Commutator press assembly, method and device

By designing a rectifier press assembly assembly with automated feeding, material collection and pressing functions, the problems of low compression efficiency, high labor cost and difficult to guarantee in the prior art are solved, and high efficiency is achieved , automated rectifier pressing process.

CN110176838BActive Publication Date: 2025-02-11SHANGHAI TUOZHAN ELECTRICAL & MECHANICAL EQUIP
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Patent Information

Application Number
CN201910420856.7
Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
Filing Date
2019-05-20
Publication Date
2025-02-11
Estimated Expiration
2039-05-20

AI Technical Summary

Technical Problem

In the prior art, the rectifier pressing efficiency is low, the labor cost is high, and the pass rate is difficult to guarantee.

Method used

Design a rectifier press assembly assembly, including a feeding mechanism, a fixing mechanism, a positioning mechanism, a material collection mechanism, a pressing mechanism, a Hall sensor, etc., to ensure that the rectifier is on the rotor through automatic feeding, material collection and pressure assembly. Specified position on the axis.

Benefits of technology

Automatic pressing of the rectifier on the rotor is realized, which improves the pressing efficiency, reduces labor costs, and improves the product's pass rate.

✦ Generated by Eureka AI based on patent content.

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Abstract

The present invention discloses a commutator press-fitting assembly, method and device, including: a feeding mechanism for outputting a commutator; a fixing mechanism for fixing a rotor; a positioning mechanism for limiting the rotor; a picking mechanism for obtaining a commutator from the feeding mechanism; a press-fitting mechanism for press-fitting the commutator on the picking mechanism onto the rotating shaft of the rotor; an output Hall sensor for sensing the commutator on the feeding mechanism; and a press-fitting Hall sensor for sensing the position of the commutator on the rotating shaft. The present invention realizes the technical effects of automatic feeding of the commutator, automatic acquisition of the commutator, and automatic press-fitting of the commutator on the rotor, thereby improving the efficiency of commutator press-fitting and reducing labor costs; at the same time, by sensing the position of the commutator on the rotating shaft, it is ensured that the commutator is press-fitted at a specified position on the rotating shaft, thereby ensuring the product qualification rate.
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Description

Technical Field

[0001] The invention relates to the field of machinery, and in particular to a commutator press assembly, method and device. Background Art

[0002] Currently, the method of assembling commutators on rotors mostly adopts manual pressing, that is, the rotor is first fixed in the tooling, and the rotating shaft of the rotor is aligned with the pressing equipment for pressing the commutator; then the pressing equipment is manually loaded, that is, the commutator is placed on the pressing equipment; finally, the pressing equipment is operated to press the commutator onto the rotating shaft of the rotor. This method not only has high labor cost investment, but also has poor pressing efficiency. At the same time, due to the uneven level of operators, it is difficult to guarantee the press-fitting qualification rate. Summary of the invention

[0003] In order to solve the above problems, the present invention provides a commutator press assembly, method and device for solving the problems mentioned in the background technology.

[0004] The present invention provides a commutator press-fit assembly, which is used for press-fitting a commutator on a rotor, and comprises:

[0005] A feeding mechanism for outputting the commutator;

[0006] A fixing mechanism, used for fixing the rotor;

[0007] A positioning mechanism, used for limiting the position of the rotor;

[0008] A material taking mechanism, used for taking the commutator from the material feeding mechanism;

[0009] A press-fitting mechanism, used for press-fitting the commutator on the material taking mechanism onto the rotating shaft of the rotor;

[0010] Output Hall sensor, used to sense the commutator on the feeding mechanism;

[0011] The press-fitted Hall sensor is used to sense the position of the commutator on the rotating shaft.

[0012] In the above scheme, the rotor is fixed in the fixing mechanism, the positioning mechanism and the positioning mechanism are respectively located on both sides of the pressing mechanism, and the two ends of the rotating shaft of the rotor located in the fixing mechanism are respectively aligned with the positioning mechanism and the pressing mechanism;

[0013] The feeding mechanism is used to move the commutator between the fixing mechanism and the pressing mechanism;

[0014] The press-fitting mechanism extracts the commutator from the feeding mechanism and press-fits the commutator onto the rotating shaft of the rotor, and the positioning mechanism contacts one end of the rotor.

[0015] In the above scheme, the feeding mechanism includes a vibrating plate, an output slide, a feeding slide, and a feeding cylinder;

[0016] One end of the output slide is connected to the output port of the vibration plate, and the other end is connected to one end of the feeding slide; the vibration plate storing the commutator outputs the commutator to the feeding slide through the output slide;

[0017] The feeding slideway is perpendicular to the output slideway; the piston rod of the feeding cylinder is connected to the feeding slideway, so that the feeding slideway carrying the commutator moves between the pressing mechanism and the fixing mechanism.

[0018] In the above scheme, the fixing mechanism includes a rotor fixing block, a rotor clamping cylinder, a rotor clamping block, and a press-fitting channel;

[0019] The rotor fixing block comprises a rotor lower fixing block with a lower groove on the top and a rotor upper fixing block with an upper groove on the bottom;

[0020] The rotor is located between the rotor lower fixing block and the rotor upper fixing block, and the lower groove and the upper groove surround and clamp the rotor, so that the rotor is positioned in the fixing mechanism;

[0021] The rotor upper fixing block has a through slot communicating with the bottom groove and the top side thereof, the piston rod of the rotor clamping cylinder is connected to the rotor clamping block, the bottom of the rotor clamping block on the side facing away from the rotor clamping cylinder has a bayonet, the rotor clamping block passes through the through slot and contacts the rotor, so that the bayonet is engaged with the slot on the side of the rotor to prevent the rotor from rotating in the fixing mechanism;

[0022] Both ends of the rotor shaft pass through the rotor fixing block respectively; the press-fitting channel is located between the press-fitting mechanism and the rotor fixing block; one end of the shaft passes through the press-fitting channel, and the other end faces the positioning mechanism; after the press-fitting mechanism obtains the commutator from the feeding mechanism, it pushes the commutator into the press-fitting channel and presses the commutator onto the shaft located in the press-fitting channel.

