An all-in-one stator paint stripping, kinking and tin dipping test machine

By designing a stator paint removal, kink and tin immersion test machine, the stator processing is automated, and the problems of low efficiency and high cost in the existing technology are solved, processing efficiency is improved and manpower is saved.

CN115514178BActive Publication Date: 2025-08-12ZHEJIANG JIUZHOU NEW ENERGY TECHNOLOGY CO LTD
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Patent Information

Application Number
CN202211256853.2
Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
Filing Date
2022-10-14
Publication Date
2025-08-12
Estimated Expiration
2042-10-14

AI Technical Summary

Technical Problem

The existing stator processing process requires a lot of manual participation, resulting in low processing efficiency and high cost.

Method used

Design a stator paint removal, kink, tin immersion test machine, which includes a turntable and multiple components. Through the turntable, the stator is passed through paint removal, kink, wire cutting, tin immersion and conduction testing components to achieve automated processing.

Benefits of technology

It improves the efficiency of stator processing, reduces labor demand, and saves labor costs.

✦ Generated by Eureka AI based on patent content.

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Abstract

The present application relates to a stator stripping, kinking, tinning and testing all-in-one machine, comprising a frame, a turntable rotatably mounted on the frame, a plurality of stator fixing seats for fixing the stator circumferentially arranged on the turntable, a stripping assembly, a kinking assembly, a wire cutting assembly, a tinning assembly and a continuity test assembly arranged in sequence on the frame circumferentially around the turntable, and each stator fixing seat passes through the stripping assembly, the kinking assembly, the wire cutting assembly, the tinning assembly and the continuity test assembly one by one to process the wire ends on the fixed stator. The present application fixes the stator on the stator fixing seat, and passes the stator through the stripping assembly, the kinking assembly, the wire cutting assembly, the tinning assembly and the continuity test assembly one by one through the turntable, thereby completing the stripping, kinking, wire cutting, tinning and continuity testing of the stator wire ends. The present application has high efficiency in completing the above-mentioned stator processing, and only requires one person to perform it, which effectively saves manpower.
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Description

Technical Field

[0001] The present application relates to the technical field of stator processing equipment, and in particular to an all-in-one stator paint stripping, kinking, and tin dipping testing machine. Background Art

[0002] With the development of society, electric bicycles have experienced rapid growth. Electric vehicle hub motors have also seen rapid development. Various designs have been proposed. A common electric vehicle hub motor consists of a main shaft, a rim, an end cap, a stator, and a rotor. The stator is fixedly connected to the main shaft, the rotor is fixedly connected to the rim, the end cap is positioned on the main shaft, and the rim is fixedly connected to the end cap.

[0003] The stator is wound with winding coils, so wire leads are drawn from it. These wire leads include three outgoing wire terminals and three common terminals. The three outgoing wire terminals are used to connect to the power supply, and the three common terminals need to be twisted together. During stator processing, the outgoing wire terminals and common terminals are stripped of paint separately, each outgoing wire terminal is twisted, and the three common terminals are twisted together. After the outgoing wire terminals and the twisted common terminals are dipped in tin, each outgoing wire terminal and the twisted common terminals are finally tested for continuity.

[0004] Among them, each step of the above-mentioned stator processing requires manual participation, which causes the stator processing to occupy a large manual processing cost and results in low processing efficiency. Therefore, there is room for improvement. Summary of the Invention

[0005] In order to improve the processing efficiency of the stator, the present application provides a stator paint stripping, kinking and tin dipping testing all-in-one machine.

[0006] The stator paint stripping, kinking and tin immersion testing all-in-one machine provided in this application adopts the following technical solution:

[0007] A stator paint stripping, kinking, tin dipping and testing all-in-one machine comprises a frame and a turntable rotatably mounted on the frame, wherein a plurality of stator fixing seats for fixing the stator are circumferentially arranged on the turntable, and a paint stripping assembly, a kinking assembly, a wire cutting assembly, a tin dipping assembly and a continuity testing assembly are sequentially arranged on the frame circumferentially around the turntable, and each of the stator fixing seats passes through the paint stripping assembly, the kinking assembly, the wire cutting assembly, the tin dipping assembly and the continuity testing assembly one by one to process the wire ends on the fixed stator.

[0008] Optionally, the paint stripping assembly includes a first paint stripping servo slide arranged on a frame, a second paint stripping servo slide arranged on the first paint stripping servo slide, and a third paint stripping servo slide arranged on the second paint stripping servo slide, wherein the third paint stripping servo slide is provided with a paint stripping part, and the first paint stripping servo slide, the second paint stripping servo slide and the third paint stripping servo slide are used to drive the paint stripping part to move forward, backward, left, right, and up and down.

[0009] Optionally, the paint stripping part includes a paint stripping support frame arranged on a third paint stripping servo slide, and two paint stripping rollers rotatably mounted on the paint stripping support frame, the wheel surfaces of the two paint stripping rollers are opposite to each other and form a paint stripping gap, and the paint stripping support frame is provided with a paint stripping drive part for driving the two paint stripping rollers to rotate in opposite directions.

