Motor automated assembly method and apparatus

By using a circular conveyor track and automated assembly equipment with multiple workstations, the problems of loose assembly and misalignment during the assembly of micro motors have been solved, achieving efficient and precise motor component assembly and improving product quality and production efficiency.

CN117900823BActive Publication Date: 2026-06-23深圳市博洋精密科技有限公司

Patent Information

Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
深圳市博洋精密科技有限公司
Filing Date
2024-03-08
Publication Date
2026-06-23

AI Technical Summary

Technical Problem

In the existing technology, the assembly process of micro motor components is prone to problems such as loose assembly and misalignment, resulting in poor product quality. In addition, it requires a lot of manual operation and large-scale assembly line operation, making it difficult to guarantee assembly quality and efficiency.

Method used

An automated motor assembly device is adopted, which realizes automated assembly through a circular conveyor track and multi-station components. The process includes motor feeding, shaft plate screw locking, gear assembly and other processes. Combined with oiling and oil hole venting components, the automated equipment improves the assembly accuracy and efficiency.

Benefits of technology

It improves the assembly quality and efficiency of motor components, reduces manual operation time and costs, shrinks the space occupied by equipment, and enhances overall assembly efficiency and product consistency.

✦ Generated by Eureka AI based on patent content.

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Abstract

The application is a motor automatic assembly equipment, which comprises an equipment rack and a ring-shaped conveying track, the equipment rack is provided with an equipment table top; the ring-shaped conveying track is arranged in the middle of the equipment table top, the outer ring of the ring-shaped conveying track is sequentially provided with a motor feeding assembly, a shaft plate feeding assembly, a shaft plate screw locking assembly, a small tooth assembly component, an idler rotating assembly, a secondary gear rotating assembly and a material collecting assembly; a plurality of product positioning toolings are assembled on the ring-shaped conveying track; the motor feeding assembly, the shaft plate feeding assembly and the material collecting assembly are similar in structure; by using the application, the product positioning toolings are circulated through the ring-shaped conveying track, the equipment occupies less space and the utilization efficiency of the positioning toolings is improved; the motor assembly, screw locking, gear assembly and finished product collecting processes are integrated; the combination of multiple stations and multiple components reduces the time cost of manual circulation and operation, improves the overall motor assembly efficiency and ensures the motor assembly quality.
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Description

Technical Field

[0001] This invention relates to the field of motor assembly and manufacturing technology, specifically to an automated motor assembly method and equipment. Background Technology

[0002] With the rapid development of micro motor technology, micro motors are increasingly being used in industries such as home appliances, toys, and automobiles. The number of devices, equipment, and structures driven by motor-related components is also increasing, and breakthroughs have been made in other gear-type structures that mesh with motors.

[0003] The assembly process of motor-related components and mechanisms requires many small assembly steps to be combined. During manual assembly, it is very easy to have loose or misaligned assembly. The neatness, consistency, and accuracy of the finished product are not good, making it difficult to ensure the quality of the assembled product. In addition, this requires a very high level of assembly skills from the workers. Furthermore, the assembly activities involving multiple workstations and processes often require large and long assembly line operations, as well as a large number of workers for material handling and assembly operations. Summary of the Invention

[0004] The purpose of this invention is to provide an automated motor assembly method and equipment to solve the above-mentioned technical problems.

[0005] To achieve the above objectives, the present invention provides the following technical solution;

[0006] An automated motor assembly device includes a frame and a circular conveyor track. The frame has a worktable. The circular conveyor track is located in the center of the worktable. The outer ring of the conveyor track is sequentially equipped with a motor feeding assembly, a shaft plate feeding assembly, a shaft plate screw locking assembly, a small gear assembly assembly, an idler gear screwing assembly, a secondary gear screwing assembly, and a receiving assembly. Several product positioning fixtures are mounted on the circular conveyor track. The motor feeding assembly, shaft plate feeding assembly, and receiving assembly have similar structures, differing only in the material gripped by their actuators.

[0007] An oiling assembly is provided between the small gear assembly and the idler gear assembly, as well as between the idler gear assembly and the secondary gear assembly; and an oil venting assembly is provided after each oiling assembly.