[0023] In the above scheme, the positioning mechanism includes a rotor positioning cylinder and a rotor positioning block; the piston rod of the rotor positioning cylinder is connected to the rotor positioning block, and causes the rotor pressing block to move toward the rotor until the rotor pressing block contacts one end of the rotating shaft toward the positioning mechanism, so as to prevent the rotor from detaching from the fixing mechanism in the direction toward the rotor pressing block.

[0024] In the above scheme, the press-fitting mechanism includes a lead screw, a rotating motor, a moving block and a press-fitting sleeve;

[0025] One end of the lead screw is connected to the rotating shaft of the rotating motor, the other end of the lead screw passes through the moving block and is connected to the lead screw by a thread, and the rotating motor moves the moving block on the lead screw by rotating the lead screw;

[0026] The press-fitting sleeve is sleeved on the lead screw, and one end of the press-fitting sleeve is connected to the moving block; when the moving block is located between the lead screw and the end facing the rotating motor, the end of the lead screw facing away from the rotating motor will pass through the press-fitting sleeve.

[0027] In the above scheme, the material taking mechanism includes a push rod motor, a material taking guide rail and a material taking slider;

[0028] The groove at the bottom of the material picking slide block can be buckled on the material picking guide rail and move along the axial direction of the material picking guide rail;

[0029] The top of the material-retrieving slide block is connected to the press-fitting mechanism, and the push rod of the push rod motor is connected to the press-fitting mechanism, so that the press-fitting mechanism moves along the axial direction of the material-retrieving guide rail;

[0030] One end of the output slide is connected to the output port of the vibration plate, and the other end is connected to one end of the feeding slide; the vibration plate storing the commutator outputs the commutator to the feeding slide through the output slide;

[0031] The feeding slideway is perpendicular to the output slideway; the piston rod of the feeding cylinder is connected to the feeding slideway, so that the feeding slideway carrying the commutator moves between the pressing mechanism and the fixing mechanism.

[0032] In the above solution, the sensing element of the press-mounted Hall sensor surrounds the rotating shaft of the rotor and is used to detect the position of the commutator on the rotating shaft of the rotor;

[0033] The sensing element of the output Hall sensor is located above the feeding slideway and is used to detect whether there is a commutator on the feeding slideway.

[0034] The present invention also provides a commutator press-fitting method for press-fitting the commutator onto a rotor, comprising the following steps:

[0035] S1: outputting a clamping signal to the rotor clamping cylinder so that the rotor clamping cylinder pushes the rotor clamping block, and after the bayonet is engaged with the slot on the side of the rotor, receiving a clamping success signal output by the rotor clamping cylinder;

[0036] S2: outputting a top pressure signal to the rotor positioning cylinder according to the clamping success signal, so that the rotor positioning cylinder pushes the rotor positioning block to contact the rotating shaft of the rotor, and then receiving a top pressure completion signal output by the rotor positioning cylinder;

[0037] S3: Output a vibration start signal to the vibration plate according to the top pressure completion signal, so that the vibration plate starts and outputs a commutator to the feeding slide through the output slide; receive an output execution signal output by the vibration plate, and output a detection signal to the output Hall sensor according to the output execution signal;

[0038] S4: receiving a material presence signal outputted by the output Hall sensor according to the output execution signal; outputting a feeding execution signal to the feeding cylinder according to the material presence signal, so that the feeding cylinder moves the feeding slideway and the commutator to between the pressing mechanism and the fixing mechanism, and receiving a feeding in place signal outputted by the feeding cylinder;

[0039] S5: outputting a material-picking signal to the push rod motor according to the material-picking signal, and the push rod motor pushes the pressing mechanism to move toward the fixing mechanism according to the material-picking signal, so as to obtain the commutator from the feeding slideway, stop after contacting the rotating shaft of the rotor, and receive the pushing-in-place signal output by the push rod motor;

[0040] S6: outputting a press-fitting signal to the rotating motor according to the push-in-place signal, the rotating motor is started according to the press-fitting signal and press-fits the commutator onto the rotating shaft through a press-fitting sleeve; receiving a press-fitting execution signal output by the rotating motor;

[0041] S7: outputting a sensing signal to the press-fitting Hall sensor according to the press-fitting execution signal, and receiving a press-fitting in place signal output by the press-fitting Hall sensor according to the sensing signal;

[0042] S8: outputting a return signal to the rotary motor according to the press-fitting in-position signal, so that the press-fitting sleeve moves toward the rotary motor, and receiving a press-fitting end signal output by the rotary motor;

[0043] S9: outputting a homing signal to the push rod motor according to the press-fitting end signal, and the push rod motor retracts its push rod according to the homing signal to move the press-fitting mechanism toward the material-retrieving mechanism; receiving a retracted position signal output by the push rod motor;

[0044] S10: Output a disengagement signal to the rotor positioning cylinder according to the retracted-in-position signal, so that the rotor positioning block is disengaged from the rotor, and then receive a disengagement completion signal output by the rotor positioning cylinder; output a loosening signal to the rotor clamping cylinder according to the disengagement completion signal, so that the bayonet of the rotor clamping block is disengaged from the rotor, and then receive a loosening completion signal output by the rotor clamping cylinder and end.

