A central high H355-H630 high voltage motor winding stator core wire embedding equipment

Abstract

The present application relates to a device for inserting windings into a stator core of a center height H355-H630 high-voltage motor, and relates to the technical field of motor assembly. The device comprises a workbench, two support seats being slidably connected to the workbench, a first bidirectional lead screw being rotatably connected to the end face of the workbench, the two support seats being both threadedly connected to the first bidirectional lead screw, the two support seats sliding in opposite directions along the axis of the first bidirectional lead screw, a first support frame and a second support frame being slidably connected to the two support frames, the second bidirectional lead screw being actively connected to the two support frames, the first support frame and the second support frame being both threadedly connected to the second bidirectional lead screw, the first support frame and the second support frame sliding in opposite directions along the axis of the second bidirectional lead screw, a first support wheel being rotatably connected to the upper end of the first support frame, and a second support wheel being rotatably connected to the upper end of the second support frame. The present application has the effect of improving the adaptability of the equipment and reducing quality problems.

Description

Technical Field

[0001] The present application relates to the technical field of motor assembly, and in particular to a device for inserting wires into a stator core of a centrally located H355-H630 high-voltage motor with windings. Background Art

[0002] The center height H355-H630 high voltage motor refers to a high voltage motor with a vertical distance from the axis to the plane of the motor base ranging from 355 mm to 630 mm. It is mainly used in industrial fields, such as driving water pumps, fans, compressors and other equipment. During the motor manufacturing process, the stator coil needs to be embedded in the stator wire slots of the motor to form the stator winding of the motor. Wire embedding is a very important link in the motor winding rewinding process, and it is also a meticulous work. At present, the stator wire embedding of existing medium and large motors is basically completed on the ground or on a steel structure platform. In order to facilitate the workers to operate the wire embedding, the motor stator wire embedding position must always be kept in the area under the operator's hand that can be touched, and it needs to be achieved by flipping the motor stator along the central axis. Figure 1 There are stator ribs 101 on the outer diameter of the stator of the center high H355-H630 high voltage motor. The stator core 100 is heavy. It is difficult to manually flip and carry it during wire embedding, which has low production efficiency and high labor intensity. Moreover, it is easy to cause damage to the insulation of the formed coil during wire embedding, affecting the electrical performance of the motor.

[0003] For related technologies, please refer to the Chinese patent with the announcement number CN207753586U, which discloses a motor stator winding embedding tool. The tool includes a support base and a rotating frame for installing the motor stator. The support base includes two vertically arranged and detachably connected support plates. Each support plate is provided with two rolling bearings. The rotating frame is located between the two support plates and is rotatably supported on the rolling bearings. Each support plate is also provided with two latch holes. The two latch holes are located on the outside of the rolling bearings. Each latch hole is provided with a pluggable limit latch. When in use, the motor stator is first installed on the rotating frame. The rotating frame is rotated on the rolling bearings on the support base by external force. After the rotating frame rotates into place, the limit latch is inserted and removed from the latch hole to complete the temporary fixation of the rotating frame. At this time, the winding embedding work of the motor stator can be carried out.

[0004] Regarding the above-mentioned related technologies, the relative distance between the two support plates is fixed and can only be used to embed stator cores of the same length. At the same time, the distance between the two rolling bearing axes is also fixed. When the outer diameter of the stator core is large, the stator core is easily eccentric due to its own gravity during the placement or rotation of the stator core, and falls from the rolling bearing, thereby causing quality problems. Summary of the Invention

[0005] In order to improve the adaptability of the equipment to stator cores of different sizes and reduce quality problems, the present application provides a center height H355-H630 high voltage motor winding stator core wire embedding equipment.

[0006] This application provides a central high-voltage H355-H630 motor winding stator core wire embedding equipment, which adopts the following technical solutions:

[0007] A center height H355-H630 high-voltage motor has a winding stator core embedding device, including a workbench, two support seats are slidably connected to the workbench, the end surface of the workbench is rotatably connected to a first bidirectional screw, the two support seats are both threadedly connected to the first bidirectional screw, the two support seats slide in opposite directions along the axis of the first bidirectional screw, one end of the first bidirectional screw is provided with a first rotating device, the two support seats are both slidably connected to a first support frame and a second support frame, the two support seats are actively connected to a second bidirectional screw, the first support frame and the second support frame are both threadedly connected to the second bidirectional screw, the first support frame and the second support frame slide in opposite directions along the axis of the second bidirectional screw, and one end of the second bidirectional screw is provided with a second The rotating device, the axes of the first bidirectional screw and the second bidirectional screw are perpendicular to each other, the upper end of the first support frame is rotatably connected to the first support wheel, and the upper end of the second support frame is rotatably connected to the second support wheel, the outer walls of the first support wheel and the second support wheel are both provided with an annular groove, and a rotating ring for being sleeved on the outer wall of the stator iron core is provided between the first support wheel and the second support wheel, the outer wall of the rotating ring abuts against the annular groove, and a plurality of rib grooves for matching with the stator ribs on the outer wall of the stator iron core are provided on the rotating ring, the axial directions of the first support wheel and the second support wheel are parallel to the sliding direction of the support seat, the first support wheel is coaxially fixedly connected to the driving shaft, and one end of the driving shaft is connected to a driving device that drives the first support wheel to rotate.