[0008] The specific assembly method of this invention is as follows: The circular conveyor track is activated, driving the product positioning fixture to rotate between components. The product positioning fixture first enters the motor loading position, where the motor loading assembly removes the motor from the centralized incoming materials and transports it to the product positioning fixture. Then, it enters the shaft plate loading position, where the shaft plate loading assembly assembles the motor shaft plate onto the motor. Next, the shaft plate screw-locking assembly secures the motor shaft plate to the motor with screws. The product positioning fixture rotates to a position below the small gear assembly assembly, where the small gear is assembled onto the motor main shaft. Then, the first oiling is performed, followed by the idler gear spinning assembly, where the idler gear spinning assembly performs idler gear spinning. Another oiling operation is performed, followed by the secondary gear spinning assembly, where the secondary gear spinning assembly spins three secondary gears. Finally, it enters the receiving position, where the receiving assembly collects the material into a tray, awaiting finished product turnover.

[0009] Furthermore, the motor feeding assembly includes a storage rack, a storage lifting assembly, a tray displacement assembly, a feeding X-transfer assembly, a feeding Y-transfer assembly, and a feeding transfer assembly; the storage lifting assembly is mounted below the equipment platform, the storage rack is installed at the execution end of the storage lifting assembly and located on the side of the equipment platform to support the tray; the tray displacement assembly, the feeding X-transfer assembly, the feeding Y-transfer assembly, and the feeding transfer assembly are all mounted on the equipment platform; the tray displacement assembly is located in front of the storage rack, the feeding X-transfer assembly spans above the tray displacement assembly, and the feeding Y-transfer assembly and the feeding transfer assembly are located on the side of the tray displacement assembly;

[0010] Furthermore, the material storage lifting assembly is mounted below the equipment platform via a lifting fixing frame, and includes a material storage lifting motor, a lifting reducer, a lifting connecting block, and a lifting screw. One end of the lifting screw is mounted on the lifting fixing frame, and the other end is mounted on the lifting reducer. The lifting motor is mounted on the lifting fixing frame, and its output end drives the lifting reducer. The lifting connecting block is mounted on the lifting screw, and the other end is fixed to the material storage frame. A material storage tripod is provided at the bottom of the material storage frame, and a material tray is installed inside. The material storage tripod is slidably connected to the rear end face of the lifting fixing frame, and the material storage tripod is fixedly connected to the lifting connecting block.

[0011] Furthermore, the shaft plate screw fastening assembly includes a screw fastening displacement module, a screw fastening lifting module, a screw fastening motor, a screw fastening auxiliary cylinder, and a screw box; the screw fastening displacement module is set on the equipment table, the screw fastening lifting module is assembled on the execution end of the screw fastening displacement module, and the screw fastening motor is installed on the execution end of the screw fastening lifting module; the screw fastening auxiliary cylinder is installed on the side of the annular conveyor track, and the telescopic end of the screw fastening auxiliary cylinder is connected to a screw fastening pressure plate for pressing the motor shaft plate;

[0012] Furthermore, the oiling assembly includes an oiling frame, an oil storage cylinder, an oiling X assembly, an oiling Y assembly, an oiling telescopic cylinder, and an oiling needle. The oiling frame consists of a set of parallel vertical plates fixed to the equipment platform, and a flat support plate and a vertical support plate are mounted inside the oiling frame. The oiling Y assembly is mounted on the oiling frame via the flat support plate and the vertical support plate, and the oiling X assembly is mounted at the end of the oiling Y assembly. The oiling telescopic cylinder is mounted at the end of the oiling X assembly, and the oiling needle is located at the end of the oiling telescopic cylinder. The oil storage cylinder is installed on the side of the oiling frame. Oiling position sensors are installed on the top of the oiling frame and on the oiling Y assembly.

[0013] Furthermore, the oiling X assembly includes an oiling X motor, an X-axis connecting block, and an X-axis sliding plate; the oiling X motor is fixed on the Y-axis mounting plate, its output end is connected to the X-axis connecting block via a lead screw, the X-axis connecting block is sleeved on the lead screw, and its other end face is fixedly connected to the X-axis sliding plate, the X-axis sliding plate is slidably mounted on the Y-axis mounting plate via an X-axis sliding assembly; an oiling telescopic cylinder is installed at the end of the X-axis sliding plate;

[0014] Furthermore, the idler wheel spin-fitting assembly includes an idler wheel feeding module, an idler wheel inspection camera, an idler wheel feeder, an oil tank, a spinning drive module, and a spinning end, all of which are mounted on the equipment platform; the end of the idler wheel feeding module is connected to the initial section of the idler wheel feeder; the spinning drive module is mounted on the side of the idler wheel feeder via a spinning frame; the oil tank is located on the idler wheel feeder, at the discharge end side; and the spinning end is assembled at the execution end of the spinning drive module.