[0045] The present invention also provides a commutator press-fitting device for press-fitting the commutator onto a rotor, comprising:

[0046] The clamping module is used to output a clamping signal to the rotor clamping cylinder, so that the rotor clamping cylinder pushes the rotor clamping block, and after the bayonet is engaged with the slot on the side of the rotor, receives a clamping success signal output by the rotor clamping cylinder;

[0047] A pressing module is used to output a pressing signal to the rotor positioning cylinder according to the clamping success signal, so that the rotor positioning cylinder pushes the rotor positioning block to contact the rotating shaft of the rotor, and then receives a pressing completion signal output by the rotor positioning cylinder;

[0048] An output module is used to output a vibration start signal to the vibration plate according to the top pressure completion signal, so that the vibration plate starts and outputs a commutator to the feeding slideway through the output slideway; receives an output execution signal output by the vibration plate, and outputs a detection signal to an output Hall sensor according to the output execution signal;

[0049] A feeding module is used to receive a material presence signal output by the output Hall sensor according to the output execution signal; output a feeding execution signal to the feeding cylinder according to the material presence signal, so that the feeding cylinder moves the feeding slideway and the commutator to between the pressing mechanism and the fixing mechanism, and receives a feeding in place signal output by the feeding cylinder;

[0050] A material picking module, used for outputting a material picking signal to a push rod motor according to the material feeding in place signal, wherein the push rod motor pushes the pressing mechanism to move toward the fixing mechanism according to the material picking signal, so as to obtain the commutator from the material feeding slideway, stop after contacting with the rotating shaft of the rotor, and receive the pushing in place signal output by the push rod motor;

[0051] A press-fitting module, configured to output a press-fitting signal to the rotary motor according to the push-in-place signal, wherein the rotary motor is started according to the press-fitting signal and press-fits the commutator onto the rotating shaft through a press-fitting sleeve; and receive a press-fitting execution signal output by the rotary motor;

[0052] An in-place module is used to output a sensing signal to a press-fitting Hall sensor according to the press-fitting execution signal, and receive a press-fitting in-place signal output by the press-fitting Hall sensor according to the sensing signal;

[0053] a return module, used for outputting a return signal to the rotary motor according to the press-fitting in-position signal, so that the press-fitting sleeve moves toward the rotary motor, and receiving a press-fitting end signal output by the rotary motor;

[0054] A homing module is used to output a homing signal to the push rod motor according to the press-fitting end signal, and the push rod motor retracts its push rod according to the homing signal to move the press-fitting mechanism toward the material-retrieving mechanism; and receive a retracted position signal output by the push rod motor;

[0055] The end module is used to output a disengagement signal to the rotor positioning cylinder according to the retracted-in-place signal, so that the rotor positioning block is disengaged from the rotor, and then receive a disengagement completion signal output by the rotor positioning cylinder; output a loosening signal to the rotor clamping cylinder according to the disengagement completion signal, so that the bayonet of the rotor clamping block is disengaged from the rotor, and then receive a loosening completion signal output by the rotor clamping cylinder and end.

[0056] The advantages and beneficial effects of the present invention are as follows: the present invention provides a commutator press-fitting assembly, method and device, which utilizes the commutator press-fitting device and realizes automatic loading of the commutator through a loading mechanism and an output Hall sensor, and then realizes the technical effect of automatically obtaining the commutator through a taking mechanism, and finally realizes the technical effect of automatically pressing the commutator on the rotating shaft of the rotor through the cooperation of the positioning mechanism and the press-fitting mechanism; therefore, the technical effect of automatically pressing the commutator on the rotor is realized, the efficiency of pressing the commutator is improved, and the labor cost is reduced;

[0057] A commutator press-fit device is used to sense the position of the commutator on the rotating shaft through a press-fit Hall sensor, so as to ensure that the commutator is press-fitted at a designated position on the rotating shaft, thereby ensuring the product qualification rate. BRIEF DESCRIPTION OF THE DRAWINGS

[0058] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative labor.

[0059] Figure 1 It is a structural schematic diagram of a commutator press assembly of the present invention;

[0060] Figure 2 for Figure 1 A partial enlarged view of part A;

[0061] Figure 3 It is a structural schematic diagram of a commutator press-fitted assembly of the present invention when the commutator is press-fitted on the rotating shaft of the rotor;

[0062] Figure 4 A flow chart of a commutator press-assembly method of the present invention;

[0063] Figure 5 It is a structural schematic block diagram of a commutator press-assembly device of the present invention;

[0064] Figure 6This is a schematic diagram of signal interaction between a commutator press-fitting device and a commutator press-fitting assembly of the present invention. In the figure: 1, feeding mechanism 2, fixing mechanism 3, positioning mechanism 4, material taking mechanism

[0065] 5. Press-fit mechanism 6. Output Hall sensor 7. Press-fit Hall sensor

[0066] 8. Rotor 9. Commutator press-fit device

[0067] 11. Vibrating plate 12. Output slideway 13. Feeding slideway 14. Feeding cylinder 21. Rotor fixing block 22. Rotor clamping cylinder 23. Rotor clamping block

[0068] 24, press-fit channel 25, bayonet 211, upper fixing block

[0069] 212, lower fixing block 213, through slot 31, rotor positioning cylinder

[0070] 32, rotor positioning block 41, push rod motor 42, material taking guide rail 43, material taking slide block 51, lead screw 52, ​​rotating motor 53, moving block 54, press-fit sleeve 81, rotating shaft 82, commutator

[0071] 90, clamping module 91, pressing module 92, output module 93, feeding module 94, picking module 95, pressing module 96, in-position module 97, return module 98, return module 99, end module DETAILED DESCRIPTION

[0072] The specific implementation of the present invention is further described below in conjunction with the accompanying drawings and embodiments. The following embodiments are only used to more clearly illustrate the technical solution of the present invention, and cannot be used to limit the protection scope of the present invention.