[0008] By adopting the above technical solution, the stator core winding embedding equipment for the high-voltage H355-H630 motor can achieve rapid adjustment and positioning of the stator core. The two support seats on the workbench can slide in opposite directions along their axial direction through the first bidirectional screw, so as to adapt to the stator core embedding requirements of different lengths along the axial direction, thereby improving the adaptability of the equipment. The first support frame and the second support frame slide in opposite directions along their axial direction through the second bidirectional screw, so that the first support wheel and the second support wheel can accurately adjust the spacing to adapt to stator cores of different diameters, thereby improving the adaptability of the equipment, ensuring stable support of the stator core during the embedding process, and ensuring that the stator core does not shift when it is placed on the first support wheel and the second support wheel for rotation, thereby reducing the phenomenon of the stator core falling due to eccentricity caused by its own gravity during rotation, and reducing quality problems caused by falling. The rotating rings arranged on the first support wheel and the second support wheel are adapted to the stator ribs on the outer wall of the stator core. The driving device drives the first support wheel to rotate through the active shaft, thereby driving the rotating ring to rotate, and then driving the stator core to rotate, reducing manual handling and flipping, reducing labor intensity, and improving wire embedding efficiency.

[0009] Optionally, two coaxial first bearing seats are provided at the upper end of the first support frame, the first support wheel is located between the two first bearing seats, the first support wheels extend from both ends of the driving shaft and are coaxially rotatably connected to the first bearing seats, the driving device is located on the side of the first bearing seat away from the first support wheel, and two coaxial second bearing seats are provided at the upper end of the second support frame, the second support wheel is located between the two second bearing seats, the second support wheel is coaxially fixedly connected to the driven shaft, the second support wheels extend from both ends of the driven shaft and are coaxially rotatably connected to the second bearing seats.

[0010] By adopting the above technical solution, the arrangement of the first bearing seat and the second bearing seat makes the rotation of the first support wheel and the second support wheel more stable, enhances the stability of the stator core when the rotating ring drives the rotation, helps to improve the wire embedding accuracy, and reduces the possibility of stator coil insulation damage.

[0011] Optionally, the driving device includes a rotating rod, a chain, a first sprocket, a second sprocket, a handle link and a handle grip, one end of the rotating rod is rotatably connected to the first support frame, the axial directions of the rotating rod and the driving shaft are parallel to each other, one end of the handle link is fixedly connected to the handle grip, the end of the handle link away from the handle grip is fixedly connected to the rotating rod, the handle grip is located on the side of the handle link away from the first support frame, the driving shaft is coaxially fixedly connected to the first sprocket, the rotating rod is coaxially fixedly connected to the second sprocket, and the first sprocket and the second sprocket are both engaged with the chain.

[0012] By adopting the above technical solution, the handle connecting rod is fixedly connected to the handle grip, and the end of the handle connecting rod away from the handle grip is fixedly connected to the rotating rod, so that the operator can drive the rotating rod to rotate by rotating the handle grip, and drive the driving shaft to rotate through the first sprocket, the second sprocket and the chain, thereby realizing flexible rotation of the first support wheel, facilitating the stable wire embedding operation of the motor stator core, improving work efficiency and reducing labor intensity.

[0013] Optionally, a positioning rod is inserted into the handle connecting rod, and the positioning rod is located between the handle grip and the rotating rod. The axial direction of the positioning rod is parallel to the axial direction of the driving shaft. A plurality of positioning holes are opened on the first support frame, and the plurality of positioning holes are evenly arranged along the circumference of the first support wheel.

[0014] By adopting the above technical solution, the setting of the positioning rod enables the handle connecting rod to be locked at different angles, which makes it easy to adjust the handle position according to actual needs, thereby improving operational convenience and wire embedding work efficiency.

[0015] Optionally, a retaining ring is fixedly provided on the outer wall of the positioning rod, and the retaining ring is located between the handle connecting rod and the first support frame. An elastic member is provided between the retaining ring and the handle connecting rod, and the elastic member is sleeved on the outer wall of the positioning rod. A limit block is fixedly provided on the end of the positioning rod away from the first support frame, and the outer diameter of the limit block is larger than the outer diameter of the positioning rod. The elastic member is in a natural state, one end of the positioning rod is inserted into the positioning hole, and the end of the limit block close to the first support frame abuts against the end of the handle connecting rod away from the first support frame.

[0016] By adopting the above technical solution, the retaining ring and the elastic part are set, so that the elastic part of the positioning rod is inserted into the first support frame in a natural state, preventing the positioning rod from axial movement during use, and at the same time can realize rapid positioning of the positioning rod and the first support frame when the handle is rotated; the setting of the limit block is used to limit the positioning rod, preventing the positioning rod from falling from the side of the handle connecting rod close to the first support frame, ensuring the position stability of the positioning rod when inserted into the positioning hole, ensuring the reliable fixation of the handle connecting rod at different angles, and improving the stability of the equipment and the convenience of operation during the embedding process.