[0015] Furthermore, the oil tank is installed at the end of the idler wheel feeder via a feeder side frame, and the end of the idler wheel feeder is provided with an idler wheel pusher block driven by a feed pusher cylinder; the outer ring of the oil tank is provided with a leak-proof groove;

[0016] Furthermore, the spinning drive module includes an idler wheel linear module and an idler wheel pressing motor; the idler wheel pressing motor is mounted on the moving end of the idler wheel linear module via the linear module L plate; an idler wheel pressing slide plate is slidably mounted on the linear module L plate; the output end of the idler wheel pressing motor is connected to a threaded screw; the idler wheel pressing slide plate is mounted on the threaded screw and driven by the idler wheel pressing motor; a spinning end is mounted on the idler wheel pressing slide plate; the spinning end includes a spinning assembly box, in which a vacuum adsorption shaft is movably mounted; one end of the vacuum adsorption shaft is connected to an air pump, and the other end is provided with a rotary guide groove;

[0017] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0018] Using this invention, the entire product positioning tooling is rotated via a circular conveyor track, which reduces the space occupied by the equipment and improves the utilization efficiency of the positioning tooling; it integrates motor assembly, screw fastening, gear assembly and finished product receiving processes; the combination of multiple workstations and components reduces the time cost of manual turnover and operation, improves the overall motor component assembly efficiency and ensures the quality of motor assembly. Attached Figure Description

[0019] Figure 1 This is a top view of the overall structure of the present invention;

[0020] Figure 2 This is a slanted view of the overall structure of the present invention;

[0021] Figure 3 This is a partially enlarged schematic diagram of point A in the present invention;

[0022] Figure 4 This is a schematic diagram of the motor feeding assembly of the present invention;

[0023] Figure 5 This is a side and rear view schematic diagram of the motor feeding assembly of the present invention;

[0024] Figure 6 This is a schematic diagram of the oiling assembly of the present invention;

[0025] Figure 7 This is a side rear view schematic diagram of the oiling assembly of the present invention;

[0026] Figure 8 This is a schematic diagram of the idler wheel spin-mounting assembly structure of the present invention;

[0027] Figure 9 This is a side view of the idler wheel spin-on assembly of the present invention; Detailed Implementation

[0028] The technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present invention. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments.

[0029] refer to Figure 1-9 As shown, an automated motor assembly method and equipment includes a machine frame 1 and a circular conveyor track 2. The machine frame 1 is provided with a machine table 11. The circular conveyor track 2 is located in the middle of the machine table 11. The outer ring of the circular conveyor track 2 is provided with a motor feeding assembly 5, a shaft plate feeding assembly, a shaft plate screw locking assembly 4, a small gear assembly 7, an idler gear screwing assembly 6, a secondary gear screwing assembly 8, and a receiving assembly 9 in sequence. Several product positioning fixtures 21 are assembled on the circular conveyor track 2. The motor feeding assembly 5, the shaft plate feeding assembly, and the receiving assembly 9 have similar structures, the difference being the material gripped by the actuator.

[0030] An oiling assembly 3 is provided between the small gear assembly 7 and the idler gear assembly 6, as well as between the idler gear assembly 6 and the secondary gear assembly 8; and an oil hole venting assembly is provided after the oiling assembly 3.

[0031] In this embodiment, an automated motor assembly device also includes an external controller for controlling the start and stop of each component in the device. The circular conveyor track 2 can be positioned and stopped as needed, suspending the product positioning fixture under the designated component for assembly operations.

[0032] The specific assembly method of this invention is as follows: The circular conveyor track 2 is opened, driving the product positioning fixture 21 to rotate between the components. The product positioning fixture 21 first enters the motor loading position, where the motor loading assembly removes the motor from the centralized incoming material and transports it to the product positioning fixture 21. Then, it enters the shaft plate loading position, where the shaft plate loading assembly assembles the motor shaft plate onto the motor. Next, the shaft plate screw fastening assembly 4 screws the motor shaft plate onto the motor. The product positioning fixture 21 rotates to a position below the small gear assembly assembly 7, where the small gear is assembled onto the motor main shaft. Then, the first oiling is performed, followed by the idler gear spinning assembly position, where the idler gear spinning assembly 6 performs idler gear spinning assembly. The oiling operation is performed again, followed by the secondary gear spinning assembly position, where the secondary gear spinning assembly 8 spins the three secondary gears. Finally, it enters the receiving position, where the receiving assembly 9 collects the material into the tray, awaiting finished product turnover.

