Automatic assembling equipment for motor magnetic ring
By designing an automatic assembly equipment for motor magnetic rings, the automatic supply, positioning, and assembly of magnetic rings and housings have been achieved, solving the problem of low automation in traditional assembly methods, improving assembly efficiency and accuracy, and ensuring the stability of product quality.
Patent Information
- Application Number
- CN202311247469.0
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2023-09-25
- Publication Date
- 2026-02-13
- Estimated Expiration
- 2043-09-25
AI Technical Summary
Traditional electric motor magnetic ring assembly methods have low automation, slow production efficiency, and unstable assembly accuracy.
Design an automatic assembly equipment for electric motor magnetic rings, including a housing flipping and feeding module, an upper magnetic ring module, a jig return conveying device, and a magnetic ring pressing device, to realize the automatic supply, positioning, and assembly of magnetic rings and housings. A glue application device ensures uniform glue application, an adsorption fixation method replaces the clamp fixation method, and a jig return conveying device is used to improve the automation level of the equipment.
It improves the efficiency and precision of magnetic ring assembly, ensures the stability of product assembly quality, reduces manual intervention, and enhances the automation level of the equipment.
Smart Images

Figure CN117182546B_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The present application relates to the technical field of assembling equipment, in particular to an automatic assembling equipment for motor magnetic rings. BACKGROUND
[0002] The motor is a device for converting electrical energy into mechanical energy, which is widely used in industrial production. The motor magnetic ring is an important component of the motor, so the assembling process of the magnetic ring is also an important link in the production and manufacturing of the motor. The traditional way of assembling the motor magnetic ring mainly relies on manual operation with simple assembling devices. However, this way is not only low in automation degree and slow in production efficiency, but also unstable in assembling precision due to human factors.
[0003] Therefore, there is an urgent need for an equipment capable of automatically, efficiently and accurately assembling magnetic rings to solve the above problems. SUMMARY
[0004] The purpose of the present application is to overcome the shortcomings in the prior art and provide an automatic assembling equipment for motor magnetic rings, which can improve the assembling efficiency and precision of the magnetic rings.
[0005] The purpose of the present application is achieved by the following technical solutions:
[0006] The automatic assembling equipment for motor magnetic rings comprises a shell overturning and feeding module, a magnetic ring feeding module, a jig backflow conveying device and a magnetic ring pressing device. The shell overturning and feeding module, the magnetic ring feeding module and the magnetic ring pressing device are arranged around the periphery of the jig backflow conveying device. A plurality of load jigs are arranged on the jig backflow conveying device, and a feeding area is arranged on the jig backflow conveying device. When one of the load jigs is located on the feeding area, the magnetic ring feeding module is used to move the magnetic ring to the load jig on the feeding area, the shell overturning and feeding module is used to move the shell to the feeding area so that the shell is sleeved on the magnetic ring, and when the load jig is moved to the magnetic ring pressing device by the jig backflow conveying device, the magnetic ring pressing device is used to press the magnetic ring and the shell on the load jig.
[0007] In one embodiment, a shell gluing device is further arranged on one side of the shell overturning and feeding module, which is used to glue the inner side wall of the shell.
[0008] In one of the embodiments, the casing turnover feeding module comprises a casing turnover manipulator and a casing feeding manipulator, the casing turnover manipulator and the casing feeding manipulator are respectively arranged on one side of the jig reflow conveying device, the casing turnover manipulator is used for turnover operation of the casing, and the casing feeding manipulator is used for moving the casing subjected to the turnover operation to the feeding area, so that the casing is sleeved on the magnetic ring.
[0009] In one of the embodiments, the casing turnover manipulator comprises a turnover standby jig, a fixed clamping jaw, a turnover motor and a lifting piece, the turnover standby jig is arranged on one side of the jig reflow conveying device, the fixed clamping jaw is connected with the turnover motor, the lifting piece is connected with the turnover motor, the fixed clamping jaw is used for loading and fixing the casing on the turnover standby jig, the turnover motor is used for driving the fixed clamping jaw to perform turnover operation, so that the opening of the casing is arranged downward, and the lifting piece is used for driving the turnover motor to perform lifting movement.