[0073] like Figure 1-Figure 3 As shown, the present invention is a commutator press assembly, which is used to press the commutator 82 on the rotor 8, comprising:

[0074] A feeding mechanism 1, used for outputting a commutator 82;

[0075] A fixing mechanism 2, used for fixing the rotor 8;

[0076] A positioning mechanism 3, used to limit the position of the rotor 8;

[0077] A material taking mechanism 4, used for taking the commutator 82 from the material feeding mechanism 1;

[0078] A press-fitting mechanism 5, used for press-fitting the commutator 82 on the material taking mechanism 4 onto the rotating shaft 81 of the rotor 8;

[0079] Output Hall sensor 6, used to sense the commutator 82 on the feeding mechanism 1;

[0080] The press-mounted Hall sensor 7 is used to sense the position of the commutator 82 on the rotating shaft 81 .

[0081] Specifically, the rotor 8 is fixed in the fixing mechanism 2, the positioning mechanism 3 and the press-fitting mechanism 5 are respectively located on both sides of the fixing mechanism 2, and the two ends of the rotating shaft 81 of the rotor 8 located in the fixing mechanism 2 are respectively aligned with the positioning mechanism 3 and the press-fitting mechanism 5;

[0082] The feeding mechanism 1 is used to move the commutator 82 between the fixing mechanism 2 and the pressing mechanism 5;

[0083] The pressing mechanism 5 extracts the commutator 82 from the feeding mechanism 1 and presses the commutator 82 onto the rotating shaft 81 of the rotor 8. The positioning mechanism 3 contacts one end of the rotor 8 to prevent the commutator 82 from detaching from the fixing mechanism 2 due to the pressure of the pressing mechanism 5 when pressing the commutator 82 onto the rotor 8.

[0084] Specifically, the feeding mechanism 1 includes a vibration plate 11, an output slide 12, a feeding slide 13, and a feeding cylinder 14;

[0085] One end of the output chute 12 is connected to the output port of the vibration plate 11, and the other end is connected to one end of the feeding chute 13; the vibration plate 11 storing the commutator 82 outputs the commutator 82 to the feeding chute 13 through the output chute 12;

[0086] The feeding slide 13 and the output slide 12 are perpendicular to each other; the piston rod of the feeding cylinder 14 is connected to the feeding slide 13, so that the feeding slide 13 carrying the commutator 82 moves to between the pressing mechanism 5 and the fixing mechanism 2.

[0087] Specifically, the fixing mechanism 2 includes a rotor fixing block 21, a rotor clamping cylinder 22, a rotor clamping block 23, and a press-fitting channel 24;

[0088] The rotor fixing block 21 includes a rotor 8 lower fixing block 212 with a lower groove on the top, and a rotor 8 upper fixing block 211 with an upper groove on the bottom;

[0089] The rotor 8 is located between the lower fixing block 212 of the rotor 8 and the upper fixing block 211 of the rotor 8, and the lower groove and the upper groove surround and clamp the rotor 8, so that the rotor 8 is positioned in the fixing mechanism 2;

[0090] The fixing block 211 on the rotor 8 has a through groove 213 connecting the bottom groove and the top side thereof, the piston rod of the rotor clamping cylinder 22 is connected to the rotor clamping block 23, the bottom of the rotor clamping block 23 facing away from the rotor clamping cylinder 22 has a bayonet 25, the rotor clamping block 23 passes through the through groove 213 and contacts the rotor 8, so that the bayonet 25 is engaged with the slot on the side of the rotor 8, so as to prevent the rotor 8 from rotating in the fixing mechanism 2;

[0091] Both ends of the rotating shaft 81 of the rotor 8 respectively pass through the rotor fixing block 21; the press-fitting channel 24 is located between the press-fitting mechanism 5 and the rotor fixing block 21; one end of the rotating shaft 81 passes through the press-fitting channel 24, and the other end faces the positioning mechanism 3; after the press-fitting mechanism 5 obtains the commutator 82 from the feeding mechanism 1, it pushes the commutator 82 into the press-fitting channel 24, and presses the commutator 82 on the rotating shaft 81 located in the press-fitting channel 24.

[0092] Specifically, the positioning mechanism 3 includes a rotor positioning cylinder 31 and a rotor positioning block 32; the piston rod of the rotor positioning cylinder 31 is connected to the rotor positioning block 32, and causes the rotor 8 pressing block to move toward the rotor 8 until the rotor 8 pressing block contacts one end of the rotating shaft 81 toward the positioning mechanism 3, so as to prevent the rotor 8 from detaching from the fixing mechanism 2 in the direction toward the rotor 8 pressing block.

[0093] Specifically, the press-fitting mechanism 5 includes a lead screw 51, a rotating motor 52, a moving block 53 and a press-fitting sleeve 54;

[0094] One end of the lead screw 51 is connected to the rotating shaft of the rotating motor 52, and the other end of the lead screw 51 passes through the moving block 53 and is connected to the lead screw 51 by a thread. The rotating motor 52 rotates the lead screw 51 to move the moving block 53 on the lead screw 51;

[0095] The press-fitting sleeve 54 is sleeved on the lead screw 51 and one end is connected to the moving block 53 ; when the moving block 53 is located between the lead screw 51 and one end facing the rotating motor 52 , the end of the lead screw 51 facing away from the rotating motor 52 will pass through the press-fitting sleeve 54 .

[0096] Specifically, the material taking mechanism 4 includes a push rod motor 41, a material taking guide rail 42 and a material taking slide block 43;

[0097] The groove at the bottom of the material picking slide block 43 can be buckled on the material picking guide rail 42 and move along the axial direction of the material picking guide rail 42;

[0098] The top of the material taking slide block 43 is connected to the press-fitting mechanism 5, and the push rod of the push rod motor 41 is connected to the press-fitting mechanism 5, so that the press-fitting mechanism 5 moves along the axial direction of the material taking guide rail 42;

[0099] One end of the output chute 12 is connected to the output port of the vibration plate 11, and the other end is connected to one end of the feeding chute 13; the vibration plate 11 storing the commutator 82 outputs the commutator 82 to the feeding chute 13 through the output chute 12;

[0100] The feeding slide 13 and the output slide 12 are perpendicular to each other; the piston rod of the feeding cylinder 14 is connected to the feeding slide 13, so that the feeding slide 13 carrying the commutator 82 moves to between the pressing mechanism 5 and the fixing mechanism 2.