[0033] In this embodiment, the motor feeding assembly 5 includes a storage rack 52, a storage lifting assembly, a tray displacement assembly, a feeding X-transfer assembly, a feeding Y-transfer assembly, and a feeding transfer assembly. The storage lifting assembly is mounted below the equipment platform, and the storage rack 52 is installed at the execution end of the storage lifting assembly and located on the side of the equipment platform to support the tray. The tray displacement assembly, the feeding X-transfer assembly, the feeding Y-transfer assembly, and the feeding transfer assembly are all mounted on the equipment platform. The tray displacement assembly is located in front of the storage rack 52, the feeding X-transfer assembly straddles the tray displacement assembly, and the feeding Y-transfer assembly and the feeding transfer assembly are located on the side of the tray displacement assembly. Furthermore, the storage lifting assembly is connected to a lifting fixing frame 5. 5 is mounted below the equipment platform and includes a material storage lifting motor 551, a lifting reducer 552, a lifting connecting block 553, and a lifting screw 554. One end of the lifting screw 554 is mounted on the lifting fixed frame 55, and the other end is mounted on the lifting reducer 552. The lifting motor 551 is mounted on the lifting fixed frame 55, and its output end drives the lifting reducer 552. The lifting connecting block 553 is mounted on the lifting screw 554, and the other end is fixed to the material storage rack body 52. ​​Furthermore, a material storage tripod 521 is provided at the bottom of the material storage rack body 52, and a material tray 522 is installed inside. The material storage tripod 521 is slidably connected to the rear end face of the lifting fixed frame 55, and the material storage tripod 521 is fixedly connected to the lifting connecting block 553.

[0034] The material lifting motor 551 provides the lifting power, driving the lifting screw 554 via the lifting reducer 552, which in turn drives the lifting connecting block 553. By presetting a specific rotation cycle for the lifting motor 551, the lifting connecting block 553 is driven to a predetermined position, which in turn drives the material storage rack 52. The up-and-down movement of the material storage rack 52, in conjunction with the material tray displacement component, allows the material tray 522 to be removed from the material storage rack 52 and returned to the material storage rack 522 after loading.

[0035] Furthermore, the tray displacement assembly includes a tray linear module 561 and a tray insert plate 562; the tray linear module 561 is mounted on the equipment table via several displacement mounting seats 563, and the tray insert plate 562 is assembled at the output end of the tray linear module 561.

[0036] The material tray linear module 561 drives the material tray insert plate 562 to reciprocate; it can take out and store the material tray 522 from the storage rack 52. The actuator of the material tray linear module 561 drives the material tray insert plate 562 at a specific distance, which can feed several rows of motors in the material tray 52 to the bottom of the loading and conveying component, so that the loading and conveying component can quickly grab them.

[0037] Furthermore, the loading and conveying assembly is installed and fixed by the X-transfer frame 51, including an X-transfer linear module 511, an X-transfer lowering module 512, and an X-transfer pneumatic gripper 515; the X-transfer lowering module 512 is installed at the execution end of the X-transfer linear module 511, and the execution end of the X-transfer lowering module 512 is equipped with the X-transfer pneumatic gripper 515 through a right-angle connecting plate 514;

[0038] The X-transfer linear module 511 is a linear module driven by an encoder motor. It can be adjusted as needed to suspend the X-transfer lowering module 512 at the position of the motor in the material tray 522, so as to cooperate with the X-transfer pneumatic gripper 515 to grasp the material of the motor. Then, with the cooperation of the X-transfer linear module 511, the material of the motor is transported along the X axis, and the motor is placed on the loading Y-transfer assembly to wait for the next transfer loading.

[0039] Furthermore, the loading Y-transfer assembly is a Y-transfer linear module 53, and the execution end of the Y-transfer linear module 53 is equipped with a Y-transfer pneumatic gripper 532 through a Y-transfer seat block 531.

[0040] The Y-transfer linear module 53 is a linear module driven by an encoder motor. It can be adjusted as needed. By adjusting the hovering position of the Y-transfer block 531, it can receive the motor brought by the loading X-transfer assembly and clamp and fix it by the Y-transfer pneumatic gripper 532, and then transfer it to the designated position to wait for the loading transfer assembly to transfer it.

[0041] Furthermore, the feeding and transfer assembly is mounted on the equipment table via a transfer frame 54, and includes a reciprocating module 541 and a transfer pneumatic gripper 542.

[0042] The feeding and transfer assembly removes the motor Y-type conveying assembly and transports the motor to the positioning fixture on the turntable via the reciprocating module 541, achieving rapid reciprocating feeding and stably and quickly transferring the material to the turntable. The reciprocating module 541 is a lead screw linear module, which can be positioned once without the need for multiple positioning and hovering.