[0010] In one of the embodiments, the lifting piece comprises a lifting plate and a driving cylinder, the turnover motor is arranged on the lifting plate, the driving cylinder is connected with the lifting plate, and the driving cylinder is used for driving the lifting plate to perform lifting movement.
[0011] In one of the embodiments, the casing turnover feeding module further comprises a magnetic ring placement defect detection device, the magnetic ring placement defect detection device is arranged on the jig reflow conveying device, and the magnetic ring placement defect detection device is located between the feeding area and the magnetic ring pressing device, the magnetic ring placement defect detection device is used for detecting the position of the magnetic ring on the loading jig.
[0012] In one of the embodiments, the magnetic ring pressing device comprises a fixed frame, a downward pressing driving piece and an elastic downward pressing piece, the fixed frame is arranged on one side of the jig reflow conveying device, the downward pressing driving piece is installed on the fixed frame, the downward pressing driving piece is connected with the elastic downward pressing piece, when the loading jig drives the magnetic ring and the casing to move to the lower side of the elastic downward pressing piece, the downward pressing driving piece is used for driving the elastic downward pressing piece to move to the direction of the casing, so that the elastic downward pressing piece performs downward pressing operation on the casing and the magnetic ring.
[0013] In one of the embodiments, the downward pressing driving piece is a sliding table cylinder.
[0014] In one of the embodiments, the elastic downward pressing piece comprises a fixed block, a first spring, a fixed rod and a downward pressing block, the fixed block is connected with the driving end of the downward pressing driving piece, the fixed rod is arranged on the fixed block, the downward pressing block is connected with one end of the fixed rod, the first spring is sleeved on the fixed rod, and the first spring is located between the fixed block and the downward pressing block.
[0015] In one embodiment, a coating catalyst device is also included, which is disposed on the fixed frame and is used to apply a coating catalyst to the magnetic ring on the material carrier fixture.
[0016] Compared with the prior art, the present invention has at least the following advantages:
[0017] The automatic assembly equipment for electric motor magnetic rings of the present invention comprises a housing flipping and feeding module, an upper magnetic ring module, a fixture return conveying device, and a magnetic ring pressing device. The upper magnetic ring module performs magnetic ring feeding, the fixture return conveying device drives the material-carrying fixture to rotate and return, the housing flipping and feeding module performs housing feeding, and the magnetic ring pressing device ensures the magnetic ring is properly assembled with the housing. This reduces manual intervention, increases the overall automation level of the equipment, and achieves automatic supply, positioning, and assembly of magnetic rings and housings, resulting in high-efficiency and high-precision magnetic ring assembly and ensuring the stability of product assembly quality. Attached Figure Description
[0018] To more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings used in the embodiments will be briefly described below.
[0019] Figure 1 This is a schematic diagram of the automatic assembly equipment for motor magnetic rings according to an embodiment of the present invention;
[0020] Figure 2 for Figure 1 A schematic diagram of the casing gluing device in the automatic assembly equipment for motor magnetic rings;
[0021] Figure 3 for Figure 2 A schematic diagram of the rotating fixture in the automatic assembly equipment for electric motor magnetic rings;
[0022] Figure 4 for Figure 1 A schematic diagram of the housing flipping robot in the automatic assembly equipment for electric motor magnetic rings;
[0023] Figure 5 for Figure 1 A schematic diagram of the fixture return conveying device, magnetic ring pressing device, adhesive catalyst coating device, shaping device, and finished product unloading robot in the automatic assembly equipment for electric motor magnetic rings;
[0024] Figure 6 for Figure 1 A schematic diagram of the adhesive coating catalyst device and the magnetic ring pressing device in the automatic assembly equipment for electric motor magnetic rings;
[0025] Figure 7 forFigure 1 Structure diagram of the shaping device of the motor magnetic ring automatic assembly equipment in FIG. 1;
[0026] Figure 8 For Figure 1 Structure diagram of the jig backflow conveying device of the motor magnetic ring automatic assembly equipment in FIG. 1;
[0027] Figure 9 For Figure 8 Structure diagram of the multi-station conveying module of the motor magnetic ring automatic assembly equipment in FIG. 1. DETAILED DESCRIPTION
[0028] In order to facilitate the understanding of the present application, the present application will be described more fully below with reference to the relevant drawings.