[0101] Preferably, the sensing element of the press-mounted Hall sensor 7 surrounds the rotating shaft 81 of the rotor 8 and is used to detect the position of the commutator 82 on the rotating shaft 81 of the rotor 8;

[0102] The sensing element of the output Hall sensor 6 is located above the feeding chute 13 and is used to detect whether there is a commutator 82 on the feeding chute 13 .

[0103] like Figure 4 As shown, a commutator press-fitting method is used to press-fit the commutator 82 onto the rotor 8, comprising the following steps:

[0104] S1: Outputting a clamping signal to the rotor clamping cylinder 22, so that the rotor clamping cylinder 22 pushes the rotor clamping block 23, and after the bayonet 25 is engaged with the slot on the side of the rotor 8, receiving a clamping success signal output by the rotor clamping cylinder 22;

[0105] In this step, the rotor clamping cylinder 22 is a cylinder having a magnetic switch for position control;

[0106] When the magnetic switch detects that the piston rod of the rotor clamping cylinder 22 is extended to a specified length, a clamping success signal will be generated, and at this time, the bayonet 25 will engage with the slot on the side of the rotor 8.

[0107] S2: outputting a pressing signal to the rotor positioning cylinder 31 according to the clamping success signal, so that the rotor positioning cylinder 31 pushes the rotor positioning block 32 to contact the rotating shaft 81 of the rotor 8, and then receiving a pressing completion signal output by the rotor positioning cylinder 31;

[0108] In this step, the rotor positioning cylinder 31 is a cylinder with a magnetic switch for position control. When the magnetic switch detects that the piston rod of the rotor positioning cylinder 31 is extended to a specified length, a top pressure completion signal will be generated, and the rotor positioning block 32 will contact the rotating shaft 81.

[0109] S3: Output a vibration start signal to the vibration plate 11 according to the top pressure completion signal, so that the vibration plate 11 starts and outputs the commutator 82 to the feeding slide 13 through the output slide 12; receive the output execution signal output by the vibration plate 11, and output a detection signal to the output Hall sensor 6 according to the output execution signal;

[0110] S4: receiving a material presence signal outputted by the output Hall sensor 6 according to the output execution signal; outputting a feeding execution signal to the feeding cylinder 14 according to the material presence signal, so that the feeding cylinder 14 moves the feeding slide 13 and the commutator 82 to between the pressing mechanism 5 and the fixing mechanism 2, and receiving a feeding in place signal outputted by the feeding cylinder 14;

[0111] In this step, if the feeding chute 13 has a commutator 82, the output Hall sensor 6 will output a material signal; if the feeding chute 13 does not have a commutator 82, the output Hall sensor 6 will output a no-material signal;

[0112] The feeding cylinder 14 is a cylinder with a magnetic switch for position control. When the magnetic switch detects that the piston rod of the feeding cylinder 14 extends to a specified length, a feeding in place signal will be generated. At this time, the commutator 82 will be located between the pressing mechanism 5 and the fixing mechanism 2 and correspond to the lead screw 51.

[0113] S5: outputting a material-picking signal to the push rod motor 41 according to the material-picking signal, and the push rod motor 41 pushes the press-fitting mechanism 5 to move toward the fixing mechanism 2 according to the material-picking signal, so as to obtain the commutator 82 from the feeding slideway 13, stop after contacting the rotating shaft 81 of the rotor 8, and receive the push-in-place signal output by the push rod motor 41;

[0114] In this step, a material picking signal is output to the push rod motor 41 according to the material delivery signal, and the push rod motor 41 pushes the press fitting mechanism 5 to move toward the feeding slideway 13 according to the material picking signal, so that the lead screw 51 passes through the through hole of the commutator 82, and the commutator 82 is sleeved on the lead screw 51;

[0115] The push rod motor 41 further pushes the press fitting mechanism 5 to move toward the fixing mechanism 2, so that the end of the lead screw 51 facing the fixing mechanism 2 is inserted into the press fitting channel 24 and contacts the end of the rotating shaft 81 facing the press fitting mechanism 5;

[0116] The push rod motor 41 has a limit switch. When the push rod of the push rod motor 41 reaches the extension limit of the limit switch, the lead screw 51 will drive the commutator 82 into the press-fitting channel 24 and contact the rotating shaft 81. At this time, the push rod motor 41 will generate a push-in-place signal through the limit switch.

[0117] S6: Outputting a press-fitting signal to the rotary motor 52 according to the push-in-place signal, the rotary motor 52 is started according to the press-fitting signal and press-fits the commutator 82 onto the rotating shaft 81 through the press-fitting sleeve 54; receiving a press-fitting execution signal output by the rotary motor 52;

[0118] In this step, the rotating motor 52 is started according to the press-fitting signal and moves the moving block 53 and the press-fitting sleeve 54 along the axis of the lead screw 51 toward the commutator 82. The press-fitting sleeve 54 pushes the commutator 82 toward the rotating shaft 81 and allows the rotating shaft 81 to penetrate into the through hole of the commutator 82. At the same time, one end of the rotating shaft 81 facing the press-fitting mechanism 5 is inserted into the press-fitting sleeve 54.