[0043] The shaft plate loading assembly is similar to the motor loading structure. The shaft plate is transported and placed in the product positioning fixture for pre-assembly with the motor. The subsequent shaft plate screw assembly 4 will be used for screw fastening assembly.

[0044] The shaft plate screw fastening assembly 4 includes a screw fastening displacement module 41, a screw fastening lifting module 42, a screw fastening motor 43, a screw fastening auxiliary cylinder 44, and a screw box 46. The screw fastening displacement module 41 is set on the equipment table 11, the screw fastening lifting module 42 is assembled on the execution end of the screw fastening displacement module 41, and the screw fastening motor 43 is installed on the execution end of the screw fastening lifting module 42. The screw fastening auxiliary cylinder 44 is installed on the side of the annular conveying track 2, and the telescopic end of the screw fastening auxiliary cylinder 44 is connected to the screw fastening pressure plate 45 for pressing the motor shaft plate.

[0045] In the shaft plate screw fastening assembly 4, the screw fastening displacement module 41 is a linear module that can hover the screw fastening lifting module 42 at multiple points, ensuring that the screw fastening lifting module 42 can reciprocate between the screw box 46 and the screw fastening auxiliary cylinder 44. The screw fastening lifting module 42 drives the screw fastening motor 43 to lift and lower as needed, ensuring that the screwdriver at the end of the screw fastening motor 43 can magnetically attract screws from the screw box 46 to assemble screws on the shaft plate under the screw fastening pressure plate 45. The screw fastening pressure plate 45 is provided with a fastening clearance hole.

[0046] An automatic oiling assembly for a motor assembly includes an oiling frame 31, an oil storage cylinder 32, an oiling X assembly, an oiling Y assembly, an oiling telescopic cylinder 39, and an oiling needle 38.

[0047] The oiling frame 31 consists of a set of parallel vertical plates fixed to the equipment table. A flat support plate 312 and a vertical support plate 311 are installed inside the oiling frame 31. The oiling Y assembly is mounted on the oiling frame 31 via the flat support plate 312 and the vertical support plate 311. The oiling X assembly is mounted at the end of the oiling Y assembly. The oiling telescopic cylinder 39 is mounted at the end of the oiling X assembly, and the oil dotting needle 38 is located at the actuating end of the oiling telescopic cylinder 39. The oil storage cylinder 32 is installed on the side of the oiling frame 31. Oiling position sensors 33 are installed at the top of the oiling frame 31 and on the oiling Y assembly.

[0048] The oiling X assembly, oiling Y assembly, oiling telescopic cylinder 39, and oiling needle 38 are all connected to and controlled by an external controller. Through external signal control, the oiling X assembly, oiling Y assembly, and oiling telescopic cylinder 39 coordinate their movements to ensure that the oiling needle 38 can move freely in three-axis dimensions, thereby improving the efficiency of oiling and lubrication during motor assembly and meeting the different oiling position requirements on each tooth of the motor.

[0049] Furthermore, the oiling Y-assembly includes an oiling Y-motor 341, a Y-axis sliding plate 343, and a Y-axis mounting plate 344; the Y-axis sliding plate 343 is slidably mounted on the flat support plate 312 via a Y-axis sliding block 35, the oiling Y-motor 341 is fixed on the vertical support plate 311, and its output end is connected to the Y-axis connecting block 342 via a lead screw. The Y-axis connecting block 342 is sleeved on the lead screw, and its top end is fixedly connected to the Y-axis sliding plate 343. The oiling X-assembly is mounted on the Y-axis sliding plate 343 via the Y-axis mounting plate 344.

[0050] The Y-axis motor 341 drives the Y-axis sliding plate 343 to slide on the flat support plate 312. The motor drives the lead screw to ensure that the Y-axis connecting block 342 can move as needed, thereby driving the flat support plate 312. The flat support plate 312 is also provided with a clearance hole to avoid the movement trajectory of the Y-axis connecting block 342.

[0051] Furthermore, an oiling position sensor 33 is provided on the Y-axis mounting plate 344;

[0052] The oiling position sensor 33 on the Y-axis assembly plate 344 is used to detect whether the oiling X component has moved into position.

[0053] Furthermore, the oiling X assembly includes an oiling X motor 361, an X-axis connecting block 342, and an X-axis sliding plate 363; the oiling X motor 361 is fixed on the Y-axis mounting plate 344, and its output end is connected to the X-axis connecting block 362 through a lead screw. The X-axis connecting block 362 is sleeved on the lead screw, and its other end face is fixedly connected to the X-axis sliding plate 363. The X-axis sliding plate 363 is slidably mounted on the Y-axis mounting plate 344 through an X-axis sliding assembly 37; an oiling telescopic cylinder 39 is installed at the end of the X-axis sliding plate 363.