[0029] Combined Figures 1-9 As shown in FIG. 1, a motor magnetic ring automatic assembly equipment 10 comprises a casing turnover feeding module 1000, a magnetic ring feeding module 2000, a jig backflow conveying device 3000 and a magnetic ring pressing device 4000. The casing turnover feeding module 1000, the magnetic ring feeding module 2000 and the magnetic ring pressing device 4000 are arranged around the periphery of the jig backflow conveying device 3000. The jig backflow conveying device 3000 is provided with a plurality of loading jigs 3100 and a feeding area. When one of the loading jigs 3100 is located on the feeding area, the magnetic ring feeding module 2000 is used to move the magnetic ring to the loading jig 3100 on the feeding area, the casing turnover feeding module 1000 is used to move the casing to the feeding area so that the casing is sleeved on the magnetic ring, and when the loading jig 3100 is moved to the magnetic ring pressing device 4000 by the jig backflow conveying device 3000, the magnetic ring pressing device 4000 is used to press and hold the magnetic ring and the casing on the loading jig 3100.
[0030] It needs to be explained that the carrier jig 3100 includes a bearing block 3110 and a positioning boss 3120, the positioning boss 3120 is arranged on the bearing block 3110, and a positioning protrusion is further arranged on the positioning boss 3120, and a positioning hole is arranged on the positioning protrusion. The upper magnetic ring module 2000 carries the magnetic ring to the feeding area, and sets the magnetic ring sleeve on the positioning protrusion, and limits and fixes the magnetic ring through the positioning protrusion. Then, the casing is carried to the feeding area by the casing overturning and feeding module 1000, and the casing is sleeved on the magnetic ring, and the shaft on the casing is located in the positioning hole, and the shaft is limited by the positioning hole. At this time, the magnetic ring has not been completely installed, so the magnetic ring and the casing on the carrier jig 3100 are moved to the magnetic ring pressing device 4000 by the jig backflow conveying device 3000, and the magnetic ring and the casing are pressed by the magnetic ring pressing device 4000. The magnetic ring can be completely installed in the inner cavity of the casing. In this way, the automatic feeding, positioning and assembly of the magnetic ring and the casing can be realized, the high-efficiency and high-precision magnetic ring assembly can be realized, and the stability of the product assembly quality can be ensured.
[0031] Please refer to Figure 2 and Figure 3 As shown in the figures, in order to ensure the firmness of the magnetic ring after the magnetic ring and the casing are assembled, a gluing operation needs to be performed on the inner side wall of the casing before the magnetic ring is assembled into the casing. The traditional gluing method is to use a glue gun to glue manually. However, this gluing method is not only slow in efficiency, but also cannot control the amount of glue used, which may result in uneven glue coating or excessive glue coating and waste. Therefore, the motor magnetic ring automatic assembly equipment 10 further includes a casing gluing device 5000, which is arranged on one side of the casing overturning and feeding module 1000 and is used for gluing the inner side wall of the casing.
[0032] The motor magnetic ring automatic assembly equipment 10 further includes a base 6000, and the casing gluing device 5000 is arranged on the base,
[0033] Specifically, the casing gluing device 5000 comprises a rotating jig 5100, a gluing support 5200 and a gluing piece 5300. The rotating jig 5100 is arranged on the base 6000, the gluing support 5200 is arranged on one side of the base, and the gluing piece 5300 is arranged on the gluing support 5200 in an inclined manner. The glue outlet of the gluing piece 5300 is arranged towards the inner side wall of the casing on the rotating jig 5100. When the casing is placed on the rotating jig 5100, the rotating jig 5100 is used to drive the casing to rotate, and the gluing piece 5300 is used to glue the inner side wall of the casing. That is, the casing is carried to the rotating jig 5100 by the corresponding carrying manipulator, and is fixed by the rotating jig 5100. At the same time, when the rotating operation is performed, the casing is driven to rotate by the rotating jig 5100. In this way, the gluing piece 5300 can surround the inner side wall of the casing and perform gluing operation, so that the glue can be uniformly coated on the inner side wall of the casing.