[0119] The rotating motor 52 continues to move toward the fixing mechanism 2 through the moving block 53 and the press-fitting sleeve 54, applies pressure to the commutator 82, presses the commutator 82 onto the rotating shaft 81, and again moves the commutator 82 toward the rotor 8 on the rotating shaft 81 through the moving block 53 and the press-fitting sleeve 54; at this time, the press-fitting execution signal output by the rotating motor 52 is received.

[0120] S7: outputting a sensing signal to the press-fitting Hall sensor 7 according to the press-fitting execution signal, and receiving a press-fitting in place signal output by the press-fitting Hall sensor 7 according to the sensing signal;

[0121] In this step, the press-mounted Hall sensor 7 senses the commutator 82 on the rotating shaft 81 according to the sensing signal;

[0122] If the press-fit Hall sensor 7 does not sense the commutator 82 in its sensing area, a press-fit failure signal is generated;

[0123] If the press-fit Hall sensor 7 senses the commutator 82 within its sensing area, a press-fitting in-place signal is generated.

[0124] S8: outputting a return signal to the rotary motor 52 according to the press-fitting in-position signal, so that the press-fitting sleeve 54 moves toward the rotary motor 52, and receiving a press-fitting end signal output by the rotary motor 52;

[0125] In this step, the rotary motor 52 rotates in the reverse direction according to the return signal, so that the moving block 53 drives the press-fitting sleeve 54 to move toward the rotary motor 52;

[0126] The rotary motor 52 has a limit switch. When the moving block 53 moves to the lower limit of the limit switch, the rotary motor 52 outputs a press-fitting completion signal and stops working.

[0127] S9: outputting a return signal to the push rod motor 41 according to the press-fitting end signal, and the push rod motor 41 retracts its push rod according to the return signal, so that the press-fitting mechanism 5 moves toward the material-retrieving mechanism 4; receiving a retracted position signal output by the push rod motor 41;

[0128] In this step, the push rod motor 41 has a limit switch. When the push rod of the push rod motor 41 reaches the retraction limit of the limit switch, the push rod motor 41 will generate a retraction signal through the limit switch.

[0129] S10: outputting a disengagement signal to the rotor positioning cylinder 31 according to the retracted position signal, so that the rotor positioning block 32 is disengaged from the rotor 8, and then receiving a disengagement completion signal output by the rotor positioning cylinder 31; outputting a loosening signal to the rotor clamping cylinder 22 according to the disengagement completion signal, so that the bayonet 25 of the rotor clamping block 23 is disengaged from the rotor 8, and then receiving a loosening completion signal output by the rotor clamping cylinder 22 and ending;

[0130] In this step, when the magnetic switch of the rotor clamping cylinder 22 detects that the piston rod of the rotor clamping cylinder 22 is contracted to a specified length, a release completion signal will be generated, and at this time, the bayonet 25 will be disengaged from the slot on the side of the rotor 8.

[0131] In this step, when the magnetic switch of the rotor positioning cylinder 31 detects that the piston rod of the rotor positioning cylinder 31 is contracted to a specified length, a disengagement completion signal is generated, and at this time, the rotor positioning block 32 is disengaged from the rotating shaft 81 .

[0132] like Figure 5 and Figure 6 As shown, a commutator press-fitting device 9 is used to press-fit the commutator 82 onto the rotor 8, comprising:

[0133] The clamping module 90 is used to output a clamping signal to the rotor clamping cylinder 22, so that the rotor clamping cylinder 22 pushes the rotor clamping block 23, and after the bayonet 25 is engaged with the slot on the side of the rotor 8, receives a clamping success signal output by the rotor clamping cylinder 22;

[0134] A pressing module 91 is used to output a pressing signal to the rotor positioning cylinder 31 according to the clamping success signal, so that the rotor positioning cylinder 31 pushes the rotor positioning block 32 to contact the rotating shaft 81 of the rotor 8, and then receives a pressing completion signal output by the rotor positioning cylinder 31;

[0135] The output module 92 is used to output a vibration start signal to the vibration plate 11 according to the top pressure completion signal, so that the vibration plate 11 starts and outputs the commutator 82 to the feeding slide 13 through the output slide 12; receives the output execution signal output by the vibration plate 11, and outputs a detection signal to the output Hall sensor 6 according to the output execution signal;

[0136] The feeding module 93 is used to receive the material presence signal output by the output Hall sensor 6 according to the output execution signal; output a feeding execution signal to the feeding cylinder 14 according to the material presence signal, so that the feeding cylinder 14 moves the feeding slide 13 and the commutator 82 to between the pressing mechanism 5 and the fixing mechanism 2, and receives the feeding in place signal output by the feeding cylinder 14;

[0137] The material taking module 94 is used to output a material taking signal to the push rod motor 41 according to the material feeding in place signal, and the push rod motor 41 pushes the pressing mechanism 5 to move toward the fixing mechanism 2 according to the material taking signal, so as to obtain the commutator 82 from the feeding slideway 13, stop after contacting the rotating shaft 81 of the rotor 8, and receive the pushing in place signal output by the push rod motor 41;

[0138] The press-fitting module 95 is used to output a press-fitting signal to the rotary motor 52 according to the push-in-place signal, and the rotary motor 52 is started according to the press-fitting signal and press-fits the commutator 82 onto the rotating shaft 81 through the press-fitting sleeve 54; and receives a press-fitting execution signal output by the rotary motor 52;

[0139] The in-position module 96 is used to output a sensing signal to the press-fitting Hall sensor 7 according to the press-fitting execution signal, and receive a press-fitting in-position signal output by the press-fitting Hall sensor 7 according to the sensing signal;

[0140] a return module 97, configured to output a return signal to the rotary motor 52 according to the press-fitting in-position signal, so that the press-fitting sleeve 54 moves toward the rotary motor 52, and receive a press-fitting end signal output by the rotary motor 52;

[0141] The homing module 98 is used to output a homing signal to the push rod motor 41 according to the press-fitting end signal, and the push rod motor 41 retracts its push rod according to the homing signal to move the press-fitting mechanism 5 toward the material picking mechanism 4; and receive a retracted position signal output by the push rod motor 41;

[0142] The end module 99 is used to output a disengagement signal to the rotor positioning cylinder 31 according to the retracted position signal, so that the rotor positioning block 32 is disengaged from the rotor 8, and then receive a disengagement completion signal output by the rotor positioning cylinder 31; output a loosening signal to the rotor clamping cylinder 22 according to the disengagement completion signal, so that the bayonet 25 of the rotor clamping block 23 is disengaged from the rotor 8, and then receive a loosening completion signal output by the rotor clamping cylinder 22 and end.