[0054] The oiling X component is mounted on the Y-axis mounting plate 344. Driven by the oiling Y component, it follows the Y-axis mounting plate 344 to adjust the Y-axis direction. By driving the X-axis sliding plate 363 through the oiling X motor 361, the oiling telescopic cylinder 39 can be adjusted in the X-axis direction as needed, ensuring the accuracy and stability of the automated action.

[0055] Furthermore, the actuating end of the oiling telescopic cylinder 39 is equipped with an oil needle 38;

[0056] The oiling telescopic cylinder 39 is an adjustable stroke reciprocating electromagnetic cylinder. By repeatedly extending and retracting, the stroke of the Z-axis of the oiling position is adjusted, thereby improving the overall oiling efficiency.

[0057] The idler wheel spinning assembly 6 includes an idler wheel feeding module 61, an idler wheel inspection camera 62, an idler wheel feeder 63, an oil tank 64, a spinning drive module, and a spinning end, all of which are mounted on the equipment platform. The end of the idler wheel feeding module 61 is connected to the initial section of the idler wheel feeder 63. The spinning drive module is mounted on the side of the idler wheel feeder 63 via a spinning frame 65. The oil tank 64 is located on the idler wheel feeder 63, at the discharge end. The spinning end is assembled at the execution end of the spinning drive module.

[0058] Furthermore, the idler wheel feeding module 61 is a linear module, and the execution end is equipped with an idler wheel feeding nozzle 611;

[0059] The idler wheel material receiving module 61 is a handling module that transports the idler wheel from the external material tray to the assembly component, and works with the idler wheel material receiving module 61 to control the quality of the incoming material.

[0060] Furthermore, the idler wheel inspection camera 62 is mounted below the idler wheel material receiving module 61, and an inspection auxiliary light 621 is also added;

[0061] The idler wheel inspection camera 62 is connected to an external controller. It can ensure the quality of the bottom of the idler wheel parts through a vision solution, prevent defective idler wheel parts from entering the equipment process, and improve inspection efficiency and success rate with the inspection auxiliary light 621, thereby improving the overall assembly quality.

[0062] Furthermore, the lubricating oil tank 64 is installed at the end of the idler wheel feeder 63 via the feeder side frame 633, and the idler wheel feeder 63 is provided with an idler wheel pusher block 632 driven by the feeder pusher cylinder 631 at the end; the outer ring of the lubricating oil tank 64 is provided with a leak-proof groove.

[0063] The telescopic end of the feeding cylinder 631 reciprocates by pushing the idler wheel pusher block 632, thereby intermittently pushing the idler wheel material and pushing the idler wheel parts to a designated position, waiting for the spinning drive module and spinning end to perform the next operation on the idler wheel parts; the lubrication tank 64 stores lubricating oil for lubricating the parts to be assembled, improving assembly efficiency and quality.

[0064] Furthermore, the spinning drive module includes an idler wheel linear module 651 and an idler wheel pressing motor 652; the idler wheel pressing motor 652 is mounted on the moving end of the idler wheel linear module 651 via a linear module L plate 655; an idler wheel pressing slide plate 654 is slidably mounted on the linear module L plate 655; the output end of the idler wheel pressing motor 652 is connected to a threaded screw; the idler wheel pressing slide plate 654 is mounted on the threaded screw and driven by the idler wheel pressing motor 652; and the spinning end is mounted on the idler wheel pressing slide plate 654.

[0065] The idler wheel linear module 651 is a coded motor controlled linear module that can be hovered at a specified position as needed. The idler wheel linear module 651 can hover the idler wheel pressing motor 652 at multiple points. In conjunction with the idler wheel pressing motor 652 driving the idler wheel pressing slide plate 654, it realizes multi-point operation at the end of the spinning process. Its assembly action is to take the idler wheel parts from the end of the idler wheel feeder 63, immerse them in the lubricating oil tank 64, and finally spin them on the positioning fixture.

[0066] Furthermore, the spinning end includes a spinning assembly box 66, in which a vacuum adsorption shaft 661 is movably mounted. One end of the vacuum adsorption shaft 661 is connected to an air pump, and the other end is provided with a rotary guide groove 662.