[0034] Further, in the gluing operation of the casing, the conventional fixing method of the casing is to directly clamp and fix the casing by the clamping jaw. However, since the clamping jaw needs to be constantly loosened and clamped every time the gluing operation is performed, a certain production time is occupied, which leads to slow production efficiency. In addition, the casing is clamped and fixed by the clamping jaw, which is easy to cause the casing to be damaged and deformed due to uneven stress.
[0035] Therefore, in the embodiment, the rotating jig 5100 comprises a rotating positioning piece 5110, a suction member 5120 and a rotating driving piece 5130. The rotating positioning piece 5110 is arranged on the base 6000, and the avoiding hole 5111 is arranged on the rotating positioning piece 5110. The suction member 5120 is arranged in the avoiding hole 5111. When the casing is placed on the rotating positioning piece 5110, the suction member 5120 is used to adsorb and fix the casing. The rotating driving piece 5130 is connected with the rotating positioning piece 5110, and is used to drive the rotating positioning piece 5110 to rotate. That is, when the casing is placed on the rotating positioning piece 5110, the casing is limited by the rotating positioning piece 5110, and is adsorbed and fixed by the suction member 5120 to ensure the stability of the casing during the rotation. In this way, by using the adsorption method, the time of constantly loosening and clamping the clamping jaw can be reduced compared with the existing clamping method, so as to improve the production efficiency, and the problem of the casing being damaged and deformed due to uneven stress can be avoided. Preferably, the rotating driving piece 5130 is a rotating motor.
[0036] Specifically, the rotating positioning member 5110 comprises a rotating fixing block 5112, a rotating positioning block 5113 and a bearing 5114, the rotating fixing block 5112 is connected with the rotating driving member 5130, the rotating positioning block 5113 is arranged on the rotating fixing block 5112, the bearing 5114 is sleeved on the rotating fixing block 5112, and the avoiding hole 5111 is arranged on the rotating positioning block 5113, and the suction member 5120 is located in the avoiding hole 5111. In this way, the rotating axial force of the rotating fixing block 5112 is borne by the bearing 5114, so that the rotating stability of the rotating positioning block 5113 can be ensured, and the service life of the whole device can be further improved.
[0037] Further, the rotating positioning block 5113 is provided with a positioning hole 5113a, when the shell is placed on the rotating positioning block 5113, the rotating shaft on the shell is located in the positioning hole 5113a, the suction member 5120 is used for adsorbing and fixing the bottom of the shell, and the positioning hole 5113a is used for avoiding and positioning the rotating shaft on the shell.
[0038] In the embodiment, the suction member 5120 comprises two adsorption magnets 5121, and each adsorption magnet 5121 is used for adsorbing and fixing the shell. Correspondingly, the avoiding hole on the rotating positioning block 5113 is also provided with at least two, so that each adsorption magnet 5121 can be accommodated in the avoiding hole.
[0039] Further, in order to avoid that the shell is scratched or bumped when being positioned and rotated, the rotating positioning block 5113 is made of non-metallic buffer material, for example, rubber material, so that the shell is prevented from being damaged in appearance quality due to collision with the rotating positioning block 5113.
[0040] In an embodiment, the glue applying member 5300 comprises a glue applying syringe 5310, a syringe fixing frame 5320 and a glue applying driving member 5330, the syringe fixing frame 5320 is slidingly arranged on the glue applying support 5200, the glue applying syringe 5310 is arranged on the syringe fixing frame 5320, the glue applying driving member 5330 is connected with the syringe fixing frame 5320, and the glue applying driving member 5330 is used for driving the syringe fixing frame 5320 to move towards the inner side wall of the shell. The glue applying syringe 5310 stores glue, and the glue dispensing needle of the glue applying syringe 5310 is inclined towards the inner side wall of the shell. The glue is extruded to the inner side wall of the shell by the glue applying syringe 5310. While the glue is applied by the glue applying syringe 5310, the rotating positioning block 5113 drives the shell to slowly rotate 360 degrees, so that the glue is uniformly applied to the four side walls of the shell. In the embodiment, the glue applying driving member 5330 is a pen-shaped air cylinder, which has small volume and occupies small space, so that the whole device is more compact and small.