[0010] Optionally, the paint stripping support frame is provided with a paint collection cover covering the outer sides of the two paint stripping rollers, the paint collection cover is provided with a paint collection port, and the paint collection port is connected to a paint dust suction pipe.

[0011] Optionally, the kinking assembly includes a first kinking servo slide arranged on the frame, a second kinking servo slide arranged on the first kinking servo slide, and a third kinking servo slide arranged on the second kinking servo slide, wherein the third kinking servo slide is provided with a kinking portion, and the first kinking servo slide, the second kinking servo slide and the third kinking servo slide are used to drive the kinking portion to move forward, backward, left, right, and up and down;

[0012] The twisting part includes a twisting support frame arranged on the third twisting servo slide, the twisting support frame is provided with a twisting rotating motor, the twisting rotating motor is connected to a twisting finger cylinder, and the twisting finger cylinder is connected to a twisting claw.

[0013] Optionally, a support base is fixed on the kink support frame, a rotating cavity is passed through the middle of the support base along its axial direction, a rotating table is rotatably mounted on the support base, and a connecting shaft is provided on the rotating table, which is inserted into the rotating cavity and connected to the kink rotating motor;

[0014] The support base is provided with a first air vent and a second air vent, the rotating table is provided with a third air vent and a fourth air vent, the third air vent and the fourth air vent are respectively connected to the two air ports of the twisting finger cylinder through air pipes, and the connecting shaft is provided with a first air channel respectively connected to the first air port and the third air port, and a second air channel respectively connected to the second air port and the fourth air port.

[0015] Optionally, the frame is provided with a line-straightening assembly on one side of the twisting assembly, the line-straightening assembly is used to integrate the three common ends of the line ends together, the line-straightening assembly includes a first line-straightening servo slide provided on the frame, and a second line-straightening servo slide provided on the first line-straightening servo slide, wherein the second line-straightening servo slide is provided with a line-straightening portion;

[0016] The line straightening part includes a line straightening support frame arranged on the second line straightening servo slide, a line straightening cylinder is arranged on the line straightening support frame, a line straightening finger cylinder is connected to the output rod of the line straightening cylinder, a line straightening finger cylinder is connected to the line straightening finger cylinder, and a line head shaping claw is connected to the line straightening cylinder. The line straightening cylinder is used to provide driving force for the line straightening finger cylinder toward one side of the stator fixing seat.

[0017] Optionally, the wire trimming assembly includes a wire trimming column arranged on the frame, and a wire trimming lifting cylinder arranged on the wire trimming column, the output rod of the wire trimming lifting cylinder is connected to a wire trimming support frame, a first wire trimming plate and a second wire trimming plate cooperating with the first wire trimming plate are slidably mounted on the wire trimming support frame, a first wire trimming power cylinder for driving the first wire trimming plate to move is provided on the wire trimming support frame, and a second wire trimming power cylinder for driving the second wire trimming plate to move is provided on the wire trimming support frame.

[0018] Optionally, the tin immersion assembly includes a flux immersion portion and a solder immersion portion provided on one side of the flux immersion portion;

[0019] The flux dipping unit includes a flux support frame vertically slidably mounted on a frame, a flux furnace is provided on the flux support frame, and a flux lifting cylinder is provided on the frame for driving the flux support frame to move;

[0020] The solder dipping unit comprises a solder support frame vertically slidably mounted on a frame, a solder furnace is arranged on the solder support frame, and a solder lifting cylinder for driving the solder support frame to move is arranged on the frame.

[0021] Optionally, the conduction test assembly includes a first test support frame and a second test support frame arranged on the rack;

[0022] The first test support frame is provided with an insulation resistance measuring cylinder, and the output rod of the insulation resistance measuring cylinder is connected to an insulation resistance measuring head;

[0023] The second test support frame is provided with a first test cylinder, a second test cylinder and a third test cylinder. The first test cylinder is connected to a first test clamp, the second test cylinder is connected to a second test clamp, and the third test cylinder is connected to a third test clamp.

[0024] In summary, this application includes at least one of the following beneficial technical effects:

[0025] The present application fixes the stator on the stator fixing seat, and uses a turntable to pass the stator through the paint stripping assembly, twisting assembly, wire cutting assembly, tin dipping assembly and conductivity testing assembly one by one, thereby completing the paint stripping, twisting, wire cutting, tin dipping and conductivity testing of the stator wire end. In addition, the present application has high processing efficiency for the above-mentioned stator, and only requires one person to fix the stator to be processed on the stator fixing seat, and to remove the processed stator from the stator fixing seat, which effectively saves manpower. BRIEF DESCRIPTION OF THE DRAWINGS

[0026] Figure 1 This is the first overall structural diagram of the stator paint stripping, kinking and tin immersion testing all-in-one machine.

[0027] Figure 2 This is the second overall structural diagram of the stator paint stripping, kinking and tin immersion testing all-in-one machine.

[0028] Figure 3 This is a schematic diagram of the installation of the stator on the stator fixing seat.

[0029] Figure 4 It is a structural diagram of the paint stripping component.

[0030] Figure 5 It is a schematic diagram of the structure of the kink component.

[0031] Figure 6 It is a cross-sectional schematic diagram of the kink portion.