[0067] The vacuum adsorption shaft 661 is interactively mounted and slidably fitted in the spinning assembly box 66. This sliding connection is damped. Furthermore, the end of the vacuum adsorption shaft 661, through the rotating guide groove 662, cooperates with the pin on the spinning assembly box 66, so that when the spinning assembly box 66 is pressed down, the vacuum adsorption shaft 661 can rotate through the rotating guide groove 662 to complete the rotational pressing action. This rotation can overcome the problem of the idler gear colliding with other gears on the motor.

[0068] Furthermore, a spinning auxiliary plate 67 is also provided on the outer wall of the spinning assembly box 66, and the spinning auxiliary plate 67 is driven by a spinning auxiliary cylinder 671.

[0069] During the spinning process, the spinning auxiliary plate 67 is pressed down together with the spinning assembly box 66 to assist in pressing the motor parts on the positioning fixture, preventing the motor parts from shifting during the spinning process of the idler gear, thus improving the overall assembly efficiency and quality.

[0070] Using this invention, the entire product positioning tooling is rotated via a circular conveyor track, which reduces the space occupied by the equipment and improves the utilization efficiency of the positioning tooling; it integrates motor assembly, screw fastening, gear assembly and finished product receiving processes; the combination of multiple workstations and components reduces the time cost of manual turnover and operation, improves the overall motor component assembly efficiency and ensures the quality of motor assembly.

[0071] The specific embodiments described herein are merely illustrative examples illustrating the spirit of the invention. Those skilled in the art to which this invention pertains may make various modifications or additions to the described specific embodiments or use similar methods to substitute them, without departing from the scope defined by the spirit of the invention.

Claims

1. An automated motor assembly device, characterized in that, The equipment includes a frame (1) and a circular conveyor track (2). The frame (1) is equipped with a platform (11). The circular conveyor track (2) is located in the middle of the platform (11). The outer ring of the circular conveyor track (2) is provided with a motor feeding assembly (5), a shaft plate feeding assembly, a shaft plate screw locking assembly (4), a small gear assembly assembly (7), an idler gear screw mounting assembly (6), a secondary gear screw mounting assembly (8), and a receiving assembly (9). Several product positioning fixtures (21) are mounted on the circular conveyor track (2). The motor feeding assembly (5), the shaft plate feeding assembly, and the receiving assembly (9) differ in the material gripped by the actuator. An oiling assembly (3) is provided between the small gear assembly (7) and the idler gear assembly (6), and between the idler gear assembly (6) and the secondary gear assembly (8); and an oil hole venting assembly is provided after the oiling assembly (3); The specific assembly method is as follows: Open the circular conveyor track (2) and drive the product positioning fixture (21) to flow between the components. The product positioning fixture (21) first enters the motor loading position. The motor loading component takes the motor out from the centralized incoming material and transports it to the product positioning fixture (21). Then it enters the shaft plate loading position. The shaft plate loading group assembles the motor shaft plate on the motor. Then, through the shaft plate screw fastening assembly (4), the motor shaft plate and the motor are screwed together. The product positioning fixture (21) moves to the position below the small gear assembly assembly (7) and assembles the small gear on the motor main shaft. Then, the first oiling is performed. After oiling, it enters the idler wheel spinning position and is assembled by the idler wheel spinning assembly assembly (6). The oiling operation is performed again. After oiling, it enters the auxiliary gear spinning position and is spun by the auxiliary gear spinning assembly assembly (8). Finally, it enters the receiving position and is collected into the material tray by the receiving assembly (9) to wait for the finished product turnover. The idler wheel spin-on assembly (6) includes an idler wheel feeding module (61), an idler wheel inspection camera (62), an idler wheel feeder (63), an oil tank (64), a spinning drive module, and a spinning end, all of which are mounted on the equipment platform. The end of the idler wheel feeding module (61) is connected to the initial section of the idler wheel feeder (63). The spinning drive module is mounted on the side of the idler wheel feeder (63) via a spinning frame (65). The oil tank (64) is located on the idler wheel feeder (63) at the discharge end. The spinning end is assembled on the execution end of the spinning drive module. The lubricating oil tank (64) is installed at the end of the idler wheel feeder (63) via the feeder side frame (633). The idler wheel feeder (63) is provided with an idler wheel pusher block (632) driven by the feeder pusher cylinder (631) at the end. The outer ring of the lubricating oil tank (64) is provided with a leak-proof groove. The spinning drive module includes an idler wheel linear module (651) and an idler wheel pressing motor (652); the idler wheel pressing motor (652) is mounted on the moving end of the idler wheel linear module (651) via a linear module L plate (655); an idler wheel pressing slide plate (654) is slidably mounted on the linear module L plate (655); the output end of the idler wheel pressing motor (652) is connected to a threaded screw; the idler wheel pressing slide plate (654) is mounted on the threaded screw and driven by the idler wheel pressing motor (652); a spinning end is mounted on the idler wheel pressing slide plate (654); the spinning end includes a spinning assembly box (66); a vacuum adsorption shaft (661) is movably mounted in the spinning assembly box (66); one end of the vacuum adsorption shaft (661) is connected to an air pump; and a rotary guide groove (662) is provided at the end.