[0017] Optionally, the upper end surface of the workbench is provided with two guide rails, and the upper end surface of the workbench is provided with two guide rails and two support rods, the upper end surfaces of the guide rails and the support rods are both abutted against the lower end surface of the support seat, the two guide rails are respectively arranged at the two ends of the support seat along the sliding direction of the first support wheel, the two support rods are respectively located on both sides of the second bidirectional screw, and the upper end surface of the guide rail is provided with a first limiting groove along the sliding direction of the support seat, and each support seat is provided with a first locking block, a first locking nut and a first locking bolt at one end close to the driving device, the first locking nut is slidably connected to the guide rail along the sliding direction of the support seat in the first limiting groove, and the threaded end of the first locking bolt passes through the first locking block and is threadedly connected to the first locking nut.

[0018] By adopting this technical solution, the two guide rails and two support rods provided on the upper end surface of the workbench support the support base. The support rods also reduce the risk of the support base bending due to the weight of the stator core. The first limiting grooves on the upper end surfaces of the guide rails, combined with the first locking block, first locking nut, and first locking bolt, allow the support base to be quickly positioned and locked in the desired position. This facilitates adjustment of the support base spacing based on the size of the stator core, improving wire insertion efficiency and reducing labor intensity.

[0019] Optionally, a second limiting groove is provided on the upper end surface of the support seat along the sliding direction of the first support frame, and two second locking nuts sliding in the second limiting groove are provided in the support seat. A second locking block and a second locking bolt are provided on both the first support frame and the second support frame, and the threaded end of the second locking bolt passes through the second locking block and is threadedly connected to the second locking nut.

[0020] By adopting the above technical solution, the second limiting groove can ensure that the first support frame and the second support frame slide accurately along the sliding direction of the first support wheel, thereby improving the stability of the stator core during wire embedding; the second locking block, the second locking nut and the second locking bolt are used in combination to achieve rapid fixation of the first support frame and the second support frame in appropriate positions, thereby ensuring the smooth progress of the wire embedding work.

[0021] The first gear and the second gear are engaged with each other and are connected with each other at two ends of the gear train, and the first gear and the second gear are engaged with each other at two ends of the gear train.

[0022] By adopting the above technical solution, and by arranging the first push plate, the second push plate, the first gear, the second gear, the first bevel gear, and the second bevel gear, it is achieved that when driving one second bidirectional lead screw to rotate, the other second bidirectional lead screw rotates synchronously, driving the first and second support frames on the two support seats to slide synchronously in opposite directions, effectively improving the stability and accuracy of the adjustment process, ensuring that the stator core can rotate smoothly during the wire insertion process and is not prone to eccentric falling. In addition, the limit rod and its protrusion cooperate with the grooves of the sliding ring and the first gear to limit the displacement direction of the first and second push plates during the sliding process, further improving the reliability of the structure.

[0023] In summary, this application includes at least one of the following beneficial technical effects:

[0024] 1. The center high H355-H630 high voltage motor winding stator core embedding equipment can realize the rapid adjustment and positioning of the stator core. The two support seats on the workbench can slide in opposite directions along their axis through the first bidirectional screw, so as to adapt to the stator core embedding requirements of different lengths along the axis direction, thereby improving the adaptability of the equipment. The first support frame and the second support frame slide in opposite directions along their axis through the second bidirectional screw, so that the first support wheel and the second support wheel can accurately adjust the spacing to adapt to stator cores of different diameters, improving the adaptability of the equipment, ensuring stable support of the stator core during the embedding process, and ensuring that the stator core does not deviate when placed on the first support wheel and the second support wheel for rotation, reducing the phenomenon of the stator core falling due to eccentricity caused by its own gravity during rotation, and reducing quality problems caused by falling. The rotating rings provided on the first and second supporting wheels are adapted to the stator ribs on the outer wall of the stator core. The driving device drives the first supporting wheel to rotate through the driving shaft, thereby driving the rotating ring to rotate, and then driving the stator core to rotate, reducing manual handling and flipping, reducing labor intensity, and improving wire insertion efficiency;

[0025] 2. The arrangement of the first bearing seat and the second bearing seat makes the rotation of the first support wheel and the second support wheel

[0026] The movement is more stable, which enhances the stability of the stator core when the swivel drives the stator core to rotate, helps to improve the wire embedding accuracy, and reduces the possibility of stator coil insulation damage;

[0027] 3. The handle connecting rod is fixedly connected to the handle grip, and the end of the handle connecting rod away from the handle grip is fixedly connected to the rotating rod, so that the operator can drive the rotating rod to rotate by rotating the handle grip, and drive the driving shaft to rotate through the first sprocket, the second sprocket and the chain, thereby realizing flexible rotation of the first support wheel, facilitating the stable wire embedding operation of the motor stator core, improving work efficiency and reducing labor intensity. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 It is a structural diagram of the stator core.