[0032] Figure 7 It is a structural diagram of the entire line component.

[0033] Figure 8 It is a structural diagram of the thread trimming component.

[0034] Figure 9 It is a structural diagram of the immersion tin component.

[0035] Figure 10 It is a structural diagram of the continuity test component.

[0036] Explanation of the accompanying symbols: 1. Turntable; 2. CNC dividing plate; 3. Stator fixing seat; 4. Stator sleeve locating pin; 5. Stator bracket locating pin; 6. Paint stripping assembly; 61. First paint stripping servo slide; 62. Second paint stripping servo slide; 63. Third paint stripping servo slide; 64. Paint stripping part; 641. Paint stripping support frame; 642. Paint stripping roller; 643. Rotating shaft; 644. Rotating mounting block; 65. Paint stripping drive part; 651. Paint stripping drive motor; 652. Driving gear; 653. Driven gear; 66. Paint collection cover; 7. Kink assembly; 71. First kink Servo slide; 72. Second kink servo slide; 73. Third kink servo slide; 74. Kink part; 741. Kink support frame; 742. Kink rotation motor; 743. Kink finger cylinder; 744. Kink claw; 745. Support base; 746. Rotary table; 747. Connecting shaft; 748. First vent; 749. Second vent; 750. Third vent; 751. Fourth vent; 752. First air duct; 753. Second air duct; 754. Annular groove; 755. Sealing ring; 8. Whole line assembly; 81. First whole line servo slide; 82. Second whole-line servo slide; 83. Whole-line unit; 831. Whole-line support frame; 832. Whole-line cylinder; 833. Whole-line finger cylinder; 834. Thread shaping claw; 9. Thread trimming assembly; 91. Thread trimming column; 92. Thread trimming lifting cylinder; 93. Thread trimming support frame; 94. First thread trimming plate; 95. Second thread trimming plate; 96. First tool; 97. Second tool; 98. First thread trimming power cylinder; 99. Second thread trimming power cylinder; 10. Tinning assembly; 101. Flux dipping unit; 1011. Flux support frame; 1012. Flux guide frame; 10 13. Flux furnace; 1014. Flux lifting cylinder; 102. Solder dipping unit; 1021. Solder support frame; 1022. Solder guide frame; 1023. Solder furnace; 1024. Solder lifting cylinder; 11. Continuity test assembly; 111. First test support frame; 112. Second test support frame; 113. Insulation resistance measuring cylinder; 114. Insulation resistance measuring head; 115. First test cylinder; 116. Second test cylinder; 117. Third test cylinder; 118. First test clamp; 119. Second test clamp; 120. Third test clamp. DETAILED DESCRIPTION

[0037] The following is combined with Figure 1-10 This application is described in further detail.

[0038] According to the related prior art, the stator is wound with winding coils, so wire leads are drawn out of the stator. The wire leads include three outgoing wire terminals and three common terminals. The three outgoing wire terminals are used to connect to the power supply, and therefore the three common terminals need to be twisted together. During stator processing, the outgoing wire terminals and the common terminals are stripped of paint separately, each outgoing wire terminal is twisted, and the three common terminals are twisted together. After the outgoing wire terminals and the twisted common terminals are dipped in tin, each outgoing wire terminal and the twisted common terminals are finally tested for continuity.

[0039] In view of the fact that there are many stator processing steps mentioned above, the stator paint stripping, kinking and tin dipping testing all-in-one machine of the present application can complete all the above stator processing steps at one time, effectively improving the efficiency of stator processing, and does not require extra personnel, effectively saving labor.

[0040] Specifically, a stator paint stripping, kinking, tinning and immersion testing machine, referring to Figure 1 As shown, it includes a frame and a turntable 1 rotatably mounted on the frame, a rotating shaft is provided at the center position of the turntable 1, a CNC dividing disk 2 is provided on the frame, and the rotating shaft of the turntable 1 is connected to the CNC dividing disk 2. The CNC dividing disk 2 can drive the turntable 1 to rotate a fixed angle each time.

[0041] Reference Figure 1 and Figure 3 As shown, a plurality of stator fixing seats 3 are circumferentially arranged on the rim of the turntable 1. The stator fixing seats 3 are used to fix the stator. The stator sleeve locating pins 4 and the stator bracket locating pins 5 are provided on the stator fixing seats 3. The stator sleeve stator pins and the stator bracket locating pins 5 are respectively used to connect with the shaft hole and the locating hole on the stator, thereby realizing the fixation of the stator on the stator fixing seat 3.

[0042] In one embodiment, eight stator fixing seats 3 are provided, and the eight stator fixing seats 3 are arranged at equal intervals on the turntable 1, so that the turntable 1 can be spatially divided into eight processing stations, wherein each station implements a processing process of the stator. After the stator is processed at one station, the turntable 1 rotates and brings the stator to the next station for processing until all processing processes are completed.

[0043] It is worth noting that the first workstation is an installation workstation, which is used to remove the machined stator from the stator fixing seat 3 and fix the stator to be machined onto the stator fixing seat 3 .

[0044] The following is a description of each station in stator processing.