2. The automated motor assembly equipment according to claim 1, characterized in that, The motor feeding assembly (5) includes a storage rack (52), a storage lifting assembly, a tray displacement assembly, a feeding X-transfer assembly, a feeding Y-transfer assembly, and a feeding transfer assembly; the storage lifting assembly is mounted below the equipment table (11), the storage rack (52) is installed at the execution end of the storage lifting assembly and is located on the side of the equipment table (11) to support the tray; the tray displacement assembly, the feeding X-transfer assembly, the feeding Y-transfer assembly, and the feeding transfer assembly are all mounted on the equipment table (11); the tray displacement assembly is located in front of the storage rack (52), the feeding X-transfer assembly straddles the tray displacement assembly, and the feeding Y-transfer assembly and the feeding transfer assembly are located on the side of the tray displacement assembly.

3. The automated motor assembly equipment according to claim 2, characterized in that, The material storage lifting assembly is mounted below the equipment table (11) via a lifting fixing frame (55) and includes a material storage lifting motor (551), a lifting reducer (552), a lifting connecting block (553), and a lifting screw (554). One end of the lifting screw (554) is mounted on the lifting fixing frame (55), and the other end is mounted on the lifting reducer (552). The lifting motor (551) is mounted on the lifting fixing frame (55) and its output end drives the lifting reducer (552). The lifting connecting block (553) is mounted on the lifting screw (554), and the other end is fixed to the material storage rack body (52). A material storage tripod (521) is provided at the bottom of the material storage rack body (52), and a material tray (522) is mounted inside. The material storage tripod (521) is slidably connected to the rear end face of the lifting fixing frame (55), and the material storage tripod (521) is fixedly connected to the lifting connecting block (553).

4. The automated motor assembly equipment according to claim 1, characterized in that, The shaft plate screw fastening assembly (4) includes a screw fastening displacement module (41), a screw fastening lifting module (42), a screw fastening motor (43), a screw fastening auxiliary cylinder (44), and a screw box (46). The screw fastening displacement module (41) is set on the equipment table (11), the screw fastening lifting module (42) is assembled on the execution end of the screw fastening displacement module (41), and the screw fastening motor (43) is installed on the execution end of the screw fastening lifting module (42). The screw fastening auxiliary cylinder (44) is installed on the side of the annular conveying track (2), and the extension end of the screw fastening auxiliary cylinder (44) is connected to the screw fastening pressure plate (45) for pressing the motor shaft plate.

5. The automated motor assembly equipment according to claim 1, characterized in that, The oiling assembly (3) includes an oiling frame (31), an oil storage cylinder (32), an oiling X assembly, an oiling Y assembly, an oiling telescopic cylinder (39), and an oiling needle (38). The oiling frame (31) is a set of parallel vertical plates fixed on the equipment table. A flat support plate (312) and a vertical support plate (311) are installed inside the oiling frame (31). The oiling Y assembly is mounted on the oiling frame (31) through the flat support plate (312) and the vertical support plate (311). The oiling X assembly is mounted at the end of the oiling Y assembly. The oiling telescopic cylinder (39) is mounted at the end of the oiling X assembly. The oiling needle (38) is located at the end of the oiling telescopic cylinder (39). The oil storage cylinder (32) is installed on the side of the oiling frame (31). Oiling position sensors (33) are installed on the top of the oiling frame (31) and on the oiling Y assembly.

6. The automated motor assembly equipment according to claim 5, characterized in that, The oiling X assembly includes an oiling X motor (361), an X-axis connecting block (362), and an X-axis sliding plate (363). The oiling X motor (361) is fixed on the Y-axis assembly plate (344), and its output end is connected to the X-axis connecting block (362) via a lead screw. The X-axis connecting block (362) is sleeved on the lead screw, and its other end face is fixedly connected to the X-axis sliding plate (363). The X-axis sliding plate (363) is slidably assembled on the Y-axis assembly plate (344) via an X-axis sliding block (37). An oiling telescopic cylinder (39) is installed at the end of the X-axis sliding plate (363).