[0029] Figure 2 It is a schematic diagram of the overall structure of the stator core wire embedding equipment with windings for a central high-voltage H355-H630 motor.

[0030] Figure 3 It is a structural diagram of the support base and guide rail fixing method.

[0031] Figure 4 It is a structural diagram of a structure that drives two second bidirectional lead screws to rotate synchronously, a workbench, a support seat, a guide rail and a limit rod.

[0032] Figure 5 yes Figure 4 Enlarged schematic diagram of part A.

[0033] Figure 6 It is a structural diagram of the support seat, the first support frame and the driving device.

[0034] Figure 7 yes Figure 6 Schematic diagram of the enlarged portion B.

[0035] Explanation of the accompanying drawings: 100, stator core; 101, stator rib; 1, workbench; 11, first bidirectional screw; 12, first rotating device; 13, guide rail; 131, first limiting groove; 132, first locking block; 133, first locking nut; 134, first locking bolt; 14, support rod; 2, support seat; 21, first support frame; 211, first support wheel; 212, driving shaft; 213, first bearing seat; 214, positioning hole; 22, second support frame; 221, second support wheel; 222, annular groove; 223, second bearing seat; 224, driven shaft; 23, second bidirectional screw; 231, first Second rotating device; 24, rotating ring; 241, rib groove; 25, driving device; 251, handle connecting rod; 252, handle handle; 253, rotating rod; 254, chain; 255, first sprocket; 256, second sprocket; 26, positioning rod; 261, retaining ring; 262, elastic member; 263, limiting block; 27, second limiting groove; 271, second locking pressure block; 272, second locking nut; 273, second locking bolt; 28, first push plate; 29, second push plate 3, limiting rod; 31, first gear; 311, sliding ring; 32, second gear; 33, first bevel gear; 34, second bevel gear; 35, convex strip. DETAILED DESCRIPTION

[0036] The present application is further described in detail below in conjunction with all the accompanying drawings.

[0037] The embodiment of the present application discloses a central high H355-H630 high voltage motor winding stator core wire embedding device.

[0038] Reference Figure 2 , a center high H355-H630 high voltage motor winding stator core wire embedding equipment, including a workbench 1, the workbench 1 table can be made of stainless steel plate or cast iron plate to ensure its load-bearing capacity.

[0039] Reference Figure 2 The upper end surface of the workbench 1 is provided with two guide rails 13 and two support rods 14 arranged parallel to the length. The two guide rails 13 and the two support rods 14 support the support base 2. At the same time, the support rods 14 can reduce the bending of the support base 2 caused by the weight of the stator core 100. The guide rails 13 and the support rods 14 are fastened to the workbench 1 by bolts. The two support rods 14 are located between the two guide rails 13, and the upper end surfaces of the guide rails 13 and the support rods 14 are flush. The two guide rails 13 are located on either side of the workbench 1 and are arranged symmetrically, with the two guide rails 13 located in the center of the workbench 1.

[0040] Reference Figure 2 The upper end surfaces of the guide rail 13 and the support rod 14 are provided with two support seats 2 parallel to each other, and the lower end surfaces of the two support seats 2 are both provided with a nut seat. The rotation directions of the two nut seats are opposite. A support is provided at each end of the workbench 1 along the length direction of the guide rail 13. The two supports are coaxially connected to the first bidirectional screw 11. The first bidirectional screw 11 is located between the two support rods 14. The first bidirectional screw 11 drives the two support seats 2 to slide synchronously in opposite directions on the workbench 1 through a threaded connection with the nut seat. One end of the first bidirectional screw 11 is fixedly connected to a first rotating device 12 that drives the first bidirectional screw 11 to rotate. The first rotating device 12 uses a hand-cranked device. The staff manually rotates the first rotating device 12 to drive the first bidirectional screw 11 to rotate, thereby driving the two support seats 2 to slide in opposite directions along the axis direction of the first bidirectional screw 11, thereby adapting to the wire embedding requirements of the stator core 100 with different lengths along the axis direction, thereby improving the adaptability of the equipment.

[0041] Reference Figure 2 and Figure 2Two guide rails 13 are provided at each end of the support base 2. A first limiting groove 131 is defined on the upper end surface of the guide rail 13 along the sliding direction of the support base 2. A first locking nut 133 is provided within the guide rail 13, sliding within the first limiting groove 131. A first locking block 132 and a first locking bolt 134 are provided on both sides of one end of the first rotating device 12 of the support base 2. The threaded end of the first locking bolt 134 passes through the first locking block 132 and is threadedly connected to the first locking nut 133. The two ends of the support base 2 are fixed to the two guide rails 13 by the first locking blocks 132, first locking nuts 133, and first locking bolts 134. The first limiting groove 131 on the upper end surface of the guide rail 13 cooperates with the first locking blocks 132, first locking nuts 133, and first locking bolts 134, allowing the support base 2 to be quickly positioned and locked in the desired position. This facilitates adjustment of the spacing between the support bases 2 according to the size of the stator core 100, improving wire insertion efficiency and reducing labor intensity.