[0045] Reference Figure 1 and Figure 2As shown, a paint stripping assembly 6, a twisting assembly 7, a wire cutting assembly 9, a tinning assembly 10 and a continuity test assembly 11 are sequentially arranged on the frame around the turntable 1. Each stator fixing seat 3 passes through the paint stripping assembly 6, the twisting assembly 7, the wire cutting assembly 9, the tinning assembly 10 and the continuity test assembly 11 one by one to process the wire ends on the fixed stator.

[0046] Reference Figure 1 and Figure 4 As shown, in this application, two paint stripping assemblies 6 are provided, and the two paint stripping assemblies 6 are respectively arranged at the second station and the third station. The paint stripping assembly 6 on the second station is used to strip the paint on the three common ends of the stator, and the paint stripping assembly 6 on the third station is used to strip the paint on the three outgoing wire ends of the stator.

[0047] The paint stripping assembly 6 includes a first paint stripping servo slide 61 provided on a frame, a second paint stripping servo slide 62 provided on the first paint stripping servo slide 61, and a third paint stripping servo slide 63 provided on the second paint stripping servo slide 62. A paint stripping unit 64 is provided on the third paint stripping servo slide 63. The first paint stripping servo slide 61, the second paint stripping servo slide 62, and the third paint stripping servo slide 63 are used to drive the paint stripping unit 64 to move forward, backward, left, right, and up and down. In this embodiment, the first paint stripping servo slide 61 is used to drive the second paint stripping servo slide 62 to move forward and backward, the second paint stripping servo slide 62 is used to drive the third paint stripping servo slide 63 to move up and down, and the third paint stripping servo slide 63 is used to drive the paint stripping unit 64 to move left and right, thereby achieving the front and back, left and right, and up and down movement of the paint stripping unit 64 below the stator fixing seat 3.

[0048] The first paint stripping servo slide 61 includes a servo track and a sliding table slidably installed on the servo track. A transmission screw is rotatably installed on the servo track, and the transmission screw is threadedly connected to the sliding table. A servo motor connected to the transmission screw is provided on the servo track. Thus, the transmission screw is driven to rotate by the servo motor, and the transmission screw then drives the sliding table to move on the servo track.

[0049] It is worth noting that the first paint stripping servo slide 61 is arranged on the frame, that is, the servo track of the first paint stripping servo slide 61 is fixed to the frame via a fixing plate. The second paint stripping servo slide 62 is arranged on the first paint stripping servo slide 61, that is, the servo track of the second paint stripping servo slide 62 is fixed to the sliding table of the first paint stripping servo slide 61. The third paint stripping servo slide 63 is arranged on the second paint stripping servo slide 62, that is, the servo track of the third paint stripping servo slide 63 is fixed to the sliding table of the second paint stripping servo slide 62. The paint stripping unit 64 is arranged on the third paint stripping servo slide 63, that is, the paint stripping unit 64 is arranged on the sliding table of the third paint stripping servo slide 63.

[0050] The first paint stripping servo slide 61 , the second paint stripping servo slide 62 and the third paint stripping servo slide 63 have the same structure, and the present embodiment does not repeat the structure of the second paint stripping servo slide 62 and the third paint stripping servo slide 63 .

[0051] Reference Figure 4 As shown, the paint stripping unit 64 includes a paint stripping support frame 641 and two paint stripping rollers 642. The paint stripping support frame 641 is fixedly mounted on the slide platform of the third paint stripping servo slide 63. The two paint stripping rollers 642 are rotatably mounted on the paint stripping support frame 641. Specifically, the paint stripping support frame 641 is provided with two rotatable mounting blocks 644. The paint stripping rollers 642 are provided with a rotating shaft 643, and the paint stripping rollers 642 are rotatably mounted on the rotating mounting blocks 644 via the rotating shaft 643. The two paint stripping rollers 642 are arranged side by side, with the wheel surfaces of the two paint stripping rollers 642 facing each other and forming a paint stripping gap between the wheel surfaces of the two paint stripping rollers 642. Furthermore, the paint stripping support frame 641 is provided with a paint stripping drive unit 65 for driving the two paint stripping rollers 642 to rotate in opposite directions.

[0052] The paint stripping drive unit 65 includes a paint stripping drive motor 651, which is fixedly mounted on the paint stripping support frame 641. The output shaft of the paint stripping drive motor 651 is connected to the rotating shaft 643 of one of the paint stripping rollers 642 via a gear chain structure. A driving gear 652 is mounted on the rotating shaft 643 of one of the paint stripping rollers 642, and a driven gear 653 is mounted on the rotating shaft 643 of the other paint stripping roller 642, which meshes with the driving gear 652. Thus, the paint stripping drive motor 651 drives one of the paint stripping rollers 642 to rotate, and the meshing of the driving gear 652 and the driven gear 653 drives the other paint stripping roller 642 to rotate, so that the two paint stripping rollers 642 rotate in opposite directions.

[0053] Reference Figure 4 As shown, the paint stripping support frame 641 is provided with a paint collection hood 66 that covers the outside of two paint stripping rollers 642. The paint collection hood 66 is located below the two paint stripping rollers 642. The bottom of the paint collection hood 66 is provided with a paint collection port. The bottom of the paint collection hood 66 is an inclined surface that converges toward the paint collection port. The paint collection port is connected to the paint collection port. Therefore, after the paint stripping rollers 642 remove the enameled wire from the thread end, the paint will fall into the paint collection hood 66, then enter the paint collection port and be sucked away by the paint suction pipe.