[0143] Preferably, the commutator pressing device may be a single chip microcomputer, and the single chip microcomputer may be any single chip microcomputer among AVR, PLC, MSP430, and STM32 single chip microcomputers.

[0144] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principle of the present invention should be included in the protection scope of the present invention.

Claims

1. A commutator press assembly, used for press-fitting a commutator on a rotor, characterized in that: include: A feeding mechanism for outputting the commutator; A fixing mechanism, used for fixing the rotor; A positioning mechanism, used for limiting the position of the rotor; A material taking mechanism, used for taking the commutator from the material feeding mechanism; A press-fitting mechanism, used for press-fitting the commutator on the material taking mechanism onto the rotating shaft of the rotor; Output Hall sensor, used to sense the commutator on the feeding mechanism; A press-fit Hall sensor, used for sensing the position of the commutator on the rotating shaft; The feeding mechanism includes a vibrating plate, an output slide, a feeding slide, and a feeding cylinder; The fixing mechanism comprises a rotor fixing block, a rotor clamping cylinder, a rotor clamping block, and a press-fitting channel; The rotor fixing block comprises a rotor lower fixing block with a lower groove on the top and a rotor upper fixing block with an upper groove on the bottom; The rotor is located between the rotor lower fixing block and the rotor upper fixing block, and the lower groove and the upper groove surround and clamp the rotor, so that the rotor is positioned in the fixing mechanism; The rotor upper fixing block has a through slot communicating with the bottom groove and the top side thereof, the piston rod of the rotor clamping cylinder is connected to the rotor clamping block, the bottom of the rotor clamping block on the side facing away from the rotor clamping cylinder has a bayonet, the rotor clamping block passes through the through slot and contacts the rotor, so that the bayonet is engaged with the slot on the side of the rotor to prevent the rotor from rotating in the fixing mechanism; The two ends of the rotating shaft of the rotor respectively pass through the rotor fixing block; the press-fitting channel is located between the press-fitting mechanism and the rotor fixing block; one end of the rotating shaft passes through the press-fitting channel, and the other end faces the positioning mechanism; after the press-fitting mechanism obtains the commutator from the feeding mechanism, it pushes the commutator into the press-fitting channel and presses the commutator onto the rotating shaft located in the press-fitting channel; The press-fitting mechanism comprises a lead screw, a rotating motor, a moving block and a press-fitting sleeve; One end of the lead screw is connected to the rotating shaft of the rotating motor, the other end of the lead screw passes through the moving block and is connected to the lead screw by a thread, and the rotating motor moves the moving block on the lead screw by rotating the lead screw; The press-fitting sleeve is sleeved on the lead screw, and one end of the press-fitting sleeve is connected to the moving block; when the moving block is located between the lead screw and the end facing the rotating motor, the end of the lead screw facing away from the rotating motor will pass through the press-fitting sleeve; The material taking mechanism comprises a push rod motor, a material taking guide rail and a material taking slide block; The groove at the bottom of the material picking slide block can be buckled on the material picking guide rail and move along the axial direction of the material picking guide rail; The top of the material-retrieving slide block is connected to the press-fitting mechanism, and the push rod of the push rod motor is connected to the press-fitting mechanism, so that the press-fitting mechanism moves along the axial direction of the material-retrieving guide rail; One end of the output slide is connected to the output port of the vibration plate, and the other end is connected to one end of the feeding slide; the vibration plate storing the commutator outputs the commutator to the feeding slide through the output slide; The feeding slideway is perpendicular to the output slideway; the piston rod of the feeding cylinder is connected to the feeding slideway, so that the feeding slideway carrying the commutator moves between the pressing mechanism and the fixing mechanism.

2. The commutator press assembly according to claim 1 is characterized in that: The rotor is fixed in the fixing mechanism, the positioning mechanism and the pressing mechanism are respectively located on both sides of the fixing mechanism, and the two ends of the rotating shaft of the rotor located in the fixing mechanism are respectively aligned with the positioning mechanism and the pressing mechanism; The feeding mechanism is used to move the commutator between the fixing mechanism and the pressing mechanism; The press-fitting mechanism extracts the commutator from the feeding mechanism and press-fits the commutator onto the rotating shaft of the rotor, and the positioning mechanism contacts one end of the rotor.

3. The commutator press assembly according to claim 1, characterized in that: The positioning mechanism includes a rotor positioning cylinder and a rotor positioning block; the piston rod of the rotor positioning cylinder is connected to the rotor positioning block, and causes the rotor positioning block to move toward the rotor until the rotor positioning block contacts one end of the rotating shaft toward the positioning mechanism, so as to prevent the rotor from detaching from the fixing mechanism in the direction toward the rotor positioning block.

4. The commutator press assembly according to claim 1, characterized in that: The sensing element of the press-fit Hall sensor surrounds the rotating shaft of the rotor and is used to detect the position of the commutator on the rotating shaft of the rotor; The sensing element of the output Hall sensor is located above the feeding slideway and is used to detect whether there is a commutator on the feeding slideway.