[0042] Reference Figure 2 Each support seat 2 is provided with a first support frame 21 and a second support frame 22. The first support frame 21 and the second support frame 22 are both composed of a base plate and two vertical plates. The bottom plates of the first support frame 21 and the second support frame 22 are also provided with a nut seat. The rotation directions of the two nut seats are opposite. A support is also provided at each end of the support seat 2. The two supports are coaxially connected to the second bidirectional screw 23. The second bidirectional screw 23 is located between the two vertical plates. The axes of the first bidirectional screw 11 and the second bidirectional screw 23 are perpendicular to each other. The second bidirectional screw 23 drives the first support frame 21 and the second support frame 22 to slide synchronously in opposite directions on the support seat 2 through a threaded connection with the nut seat. One end of the second bidirectional screw 23 is fixedly connected to a second rotating device 231 that drives the second bidirectional screw 23 to rotate. The second rotating device 231 also uses a hand-cranked device. The staff manually rotates the second rotating device 231 to drive the second bidirectional screw 23 to rotate, thereby driving the first support frame 21 and the second support frame 22 to slide in opposite directions along the axis of the second bidirectional screw 23, so that the first support frame 21 and the second support frame 22 can accurately adjust the spacing to adapt to stator cores 100 of different diameters, thereby improving the adaptability of the equipment and ensuring stable support of the stator core 100 during the wire embedding process.

[0043] Reference Figure 4 and Figure 5, each support seat 2 is provided with a first push plate 28, a second push plate 29, a first gear 31, a second gear 32, a first bevel gear 33 and a second bevel gear 34 on the side close to the first rotating device 12, the first gear 31 and the second gear 32 are meshed with each other, the two ends of the first gear 31 are respectively abutted against the first push plate 28 and the second push plate 29, the two ends of the second gear 32 are respectively abutted against the first push plate 28 and the second push plate 29, the second bevel gear 34 is located on the side of the second push plate 29 away from the second gear 32, the first bevel gear 33 and the second bevel gear 34 are meshed with each other, and the first bevel gear 33 and the second bidirectional screw 23 are coaxial. The second bevel gear 34 and the second gear 32 are fixedly connected coaxially and are rotatably connected to the second push plate 29. The upper end surface of the workbench 1 is rotatably connected to the limit rod 3. The axial direction of the limit rod 3 is the same as the sliding direction of the support seat 2. The outer wall of the limit rod 3 is provided with a convex strip 35 extending along the axis. The first push plate 28 and the second push plate 29 are both rotatably connected with a sliding ring 311. The sliding ring 311 and the first gear 31 are both provided with a groove adapted to the convex strip 35. The sliding ring 311, the first gear 31 and the limit rod 3 are coaxially arranged. The sliding ring 311 and the first gear 31 are both slidably connected to the limit rod 3 along the axial direction of the limit rod 3.

[0044] The staff manually rotates a second rotating device 231 to drive the first bevel gear 33 and the second bevel gear 34 to rotate, the second bevel gear 34 drives the second gear 32 to rotate, and the second gear 32 drives the first gear 31 to rotate. A first gear 31 is provided on each of the two support seats 2. The two first gears 31 are coaxially connected through a limit rod 3. The outer wall of the limit rod 3 is provided with a convex strip 35 extending along the axis. The first gears 31 are all provided with grooves adapted to the convex strip 35. The rotation of one of the first gears 31 drives the limit rod 3 to rotate, thereby driving the other first gear 31 to rotate, and then the second bidirectional lead screws 23 on the two support seats 2 rotate synchronously, driving the first support frame 21 and the second support frame 22 on the two support seats 2 to slide synchronously in opposite directions, effectively improving the stability and accuracy during the adjustment process. At the same time, when the first bidirectional lead screw 11 rotates and drives the two support seats 2 to slide, the two first gears 31 also slide on the limiting rod 3. The first push plates 28 and the second push plates 29 on both sides of the first gear 31 and the second gear 32 drive the first gear 31 and the second gear 32 to slide. The second push plates 29 are also used to connect the second gear 32 and the second bevel gear 34. The provision of the sliding ring 311 enables the limiting rod 3 to be connected to the first push plates 28 and the second push plates 29 in both a rotational and sliding manner.

[0045] Reference Figure 2 and Figure 6A second limiting groove 27 is defined on the upper end surface of the support base 2 along the sliding direction of the first support frame 21. Two second locking nuts 272 are provided within the support base 2, which slide within the second limiting groove 27. A second locking block 271 and a second locking bolt 273 are provided on each of the first and second support frames 21 and 22. The threaded ends of the second locking bolts 273 pass through the second locking block 271 and are threadedly engaged with the second locking nuts 272. The second locking block 271, second locking nuts 272, and second locking bolts 273 work together to quickly secure the first and second support frames 21 and 22 in place, ensuring smooth thread insertion.

[0046] The first limiting groove 131 and the second limiting groove 27 both adopt a structure with a wide lower portion and a narrow upper portion, and the first locking nut 133 and the second locking nut 272 are adapted to their shapes so that they will not fall out of the groove in the vertical direction, thereby improving the fixing effect.