[0054] It is worth noting that the two paint stripping assemblies 6 have the same structure, and this application will not repeat them. When the two paint stripping assemblies 6 are in operation, they can effectively strip the paint off the enameled wire on the stator wire head by moving forward, backward, left, right, and up and down.

[0055] Reference Figure 2 and Figure 5As shown, the twisting assembly 7 is set at the fourth station. The twisting assembly 7 is used to twist the paint-stripped wire ends and straighten the wire ends in the vertical direction. The twisting assembly 7 not only twists and straightens the three outgoing wire ends of the stator wire ends, but also twists and straightens the three common ends together.

[0056] The kinking assembly 7 includes a first kinking servo slide 71 arranged on the frame, a second kinking servo slide 72 arranged on the first kinking servo slide 71, and a third kinking servo slide 73 arranged on the second kinking servo slide 72. The third kinking servo slide 73 is provided with a kinking part 74. The first kinking servo slide 71, the second kinking servo slide 72 and the third kinking servo slide 73 are used to drive the kinking part 74 to move forward, backward, left, right and up and down.

[0057] The first kink servo slide 71 includes a servo track, a transmission screw, a slide table, and a servo motor. The slide table is slidably mounted on the servo track, the transmission screw is rotatably mounted on the servo track, and the transmission screw is threadedly connected to the slide table. The servo motor is fixed to the servo track and connected to the transmission screw. The servo motor drives the transmission screw to rotate, thereby achieving movement of the slide table on the servo track.

[0058] The first kink servo slide 71 has the same structure as the second kink servo slide and the third kink servo slide 73, and will not be repeated in this embodiment. The first kink servo slide 71 is arranged on the frame, that is, the servo track of the first kink servo slide 71 is fixed on the frame. The second kink servo slide 72 is arranged on the first kink servo slide 71, that is, the servo track of the second kink servo slide 72 is fixed on the sliding table of the first kink servo slide 71. The third kink servo slide 73 is arranged on the second kink servo slide 72, that is, the servo track of the third kink servo slide 73 is fixed on the sliding table of the second kink servo slide 72. The kink portion 74 is arranged on the third kink servo slide 73, that is, the kink portion 74 is arranged on the sliding table of the third kink servo slide 73.

[0059] Reference Figure 5 As shown, the kinking part 74 includes a kinking support frame 741 and a kinking rotation motor 742, the kinking support frame 741 is fixed on the sliding table of the third kinking servo slide 73, and the kinking rotation motor 742 is fixed on the kinking support frame 741, wherein the kinking rotation motor 742 is connected to the kinking finger cylinder 743, and the kinking finger cylinder 743 is connected to the kinking claw 744.

[0060] It is worth noting that, referring to Figure 6As shown, a support base 745 is fixed on the kink support frame 741, and a rotating cavity is passed through the middle of the support base 745 along its axial direction. A rotating platform 746 is rotatably installed on the support base 745, and the rotating platform 746 is provided with a connecting shaft 747 which is inserted into the rotating cavity and connected to the kink rotating motor 742.

[0061] A first air vent 748 and a second air vent 749 are provided on the support base 745, and the first air vent 748 and the second air vent 749 are connected to the air pipe of the external air source. A third air vent 750 and a fourth air vent 751 are provided on the rotating table 746, and the third air vent 750 and the fourth air vent 751 are respectively connected to the two air ports of the kinking finger cylinder 743 through the air pipe. The two air ports of the kinking finger cylinder 743 are used to realize air intake and exhaust, thereby realizing the opening and closing of the kinking claw 744.

[0062] The connecting shaft 747 is provided with a first air duct 752, which communicates with the first and third air ducts 748 and 750, respectively, and a second air duct 753, which communicates with the second and fourth air ducts 749 and 751, respectively. Annular grooves 754 are provided in the rotating chamber at corresponding locations of the first and second air ducts 748 and 749, and sealing rings 755 are provided at the upper and lower ends of the connecting shaft 747 and the rotating chamber. Thus, through the arrangement of the support base 745 and the rotating platform 746, the kink rotating motor 742 can drive the kink finger cylinder 743 to rotate freely without worrying about tangling of the kink finger cylinder 743 due to the air pipe connection.

[0063] The twisting unit 74 clamps the three stator wire ends and twists them. It can move up and down under the action of the third twisting servo slide 73, thereby twisting and straightening the wire ends at the same time. The second twisting servo slide 72 and the third twisting servo slide 73 move to each wire end to twist and straighten them.

[0064] The stator wire head has three common ends, so when twisting the three common ends, the three common ends need to be integrated together first.

[0065] Reference Figure 2 and Figure 7 As shown, the frame is provided with a line-straightening assembly 8 on one side of the twisting assembly 7. The line-straightening assembly 8 is used to integrate the three common ends of the wire ends together. Specifically, the line-straightening assembly 8 first integrates the first common end to the corresponding position, and then integrates the second common end and the first common end together. After the twisting assembly 7 twists and straightens the first common end and the second common end, the line-straightening assembly 8 gathers the third common end to the first and second common ends that have been twisted, and the twisting assembly 7 performs another twisting to twist the three common ends together.