[0041] In order to realize the automatic feeding of the shell, and further improve the automation degree of the whole device, the shell overturning and feeding module is arranged to automatically overturn and feed the shell.
[0042] Specifically, the shell overturning and feeding module 1000 comprises a shell overturning manipulator 1100 and a shell feeding manipulator (not shown in the figure), and the shell overturning manipulator 1100 and the shell feeding manipulator are arranged on one side of the jig reflow conveying device 3000. The shell overturning manipulator 1100 is used for overturning operation of the shell, and the shell feeding manipulator is used for moving the shell subjected to the overturning operation to the feeding area, so that the shell is sleeved on the magnetic ring. Since the inner side wall of the shell needs to be coated before the shell is subjected to the overturning and feeding operation, the opening of the shell is arranged upward. At the same time, since the shell assembled with the magnetic ring needs to be subjected to the magnetic ring pressing operation subsequently, if the opening of the shell is upward, the shell and the magnetic ring are easily pressed when the magnetic ring pressing operation is performed, which causes the position deviation. Therefore, the shell overturning manipulator 1100 is used to overturn the shell before the shell is fed, so that the opening of the shell is arranged downward. In this way, when the shell and the magnetic ring are subjected to the pressing operation, the magnetic ring pressing device directly presses the outer bottom surface of the shell, so that the pressing area is increased. Even if the position deviation occurs, the shell and the magnetic ring can be prevented from being pressed.
[0043] Further, please refer to Figure 4As shown, the shell overturning manipulator 1100 includes an overturning workpiece jig 1110, a fixed clamping jaw 1120, an overturning motor 1130, and a lifting member 1140. The overturning workpiece jig 1110 is located at one side of the jig reflow conveying device 3000. The fixed clamping jaw 1120 is connected with the overturning motor 1130. The lifting member 1140 is connected with the overturning motor 1130. The fixed clamping jaw 1120 is used for loading and fixing the shell on the overturning workpiece jig 1110. The overturning motor 1130 is used for driving the fixed clamping jaw 1120 to perform overturning operation, so that the opening of the shell is arranged downward. The lifting member 1140 is used for driving the overturning motor 1130 to perform lifting movement. In this way, the shell is positioned by the overturning workpiece jig 1110, which facilitates the clamping and fixing of the shell by the fixed clamping jaw 1120 and the overturning operation, and facilitates the clamping and loading operation of the shell by the shell loading manipulator. Further, in the embodiment, the lifting member 1140 includes a lifting plate 1141 and a driving cylinder 1142. The overturning motor 1130 is arranged on the lifting plate 1141. The driving cylinder 1142 is connected with the lifting plate 1141. The driving cylinder 1142 is used for driving the lifting plate 1141 to perform lifting movement. In this way, the overturning operation of the shell can be realized by the lifting member 1140, the fixed clamping jaw 1120, and the overturning motor 1130. Specifically, the optical fiber sensor is installed on the overturning workpiece jig 1110. Whether the shell is placed on the overturning workpiece jig 1110 is identified by the optical fiber sensor. Meanwhile, the optical fiber sensor is also installed on the overturning motor 1130. Whether the shell is clamped on the fixed clamping jaw 1120 is identified by the optical fiber sensor installed on the overturning motor 1130, so as to control the start of the overturning motor. In this way, the overturning operation of the whole device is more coherent and compact. Further, in the embodiment, the shell loading manipulator is a three-axis manipulator.
[0044] In order to realize the automatic loading of the magnetic ring and further improve the automation degree of the whole device, the magnetic ring is automatically loaded by the upper magnetic ring module 2000.