[0047] Reference Figure 2 The upper end of the first support frame 21 is rotatably connected to the first support wheel 211, and the upper end of the second support frame 22 is rotatably connected to the second support wheel 221. The outer walls of the first support wheel 211 and the second support wheel 221 are both provided with an annular groove 222. A rotating ring 24 is provided between the first support wheel 211 and the second support wheel 221. The matching rotating ring 24 can be selected according to the size of the stator core 100. The outer wall of the rotating ring 24 abuts against the annular groove 222. The rotating ring 24 is provided with a number of rib grooves 241 that are matched one by one with the stator ribs 101 on the outer wall of the stator core 100. The axial directions of the first support wheel 211 and the second support wheel 221 are both parallel to the sliding direction of the support seat 2.

[0048] A lifting port can be opened on the swivel 24. First, the swivel 24 is placed on the first support wheel 211 and the second support wheel 221 and embedded in the annular groove 222. The second rotating device 231 is manually rotated to adjust the distance between the first support wheel 211 and the second support wheel 221. The distance between the two support seats 2 is preliminarily adjusted according to the length of the stator core 100. Then, the swivel 24 is set on both ends of the stator core 100, and the lifting port is fixed with a lifting equipment. The stator core 100 is driven to move above the wire embedding device, and the distance between the two swivels 24 and the annular groove 222 is observed. The first rotating device 12 is rotated to make the swivel 24 stuck in the annular groove 222. At this time, the first rotating device 12 can be stopped manually at any time, and the operation is more precise.

[0049] Reference Figure 2A first bearing seat 213 is provided on the upper end of each of the two vertical plates of the first support frame 21, and the first support wheel 211 is located between the two first bearing seats 213. The first support wheel 211 is coaxially fixedly connected to the driving shaft 212, and both ends of the driving shaft 212 extend out of the first support wheel 211 and are coaxially rotatably connected to the first bearing seat 213.

[0050] Reference Figure 2 A second bearing seat 223 is provided on the upper end of each of the two vertical plates of the second support frame 22, and the second support wheel 221 is located between the two second bearing seats 223. The second support wheel 221 is coaxially fixedly connected to the driven shaft 224, and the second support wheels 221 extend from both ends of the driven shaft 224 and are coaxially rotatably connected to the second bearing seat 223.

[0051] Reference Figure 2 One end of the driving shaft 212 is connected to a driving device 25, which is located on the side of the support base 2 near the first locking block 132. The rotating ring 24 provided on the first support wheel 211 and the second support wheel 221 is adapted to the stator rib 101 on the outer wall of the stator core 100. The driving device 25 drives the first support wheel 211 to rotate via the driving shaft 212, thereby driving the rotating ring 24 to rotate, and further driving the stator core 100 to rotate, reducing manual handling and flipping, lowering labor intensity, and improving wire insertion efficiency.

[0052] Reference Figure 6 and Figure 7 The driving device 25 includes a rotating rod 253, a chain 254, a first sprocket 255, a second sprocket 256, a handle link 251 and a handle grip 252. One end of the rotating rod 253 is rotatably connected to the first support frame 21. The axial directions of the rotating rod 253 and the driving shaft 212 are parallel to each other. One end of the handle link 251 is fixedly connected to the handle grip 252. The end of the handle link 251 away from the handle grip 252 is fixedly connected to the rotating rod 253. The handle grip 252 is located on the side of the handle link 251 away from the first support frame 21. The driving shaft 212 is coaxially fixedly connected to the first sprocket 255, the rotating rod 253 is coaxially fixedly connected to the second sprocket 256, and the first sprocket 255 and the second sprocket 256 are both engaged with the chain 254. A positioning rod 26 is inserted into the handle connecting rod 251 and is located between the handle grip 252 and the rotating rod 253. The axis of the positioning rod 26 is parallel to the axis of the driving shaft 212. The first support frame 21 is provided with a plurality of positioning holes 214, which are evenly spaced along the circumference of the first support wheel 211. The provision of the positioning rod 26 allows the handle connecting rod 251 to be locked at different angles, facilitating adjustment of the handle position as needed, thereby improving operational convenience and thread inserting efficiency.

[0053] Reference Figure 7A retaining ring 261 is fixed to the outer wall of the positioning rod 26. The retaining ring 261 is located between the handle connecting rod 251 and the first support frame 21. An elastic member 262 is provided between the retaining ring 261 and the handle connecting rod 251. The elastic member 262 can be a spring. The locking member 262 is secured to the outer wall of the positioning rod 26 and is secured to the end of the positioning rod 26 away from the first support frame 21. The locking member 262 is secured to the outer wall of the positioning rod 26 and is secured to the end of the positioning rod 26 away from the first support frame 21. The locking member 262 is secured to the outer wall of the positioning rod 26 and is secured to the end of the positioning rod 26 away from the first support frame 21.