[0066] The line aligning assembly 8 includes a first line aligning servo slide 81 provided on a frame, and a second line aligning servo slide 82 provided on the first line aligning servo slide 81 . A line aligning portion 83 is provided on the second line aligning servo slide 82 .

[0067] The first servo platform 81 for the entire production line includes a servo track, a sliding platform, a drive screw, and a servo motor. The sliding platform is slidably mounted on the servo track, the drive screw is rotatably mounted on the servo track, and the drive screw is threadedly connected to the sliding platform. The servo motor is mounted on the servo track and connected to the drive screw. The structures of the first servo platform 81 and the second servo platform 82 are identical and will not be described in detail in this embodiment.

[0068] The first line-aligning servo slide 81 is mounted on a machine frame, i.e., its servo rails are fixed to the frame. The second line-aligning servo slide 82 is mounted on the first line-aligning servo slide 81, i.e., its servo rails are fixed to the slide table of the first line-aligning servo slide 81. The line-aligning unit 83 is mounted on the second line-aligning servo slide 82, i.e., its servo rails are fixed to the slide table of the second line-aligning servo slide 82.

[0069] Reference Figure 7 As shown, the line straightening part 83 includes a line straightening support frame 831 arranged on the second line straightening servo slide 82, and a line straightening cylinder 832 is arranged on the line straightening support frame 831. The output rod of the line straightening cylinder 832 is connected to the line straightening finger cylinder 833, and the line straightening finger cylinder 833 is connected to the line straightening claw 834. The line straightening cylinder 832 is used to provide a driving force for the line straightening finger cylinder 833 toward the side of the stator fixing seat 3, so that the line straightening claw 834 can integrate the first common end, the second common end, and the third common end together.

[0070] Reference Figure 2 and Figure 8 As shown, the wire cutting assembly 9 is set on the fifth work station. The wire cutting assembly 9 is used to cut the three twisted outgoing wire ends and the three twisted common ends to keep the end faces flush, thereby facilitating subsequent soldering.

[0071] The thread trimming assembly 9 includes a thread trimming column 91, a thread trimming lifting cylinder 92, a thread trimming support frame 93, a first thread trimming plate 94, and a second thread trimming plate 95. There are two thread trimming columns 91, which are fixed to the frame in the vertical direction. There are two thread trimming lifting cylinders 92, which are fixed to the thread trimming columns 91. The thread trimming support frame 93 is connected to the output rod of the thread trimming lifting cylinder 92. Thus, the thread trimming support frame 93 can move up and down under the action of the thread trimming lifting cylinder 92.

[0072] The first wire shearing plate 94 is slidably mounted on the wire shearing support frame 93, and the second wire shearing plate 95 is slidably mounted on the wire shearing support frame 93. The first wire shearing plate 94 and the second wire shearing plate 95 are located on the same horizontal plane. Four first cutters 96 are provided on the first wire shearing plate 94, and four second cutters 97 are provided on the second wire shearing plate 95. The positions of the first cutters 96 and the second cutters 97 are opposite to each other. The positions of the first cutters 96 and the second cutters 97 on the first wire shearing plate 94 and the second wire shearing plate 95 are respectively below the three wire outlet ends and the three common ends twisted together.

[0073] The trimming support frame 93 is provided with a first trimming power cylinder 98 for driving the first trimming plate 94 to slide, and the trimming support frame 93 is provided with a second trimming power cylinder 99 for driving the second trimming plate 95 to slide. Thus, through the cooperation of the first trimming plate 94 and the second trimming plate 95, the three output ends and the three common ends that are twisted together can be cut.

[0074] Reference Figure 2 and Figure 9 As shown, the tinning assembly 10 is installed at the sixth and seventh stations. Specifically, the tinning assembly 10 includes a fluxing unit 101 and a soldering unit 102 located to one side of the fluxing unit 101. The fluxing unit 101 is installed at the sixth station, and the soldering unit 102 is installed at the seventh station. The fluxing unit 101 is used to apply flux to the three output terminals and the twisted common terminal, while the soldering unit 102 is used to apply solder to the three output terminals and the twisted common terminal.

[0075] The flux dipping section 101 includes a flux support frame 1011 vertically slidably mounted on the frame, that is, the flux support frame 1011 is vertically slidably mounted on the frame through a flux guide rail frame 1012, and a flux furnace 1013 is provided on the flux support frame 1011, and there is flux in the flux furnace 1013, and a flux lifting cylinder 1014 is provided on the frame for driving the flux support frame 1011 to move.

[0076] The solder dipping section 102 includes a solder support frame 1021 vertically slidably mounted on a frame, that is, the solder support frame 1021 is vertically slidably mounted on the frame through a solder guide frame 1022. A solder furnace 1023 is provided on the solder support frame 1021, and solder is contained in the solder furnace 1023. A solder lifting cylinder 1024 is provided on the frame for driving the solder support frame 1021 to move.