[0045] Specifically, the upper magnetic ring module 2000 includes a discharge disc and a magnetic ring carrying manipulator. The discharge disc is arranged at one side of the magnetic ring carrying manipulator, and the magnetic ring carrying manipulator is located at one side of the jig reflow conveying device 3000. The magnetic ring is stored on the discharge disc. The discharge disc continuously discharges, and the magnetic ring carrying manipulator continuously carries the magnetic ring to the loading jig in the loading area. For example, the discharge disc is a vibrating disc, and the magnetic ring carrying manipulator can adopt a three-axis manipulator.
[0046] In order to avoid the position deviation of the magnetic ring relative to the shell after the shell and the magnetic ring are loaded, which affects the normal work of the magnetic ring pressing device, in the present application, please refer to Figure 8As shown, the motor magnetic ring automatic assembly equipment 10 further comprises a magnetic ring placement defect detection device 7000, which is arranged on the jig backflow conveying device 3000 and located between the loading area and the magnetic ring pressing device 4000. The magnetic ring placement defect detection device 7000 is used for detecting the position of the magnetic ring on the loading jig 3100. For example, the magnetic ring placement defect detection device 7000 is an optical fiber displacement sensor, which can detect the position of the magnetic ring to avoid the problems of missing placement or offset placement of the magnetic ring.
[0047] As shown in Figure 5 and Figure 6 Before the magnetic ring pressing operation is performed, the magnetic ring and the shell are only aligned, but the magnetic ring has not been completely installed. Therefore, the magnetic ring pressing device is needed to press the magnetic ring to ensure that the magnetic ring is installed in place.
[0048] Specifically, the magnetic ring pressing device 4000 comprises a fixing frame 4100, a pressing driving member 4200 and an elastic pressing member 4300. The fixing frame 4100 is arranged on one side of the jig backflow conveying device 3000. The pressing driving member 4200 is installed on the fixing frame 4100 and connected with the elastic pressing member 4300. When the loading jig 3100 moves the magnetic ring and the shell to the lower side of the elastic pressing member 4300, the pressing driving member 4200 drives the elastic pressing member 4300 to move towards the shell, so that the elastic pressing member 4300 presses the shell and the magnetic ring. In this way, the magnetic ring can be installed in place. In this embodiment, the pressing driving member 4200 is a sliding table air cylinder.
[0049] Further, the elastic pressing member 4300 comprises a fixing block 4310, a first spring 4320, a fixing rod 4330 and a pressing block 4340. The fixing block 4310 is connected with the driving end of the pressing driving member 4200. The fixing rod 4330 is arranged in the fixing block 4310. The pressing block 4340 is connected with one end of the fixing rod 4330. The first spring 4320 is sleeved on the fixing rod 4330 and located between the fixing block 4310 and the pressing block 4340. The first spring 4320 can buffer the pressing force to avoid the magnetic ring and the shell being pressed.
[0050] In an embodiment, in order to enable the adhesive on the shell to quickly solidify, avoid the problem that the magnetic ring falls off due to the adhesive not being solidified when subsequent discharging of the shell is performed, the motor magnetic ring automatic assembly equipment of the present application further comprises a glue coating catalyst device 8000, which is arranged on the fixing frame and is used for performing glue coating catalyst operation on the magnetic ring on the loading jig.
[0051] It should be noted that the glue coating catalyst device 8000 is arranged opposite to the magnetic ring pressing device 4000, and the glue coating catalyst device 8000 needs to be performed before the magnetic ring pressing operation, that is, a layer of glue catalyst is coated on the outer surface of the magnetic ring on the loading jig 3100 before the magnetic ring pressing operation is performed, and then the magnetic ring pressing operation is performed to enable the magnetic ring to be completely installed into the inner cavity of the shell. At this time, the glue catalyst on the magnetic ring reacts with the adhesive on the inner side wall of the shell, so that the adhesive is accelerated to solidify, thereby avoiding the problem that the magnetic ring falls off when the shell is discharged. Specifically, in the present embodiment, the structure of the glue coating catalyst device 8000 is the same as that of the shell glue coating device. Further, in order to enable the outer surface of the magnetic ring on the loading jig 3100 to be coated with a layer of glue catalyst around the four sides, a rotary driving structure 3600 is arranged on the jig return conveying device 3000, for example, the structure of the rotary driving structure is the same as that of the rotary driving member 5130. The rotary driving structure is connected with the loading jig 3100, so as to realize the rotary movement of the loading jig 3100, and further drive the magnetic ring and the shell to rotate, so that the glue coating catalyst device 8000 can perform glue coating catalyst operation on the outer circumferential wall of the magnetic ring.