[0054] When the stator core 100 needs to be rotated, the staff pulls the limit block 263 to pull the positioning rod 26 out of the first support frame 21, and then the staff holds the handle handle 252 and rotates it. The handle connecting rod 251 rotates to drive the rotating rod 253 to rotate, and then drives the driving shaft 212 to rotate through the first sprocket 255, the second sprocket 256 and the chain 254. After rotating to a certain angle, the positioning rod 26 is stuck in the positioning hole 214 under the action of the elastic member 262, so that the first support wheel 211 will not rotate, thereby preventing the stator core 100 from rotating, and preventing accidents and quality problems caused by the rotation of the stator core 100 during the wire embedding process.

[0055] The working principle of the stator core wire-inserting equipment for high-voltage motors with windings in the range of H355-H630 is as follows: The stator core wire-inserting equipment for high-voltage motors with windings in the range of H355-H630 can achieve rapid adjustment and positioning of the stator core 100. The two support bases 2 on the workbench 1 can slide in opposite directions along their axes via a first bidirectional lead screw 11, thereby accommodating the wire-inserting requirements of stator cores 100 of varying axial lengths, thereby improving the adaptability of the equipment. The first support frame 21 and the second support frame 22 slide in opposite directions along their axes via the second bidirectional lead screw 23, allowing the first support wheel 211 and the second support wheel 221 to precisely adjust the spacing to accommodate stator cores 100 of different diameters, thereby improving the adaptability of the equipment and ensuring stable support of the stator core 100 during the wire embedding process. This also ensures that the stator core 100 does not shift when placed on the first support wheel 211 and the second support wheel 221 and rotates, reducing the risk of the stator core 100 falling due to eccentricity caused by its own gravity during rotation and reducing quality problems caused by falling. The rotating ring 24 provided on the first support wheel 211 and the second support wheel 221 is adapted to the stator rib 101 on the outer wall of the stator core 100. The driving device 25 drives the first support wheel 211 to rotate via the active shaft 212, thereby driving the rotating ring 24 to rotate, and then driving the stator core 100 to rotate, thereby reducing manual handling and flipping, reducing labor intensity, and improving wire embedding efficiency.

[0056] The above are all preferred embodiments of the present application, and are not intended to limit the scope of protection of the present application. Therefore, any equivalent changes made based on the structure, shape, and principle of the present application should be included in the scope of protection of the present application.

Claims

1. A device for inserting windings into the stator core of a high-voltage motor having a center height of H355-H630, comprising a workbench (1), characterized in that: The workbench (1) is slidably connected to two support seats (2), and the upper end surface of the workbench (1) is rotatably connected to a first bidirectional screw (11). The two support seats (2) are both threadedly connected to the first bidirectional screw (11). The two support seats (2) slide in opposite directions along the axis of the first bidirectional screw (11). One end of the first bidirectional screw (11) is provided with a first rotating device (12). The two support seats (2) are both slidably connected to a first support frame (21) and a second support frame (22). The two support seats (2) are actively connected to a second bidirectional screw (23). The first support frame (21) and the second support frame (22) are both threadedly connected to the second bidirectional screw (23). The first support frame (21) and the second support frame (22) slide in opposite directions along the axis of the second bidirectional screw (23). One end of the second bidirectional screw (23) is provided with a second rotating device (231). The axes of the first bidirectional screw (11) and the second bidirectional screw (23) are perpendicular to each other. The upper end of the first support frame (21) is rotatably connected to a first support wheel (211), and the upper end of the second support frame (22) is rotatably connected to a second support wheel (221). The outer walls of the first support wheel (211) and the second support wheel (221) are both provided with an annular groove (222). A rotating ring (24) for being sleeved on the outer wall of the stator core is provided between the first support wheel (211) and the second support wheel (221). The outer wall of the rotating ring (24) is in contact with the annular groove (222). The rotating ring (24) is provided with a plurality of rib grooves (241) for matching the stator ribs (101) on the outer wall of the stator core (100). The axial directions of the first support wheel (211) and the second support wheel (221) are both parallel to the sliding direction of the support seat (2). The first support wheel (211) is coaxially fixedly connected to the driving shaft (212). One end of the driving shaft (212) is connected to a driving device (25) for driving the first support wheel (211) to rotate.

2. The stator core winding and wire inserting equipment for a high-voltage motor with a center height of H355-H630 according to claim 1 is characterized by: Two coaxial first bearing seats (213) are provided at the upper end of the first support frame (21), the first support wheel (211) is located between the two first bearing seats (213), both ends of the driving shaft (212) extend out of the first support wheel (211) and are coaxially rotatably connected to the first bearing seats (213), the driving device (25) is located on a side of the first bearing seat (213) away from the first support wheel (211), and two coaxial second bearing seats (223) are provided at the upper end of the second support frame (22), the second support wheel (221) is located between the two second bearing seats (223), the second support wheel (221) is coaxially fixedly connected to the driven shaft (224), and both ends of the driven shaft (224) extend out of the second support wheel (221) and are coaxially rotatably connected to the second bearing seat (223).