[0077] Reference Figure 1 and Figure 10 As shown, the continuity test assembly 11 is set at the eighth station, and the continuity test assembly 11 is used to conduct a continuity test on the three outgoing terminals on the stator wire head and the stator insulation performance.

[0078] The continuity test assembly 11 includes a first test support frame 111 and a second test support frame 112 mounted on the frame. An insulation resistance test cylinder 113 is mounted on the first test support frame 111. An insulation resistance test head 114 is connected to the output rod of the insulation resistance test cylinder 113. The insulation resistance test cylinder 113 is used to provide a driving force for the insulation resistance test head 114 toward the stator mounting base 3.

[0079] A first test cylinder 115, a second test cylinder 116, and a third test cylinder 117 are mounted on the second test support frame 112. Each of these cylinders utilizes finger cylinders. A first test clamp 118 is connected to the first test cylinder 115, a second test clamp 119 is connected to the second test cylinder 116, and a third test clamp 120 is connected to the third test cylinder 117. The first test clamp 118 grips the first outlet terminal, the second test clamp 119 grips the second outlet terminal, and the third test clamp 120 grips the third outlet terminal, thereby performing a continuity test on the three outlet terminals. The comprehensive test is completed through information such as the low resistance value, insulation resistance value, and current value displayed on the comprehensive tester.

[0080] The implementation principle of the stator paint stripping, kinking and tin immersion testing all-in-one machine in the embodiment of the present application is as follows:

[0081] First, turn on the power switch of the stator paint stripping, kinking and tin immersion tester, and run the turntable 1 for one circle without load. If there is no abnormality, wait for the solder in the soldering furnace 1023 to melt into liquid and maintain a constant temperature.

[0082] At the first workstation, the staff installs the stator to be processed on the stator fixing seat 3, and the turntable 1 rotates to send the stator to the second workstation, and then to the subsequent third workstation, fourth workstation, fifth workstation, sixth workstation, seventh workstation and eighth workstation in sequence.

[0083] The stator is at the second workstation, and the paint stripping assembly 6 strips the paint from the three common ends of the stator wire ends.

[0084] The stator is at the third station, and another paint stripping assembly 6 strips the paint on the three outgoing wire ends of the stator wire head.

[0085] The stator is at the fourth workstation, and the twisting assembly 7 twists and straightens the three outgoing wire ends on the stator wire head, and twists and straightens the three common ends together.

[0086] The stator is at the fifth station, and the wire cutting assembly 9 cuts off the three twisted wire ends on the stator wire head and keeps them flush, and cuts off the three twisted common ends and keeps them flush.

[0087] The stator is at the sixth workstation, and the flux dipping unit 101 soaks the three outgoing wire ends and the three twisted common ends on the stator wire ends with flux.

[0088] The stator is at the seventh station, and the solder dipping unit 102 soaks the three outgoing wire ends and the three twisted common ends on the stator wire ends with solder.

[0089] The stator is at the eighth workstation, and the conductivity test component 11 performs a conductivity performance test on the three outgoing wire ends of the stator wire head. The comprehensive test is completed through the low resistance value, insulation resistance value, current value and other information displayed on the comprehensive tester, and an insulation test is performed on the peripheral side of the stator.

[0090] After the stator completes the above processes in sequence, the processed stator returns to the first workstation, and the staff removes the processed stator from the stator fixing seat 3 and installs the stator to be processed on the stator fixing seat 3 to enter the above processing processes.

[0091] 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 stator paint stripping, kinking and tinning test all-in-one machine, characterized in that: The invention comprises a frame and a turntable (1) rotatably mounted on the frame, wherein a plurality of stator fixing seats (3) for fixing the stator are circumferentially arranged on the turntable (1), and a paint stripping assembly (6), a twisting assembly (7), a wire cutting assembly (9), a tinning assembly (10) and a continuity test assembly (11) are sequentially arranged on the frame circumferentially around the turntable (1), and each stator fixing seat (3) passes through the paint stripping assembly (6), the twisting assembly (7), the wire cutting assembly (9), the tinning assembly (10) and the continuity test assembly (11) one by one to process the wire ends on the fixed stator; The kinking assembly (7) comprises a first kinking servo slide (71) arranged on a frame, a second kinking servo slide (72) arranged on the first kinking servo slide (71), and a third kinking servo slide (73) arranged on the second kinking servo slide (72), wherein a kinking portion (74) is arranged on the third kinking servo slide (73), and the first kinking servo slide (71), the second kinking servo slide (72) and the third kinking servo slide (73) are used to drive the kinking portion (74) to move forward, backward, left, right and up and down; The kinking portion (74) includes a kinking support frame (741) arranged on the third kinking servo slide (73), a kinking rotating motor (742) is arranged on the kinking support frame (741), a kinking finger cylinder (743) is connected to the kinking rotating motor (742), and a kinking claw (744) is connected to the kinking finger cylinder (743); a support base (745) is fixed on the kinking support frame (741), a rotating cavity is passed through the middle part of the support base (745) along its axial direction, a rotating platform (746) is rotatably mounted on the support base (745), and a connecting shaft (747) is provided on the rotating platform (746) which is inserted into the rotating cavity and connected to the kinking rotating motor (742); The frame is provided with a line assembly (8) on one side of the twisting assembly (7), and the line assembly (8) is used to integrate the three common ends of the thread ends together. The line assembly (8) includes a first line servo slide (81) provided on the frame, and a second line servo slide (82) provided on the first line servo slide (81), and a line strait portion (83) is provided on the second line servo slide (82); The line straightening part (83) includes a line straightening support frame (831) arranged on the second line straightening servo slide (82), a line straightening cylinder (832) is arranged on the line straightening support frame (831), an output rod of the line straightening cylinder (832) is connected to a line straightening finger cylinder (833), and a line straightening claw (834) is connected to the line straightening finger cylinder (833). The line straightening cylinder (832) is used to provide a driving force for the line straightening finger cylinder (833) toward one side of the stator fixing seat (3).