[0052] Please refer to Figure 5 and Figure 7 In an embodiment, in order to improve the assembly quality of the magnetic ring and the shell, ensure that the position of the magnetic ring does not deviate, and avoid the problem that the magnetic ring is not completely assembled in place during the magnetic ring pressing operation, the motor magnetic ring automatic assembly equipment further comprises a shaping device 9000. Specifically, the shaping device 9000 comprises a shaping support 9100, a shaping driving member 9200, a shaping sliding plate 9300, and a shaping member 9400. The shaping support 9100 is arranged on the jig return conveying device 3000. The shaping sliding plate 9300 is slidingly arranged on the shaping support 9100. The shaping driving member 9200 is connected with the shaping sliding plate 9300. The shaping member 9400 is arranged on one end of the shaping sliding plate 9300 which faces the jig return conveying device 3000. The shaping driving member 9200 is used to drive the shaping sliding plate 9300 to move towards the loading jig 3100, so as to enable the shaping member 9400 to perform downward shaping operation on the shell and the magnetic ring on the loading jig 3100, thereby ensuring that the position of the magnetic ring does not deviate and the like, and improving the assembly quality.
[0053] Further, the shaping member 9400 comprises a guide rod 9410, a second spring 9420 and a shaping block 9430, the guide rod 9410 is arranged on the shaping slide plate 9300, the shaping block 9430 is arranged on one end of the guide rod 9410 towards the jig backflow conveying device 3000, the second spring 9420 is sleeved on the guide rod 9410, and the second spring 9420 is located between the shaping slide plate 9300 and the shaping block 9430. The second spring 9420 plays a role of buffering the downward pressure, so as to avoid that the downward pressure is too large and the shell is pressed and injured. In order to avoid the shaft on the shell, the avoiding hole is also arranged on the shaping block 9430, and in the embodiment, the diameter of the avoiding hole should be greater than the diameter of the shaft, for example, greater than 2mm, so as to compensate the offset value of the position offset of the shaping block, so as to avoid the position offset of the shaping block, and further avoid that the shaft is pressed and injured.
[0054] The conventional conveying device is usually a one-way belt conveyor, and the conveying device cannot realize the backflow of the jig, that is, the material tray or the jig loaded with the material needs to be placed on the belt conveyor by the artificial or mechanical hand, and the material is conveyed by the belt conveyor. After the material is carried away by the unloading mechanical hand, the empty material tray or the empty jig on the belt conveyor also needs to be taken away by the artificial or mechanical hand, and the material is placed on the belt conveyor again. Thus, the cycle is repeated, and the one-way conveying mode is low in efficiency. Therefore, the jig backflow conveying device is adopted to solve the problem of conveying the jig backflow, and the artificial or mechanical hand is replaced to carry the jig, so as to improve the production efficiency, and the jig can also be avoided from being damaged by frequent carrying.
[0055] Please refer to Figure 8 and Figure 9 , and specifically, the jig backflow conveying device 3000 is provided with a plurality of material loading jigs 3100, and the jig backflow conveying device 3000 is provided with a material loading area, and the jig backflow conveying device 3000 is also provided with a magnetic ring pressing area and a shaping area; the jig backflow conveying device 3000 comprises a multi-station conveying module 3200, a first jig backflow module 3300, a jig transition module 3400 and a second jig backflow module 3500, and the multi-station conveying module 3200, the first jig backflow module 3300, the jig transition module 3400 and the second jig backflow module 3500 are sequentially connected in a ring shape.
