapted to be corresponding to the upper mold product placement slot (531). The angled inlet channel (532) is adapted to the corresponding inlet guide channel (453), and the outlet end of the inlet guide channel (453) is adapted to the inlet end of the angled inlet channel (532) of the upper mold. The first ring inlet guide groove (423) of the bottom mold is adapted to the first ring inlet guide arc groove (533) of the upper mold. The first ring inlet guide groove (423) of the bottom mold and the first ring inlet guide arc groove (533) of the upper mold cooperate to form the first ring lead thread groove.
3. The square magnetic core pushing, pulling, and winding mechanism according to claim 1, characterized in that: The upper die-pulling device includes a second pressing cylinder (61), an upper die-pulling cover (62), an upper die (63), an upper die pulling cylinder (64), and an upper die pulling component. The second pressing cylinder (61) is fixedly mounted on the conveying top plate (2), and the output end of the second pressing cylinder (61) passes vertically through the conveying top plate (2). The upper die-pulling cover (62) is fixedly connected to the output end of the second pressing cylinder (61), and the upper die (63) is adapted to be mounted on the upper die. Inside the online mold cover (62), the bottom mold (42) is adapted to be movably placed below the push-and-wind upper mold (53), and the two upper mold pull cylinders (64) are adapted to be fixedly and horizontally inserted on both sides of the pull upper mold cover (62). The two upper mold pull parts are adapted to be movably disposed inside the pull upper mold cover (62) and adapted to be movably inserted inside the push-and-wind upper mold (53). The two upper mold pull parts are respectively fixedly connected to the output ends of the two upper mold pull cylinders (64).
4. The square magnetic core winding and pulling mechanism and wire assembly mechanism according to claim 3, characterized in that: The upper mold puller includes a first upper mold puller (651) and a second upper mold puller (652). The connecting end of the first upper mold puller (651) is fixedly connected to the output end of one of the upper mold puller cylinders (64), and the connecting end of the second upper mold puller (652) is fixedly connected to the output end of another upper mold puller cylinder (64). The puller ends of the first upper mold puller (651) and the puller ends of the second upper mold puller (652) are placed vertically side by side in the upper mold puller (63).
5. The square magnetic core pushing, pulling, and winding mechanism according to claim 1, characterized in that: The online mold assembly includes a third pressing cylinder, an online mold cover (72), and an online mold component (73). The third pressing cylinder is adapted and fixedly mounted on the conveying top plate (2). The output end of the third pressing cylinder passes vertically through the conveying top plate (2). The online mold cover (72) is fixedly connected to the output end of the third pressing cylinder. The online mold component (73) is adapted and connected inside the online mold cover (72) through a buffer spring (74). The bottom mold (42) is adapted and movably positioned below the online mold component (73).
6. The square magnetic core pushing, pulling, and winding mechanism according to claim 5, characterized in that: The online mold (73) includes an online mold top connecting block (731) and four online molding feet (732). The four online molding feet (732) are evenly and vertically arranged at the bottom of the online mold top connecting block (731). Each online molding foot (732) has a pressing online molding position (733) at its bottom end.
Citation Information
Patent Citations
Automatic feeding stranded wire winding device
CN112837927A
Full-automatic wire feeding device applied to inductor winding
CN113903595A
Winding machine of common mode choke magnetic core
CN114664559A
Intelligent spiral common mode inductance coiling machine
CN205069371U
Square magnetic core wire pushing, winding, pulling and arranging mechanism
CN220020870U