2. The stator paint stripping, kinking and tinning tester according to claim 1, characterized in that: The paint stripping assembly (6) includes a first paint stripping servo slide (61) arranged on a frame, a second paint stripping servo slide (62) arranged on the first paint stripping servo slide (61), and a third paint stripping servo slide (63) arranged on the second paint stripping servo slide (62), wherein a paint stripping portion (64) is arranged on the third paint stripping servo slide (63), and the first paint stripping servo slide (61), the second paint stripping servo slide (62) and the third paint stripping servo slide (63) are used to drive the paint stripping portion (64) to move forward, backward, left, right and up and down.

3. The stator paint stripping, kinking and tinning testing all-in-one machine according to claim 2, characterized in that: The paint stripping unit (64) includes a paint stripping support frame (641) arranged on a third paint stripping servo slide (63), and two paint stripping rollers (642) rotatably mounted on the paint stripping support frame (641), the wheel surfaces of the two paint stripping rollers (642) are opposite to each other and form a paint stripping gap, and a paint stripping driving unit (65) is provided on the paint stripping support frame (641) for driving the two paint stripping rollers (642) to rotate in opposite directions.

4. The stator paint stripping, kinking and tinning tester according to claim 3, characterized in that: The paint stripping support frame (641) is provided with a paint collecting cover (66) covering the outside of the two paint stripping rollers (642), and the paint collecting cover (66) is provided with a paint collecting port, and the paint collecting port is connected to a paint suction pipe.

5. The stator paint stripping, kinking and tinning tester according to claim 1, characterized in that: The support base (745) is provided with a first air vent (748) and a second air vent (749), and the rotating table (746) is provided with a third air vent (750) and a fourth air vent (751). The third air vent (750) and the fourth air vent (751) are respectively connected to the two air ports of the kinking finger cylinder (743) through air pipes, and the connecting shaft (747) is provided with a first air duct (752) respectively connected to the first air duct (748) and the third air duct (750), and a second air duct (753) respectively connected to the second air duct (749) and the fourth air duct (751).

6. The stator paint stripping, kinking and tinning testing all-in-one machine according to claim 1, characterized in that: The wire trimming assembly (9) comprises a wire trimming column (91) arranged on a frame, and a wire trimming lifting cylinder (92) arranged on the wire trimming column (91); an output rod of the wire trimming lifting cylinder (92) is connected to a wire trimming support frame (93); a first wire trimming plate (94) and a second wire trimming plate (95) matched with the first wire trimming plate (94) are slidably mounted on the wire trimming support frame (93); a first wire trimming power cylinder (98) for driving the first wire trimming plate (94) to move is arranged on the wire trimming support frame (93); and a second wire trimming power cylinder (99) for driving the second wire trimming plate (95) to move is arranged on the wire trimming support frame (93).

7. The stator paint stripping, kinking and tinning testing all-in-one machine according to claim 1, characterized in that: The tin immersion assembly (10) comprises a flux immersion portion (101) and a solder immersion portion (102) arranged on one side of the flux immersion portion (101); The flux dipping section (101) comprises a flux support frame (1011) vertically slidably mounted on a frame, a flux furnace (1013) being provided on the flux support frame (1011), and a flux lifting cylinder (1014) for driving the flux support frame (1011) to move being provided on the frame; The solder dipping section (102) comprises a solder support frame (1021) vertically slidably mounted on a frame, a solder furnace (1023) being provided on the solder support frame (1021), and a solder lifting cylinder (1024) for driving the solder support frame (1021) to move being provided on the frame.

8. The stator paint stripping, kinking and tinning tester according to claim 1, characterized in that: The conduction test assembly (11) comprises a first test support frame (111) and a second test support frame (112) arranged on a frame; An insulation resistance measuring cylinder (113) is provided on the first test support frame (111), and an insulation resistance measuring head (114) is connected to an output rod of the insulation resistance measuring cylinder (113); The second test support frame (112) is provided with a first test cylinder (115), a second test cylinder (116) and a third test cylinder (117); the first test cylinder (115) is connected to a first test clamp (118); the second test cylinder (116) is connected to a second test clamp (119); and the third test cylinder (117) is connected to a third test clamp (120).

Citation Information

Patent Citations

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  • Reactor assembly machine including paint removing device and assembly method

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  • Enameled wire coating removal machine

    CN206947718U