5. A commutator press-fitting method for press-fitting a commutator on a rotor, characterized in that: Using the commutator press assembly described in any one of claims 1 to 4 comprises the following steps: S1: outputting a clamping signal to the rotor clamping cylinder, so that the rotor clamping cylinder pushes the rotor clamping block, and after the bayonet is engaged with the slot on the side of the rotor, receiving a clamping success signal output by the rotor clamping cylinder; S2: outputting a top pressure signal to the rotor positioning cylinder according to the clamping success signal, so that the rotor positioning cylinder pushes the rotor positioning block to contact the rotating shaft of the rotor, and then receiving a top pressure completion signal output by the rotor positioning cylinder; S3: Output a vibration start signal to the vibration plate according to the top pressure completion signal, so that the vibration plate starts and outputs a commutator to the feeding slide through the output slide; receive an output execution signal output by the vibration plate, and output a detection signal to the output Hall sensor according to the output execution signal; S4: receiving a material presence signal outputted by the output Hall sensor according to the output execution signal; outputting a feeding execution signal to the feeding cylinder according to the material presence signal, so that the feeding cylinder moves the feeding slideway and the commutator to between the pressing mechanism and the fixing mechanism, and receiving a feeding in place signal outputted by the feeding cylinder; S5: outputting a material-picking signal to the push rod motor according to the material-picking signal, and the push rod motor pushes the pressing mechanism to move toward the fixing mechanism according to the material-picking signal, so as to obtain the commutator from the feeding slideway, stop after contacting the rotating shaft of the rotor, and receive the pushing-in-place signal output by the push rod motor; S6: outputting a press-fitting signal to the rotating motor according to the push-in-place signal, the rotating motor is started according to the press-fitting signal and press-fits the commutator onto the rotating shaft through a press-fitting sleeve; receiving a press-fitting execution signal output by the rotating motor; S7: outputting a sensing signal to the press-fitting Hall sensor according to the press-fitting execution signal, and receiving a press-fitting in place signal output by the press-fitting Hall sensor according to the sensing signal; S8: outputting a return signal to the rotary motor according to the press-fitting in-position signal, so that the press-fitting sleeve moves toward the rotary motor, and receiving a press-fitting end signal output by the rotary motor; S9: outputting a homing signal to the push rod motor according to the press-fitting end signal, and the push rod motor retracts its push rod according to the homing signal to move the press-fitting mechanism toward the material-retrieving mechanism; receiving a retracted position signal output by the push rod motor; S10: Output a disengagement signal to the rotor positioning cylinder according to the retracted-in-position signal, so that the rotor positioning block is disengaged from the rotor, and then receive a disengagement completion signal output by the rotor positioning cylinder; output a loosening signal to the rotor clamping cylinder according to the disengagement completion signal, so that the bayonet of the rotor clamping block is disengaged from the rotor, and then receive a loosening completion signal output by the rotor clamping cylinder and end.

6. A commutator press-fitting device, used for press-fitting a commutator on a rotor, characterized in that: Installed in the commutator press assembly described in any one of claims 1 to 4, comprising: The clamping module is used to output a clamping signal to the rotor clamping cylinder, so that the rotor clamping cylinder pushes the rotor clamping block, and after the bayonet is engaged with the slot on the side of the rotor, receives a clamping success signal output by the rotor clamping cylinder; A pressing module is used to output a pressing signal to the rotor positioning cylinder according to the clamping success signal, so that the rotor positioning cylinder pushes the rotor positioning block to contact the rotating shaft of the rotor, and then receives a pressing completion signal output by the rotor positioning cylinder; An output module is used to output a vibration start signal to the vibration plate according to the top pressure completion signal, so that the vibration plate starts and outputs a commutator to the feeding slideway through the output slideway; receives an output execution signal output by the vibration plate, and outputs a detection signal to an output Hall sensor according to the output execution signal; A feeding module is used to receive a material presence signal output by the output Hall sensor according to the output execution signal; output a feeding execution signal to the feeding cylinder according to the material presence signal, so that the feeding cylinder moves the feeding slideway and the commutator to between the pressing mechanism and the fixing mechanism, and receives a feeding in place signal output by the feeding cylinder; A material picking module, used for outputting a material picking signal to a push rod motor according to the material feeding in place signal, wherein the push rod motor pushes the pressing mechanism to move toward the fixing mechanism according to the material picking signal, so as to obtain the commutator from the material feeding slideway, stop after contacting with the rotating shaft of the rotor, and receive the pushing in place signal output by the push rod motor; A press-fitting module, configured to output a press-fitting signal to the rotary motor according to the push-in-place signal, wherein the rotary motor is started according to the press-fitting signal and press-fits the commutator onto the rotating shaft through a press-fitting sleeve; and receive a press-fitting execution signal output by the rotary motor; An in-place module is used to output a sensing signal to a press-fitting Hall sensor according to the press-fitting execution signal, and receive a press-fitting in-place signal output by the press-fitting Hall sensor according to the sensing signal; a return module, used for outputting a return signal to the rotary motor according to the press-fitting in-position signal, so that the press-fitting sleeve moves toward the rotary motor, and receiving a press-fitting end signal output by the rotary motor; A homing module is used to output a homing signal to the push rod motor according to the press-fitting end signal, and the push rod motor retracts its push rod according to the homing signal to move the press-fitting mechanism toward the material-retrieving mechanism; and receive a retracted position signal output by the push rod motor; The end module is used to output a disengagement signal to the rotor positioning cylinder according to the retracted-in-place signal, so that the rotor positioning block is disengaged from the rotor, and then receive a disengagement completion signal output by the rotor positioning cylinder; output a loosening signal to the rotor clamping cylinder according to the disengagement completion signal, so that the bayonet of the rotor clamping block is disengaged from the rotor, and then receive a loosening completion signal output by the rotor clamping cylinder and end.

Citation Information

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