3. The stator core winding and wire inserting equipment for a high-voltage motor with a center height of H355-H630 according to claim 1 is characterized by: The driving device (25) comprises a rotating rod (253), a chain (254), a first sprocket (255), a second sprocket (256), a handle connecting rod (251) and a handle grip (252). One end of the rotating rod (253) is rotatably connected to the first support frame (21). The axial directions of the rotating rod (253) and the driving shaft (212) are parallel to each other. One end of the handle connecting rod (251) is fixedly connected to the handle grip (252). An end of the handle connecting rod (251) away from the handle grip (252) is fixedly connected to the rotating rod (253). The handle grip (252) is located on a side of the handle connecting rod (251) away from the first support frame (21). The driving shaft (212) is coaxially fixedly connected to the first sprocket (255). The rotating rod (253) is coaxially fixedly connected to the second sprocket (256). Both the first sprocket (255) and the second sprocket (256) are engaged with the chain (254).

4. The stator core winding and wire inserting equipment for a high-voltage motor with a center height of H355-H630 according to claim 3 is characterized by: A positioning rod (26) is inserted into the handle connecting rod (251), and the positioning rod (26) is located between the handle grip (252) and the rotating rod (253). The axial direction of the positioning rod (26) is parallel to the axial direction of the driving shaft (212). The first support frame (21) is provided with a plurality of positioning holes (214), and the plurality of positioning holes (214) are evenly arranged along the circumference of the first support wheel (211).

5. The stator core winding and wire inserting equipment for a high-voltage motor with a center height of H355-H630 according to claim 4 is characterized by: A retaining ring (261) is fixedly provided on the outer wall of the positioning rod (26), and the retaining ring (261) is located between the handle connecting rod (251) and the first support frame (21). An elastic member (262) is provided between the retaining ring (261) and the handle connecting rod (251), and the elastic member (262) is sleeved on the outer wall of the positioning rod (26). A limiting block (263) is fixedly provided on one end of the positioning rod (26) away from the first support frame (21). The outer diameter of the limiting block (263) is larger than the outer diameter of the positioning rod (26). When the elastic member (262) is in a natural state, one end of the positioning rod (26) is inserted into the positioning hole (214), and the end of the limiting block (263) close to the first support frame (21) abuts against the end of the handle connecting rod (251) away from the first support frame (21).

6. The stator core winding and wire inserting equipment for a high-voltage motor with a center height of H355-H630 according to claim 1 is characterized by: The upper end surface of the workbench (1) is provided with two guide rails (13) and two support rods (14), and the upper end surfaces of the guide rails (13) and the support rods (14) are both in contact with the lower end surface of the support seat (2). The two guide rails (13) are respectively arranged at the two ends of the support seat (2) along the sliding direction of the first support wheel (211), and the two support rods (14) are respectively located on both sides of the second bidirectional screw (23). The upper end surface of the guide rail (13) is provided with a first limiting groove (131) along the sliding direction of the support seat (2). Both sides of one end of the first rotating device (12) of the support seat (2) are provided with a first locking pressure block (132) and a first locking bolt (134), and the threaded end of the first locking bolt (134) passes through the first locking pressure block (132) and is threadedly connected to the first locking nut (133).

7. The stator core winding and wire inserting equipment for a high-voltage motor with a center height of H355-H630 according to claim 1 is characterized by: The upper end surface of the support seat (2) is provided with a second limiting groove (27) along the sliding direction of the first support frame (21), and two second locking nuts (272) sliding in the second limiting groove (27) are provided in the support seat (2). The first support frame (21) and the second support frame (22) are both provided with a second locking pressure block (271) and a second locking bolt (273), and the threaded end of the second locking bolt (273) passes through the second locking pressure block (271) and is threadedly connected to the second locking nut (272).

8. The stator core winding and wire inserting equipment for a high-voltage motor with a center height of H355-H630 according to claim 1 is characterized by: The support seat (2) is provided with a first push plate (28), a second push plate (29), a first gear (31), a second gear (32), a first bevel gear (33) and a second bevel gear (34) on a side close to the first rotating device (12). The first gear (31) and the second gear (32) are meshed with each other. The two ends of the first gear (31) are respectively in contact with the first push plate (28) and the second push plate (29). The two ends of the second gear (32) are respectively in contact with the first push plate (28) and the second push plate (29). The second bevel gear (34) is located on a side of the second push plate (29) away from the second gear (32). The first bevel gear (33) and the second bevel gear (34) are meshed with each other. The first bevel gear (33) and the second bidirectional lead screw (23) are coaxial. The second bevel gear (34) and the second gear (32) are coaxially fixedly connected and rotatably connected to the second push plate (29). The upper end surface of the workbench (1) is rotatably connected to the limit rod (3). The axis direction of the limit rod (3) is the same as the sliding direction of the support seat (2). The outer wall of the limit rod (3) is provided with a convex strip (35) extending along the axis. The first push plate (28) and the second push plate (29) are both rotatably connected to a sliding ring (311). The sliding ring (311) and the first gear (31) are both provided with a groove adapted to the convex strip (35). The sliding ring (311), the first gear (31) and the limit rod (3) are coaxially arranged. The sliding ring (311) and the first gear (31) are both slidably connected to the limit rod (3) along the axis direction of the limit rod (3).

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