[0056] It should be noted that the loading area, the magnetic ring pressing area and the shaping area are arranged on the multi-station conveying module 3200 in sequence, the magnetic ring pressing device 4000 is located on the magnetic ring pressing area, and the shaping device 9000 is located on the shaping area. In this way, the shell and the magnetic ring are sequentially subjected to loading, magnetic ring pressing and shaping on the multi-station conveying module 3200. The shell and the magnetic ring subjected to the above operations continue to enter the first jig reflow module 3300 with the loading jig 3100. The loading jig 3100 gradually passes through the first jig reflow module 3300 and the jig transition module 3400, and is finally transferred to the second jig reflow module 3500. A discharging robot or the like can be arranged on one side of the second jig reflow module 3500 to perform discharging operation on the product, and the empty loading jig 3100 continues to flow back to the multi-station conveying module 3200.
[0057] In an embodiment, the multi-station conveying module 3200 includes a first conveying belt 3210 and a first limiting stopper 3220. The first limiting stopper 3220 is arranged on one side of the first conveying belt 3210, and the blocking end of the first limiting stopper 3220 faces the first conveying belt 3210. When the loading jig 3100 moves to the loading area, the first limiting stopper 3220 is used to block and limit the loading jig 3100. In this way, the first limiting stopper 3220 stops the movement of the loading jig 3100 on the first conveying belt 3210, which facilitates the magnetic ring transfer module 2000 to transfer the magnetic ring to the loading jig 3100 in the loading area, and facilitates the shell and the magnetic ring transfer module 1000 to transfer the shell to the loading jig 3100 in the loading area.
[0058] Further, in an embodiment, the first limiting stopper 3220 includes a first supporting plate 3221, a first limiting stopper block 3222 and a first limiting driving member 3223. The first supporting plate 3221 is arranged on one side of the first conveying belt 3210, the first limiting stopper block 3222 is installed on the first supporting plate 3221, and the first limiting driving member 3223 is connected to one end of the first limiting stopper block 3222. The other end of the first limiting stopper block 3222 faces the first conveying belt 3210. When the loading jig 3100 moves to the loading area, the first limiting driving member 3223 is used to drive the first limiting stopper block 3222 to move towards the loading jig. In this way, the first limiting stopper block 3222 and the loading jig 3100 abut each other, thereby limiting and stopping the loading jig 3100, facilitating the loading operation, and further adjusting the position of the loading jig 3100 to avoid the position of the loading jig 3100 deviating and affecting the subsequent normal loading.
[0059] Further, since the carrier fixture 3100 is prone to be stuck at the joint of the multi-station conveying module 3200 and the second fixture reflow module 3500 during movement, in an embodiment, the multi-station conveying module 3200 further comprises a first fixture poking member 3230, the first fixture poking member 3230 is arranged at one side of the first conveying belt 3210, and the first fixture poking member 3230 is arranged opposite to the first limiting stopper 3220, the poking end of the first fixture poking member 3230 is located on the first conveying belt 3210, and the first fixture poking member 3230 is used for poking the carrier fixture 3100 from the second fixture reflow module 3500 to the multi-station conveying module 3200. In this way, by exerting a poking force on the carrier fixture 3100, the carrier fixture 3100 can enter the multi-station conveying module 3200 from the second fixture reflow module 3500, thereby avoiding the carrier fixture 3100 being stuck at the joint, and further realizing the reflow operation of the carrier fixture 3100, and ensuring smooth reflow of the carrier fixture 3100.
[0060] Specifically, the first fixture poking member 3230 comprises a support plate 3231, a sliding frame 3232, a poking block 3233, and a poking driving member 3234, the support plate 3231 is arranged at one side of the first conveying belt 3210, the support plate 3231 is provided with a poking guide rail 3235, the sliding frame 3232 is slidingly arranged on the poking guide rail 3235, the poking block 3233 is arranged on the sliding frame 3232, and the poking block 3233 is located on the first conveying belt 3210, the poking driving member 3234 is connected with the sliding frame 3232, and the poking driving member 3234 is used for driving the sliding frame 3232 to linearly displace along the poking guide rail 3235.
[0061] Further, since the end of the first fixture poking member 3230 in contact with the carrier fixture 3100 is in an arc-shaped structure, in order to avoid the carrier fixture 3100 from being positionally deviated when the first fixture poking member 3230 pokes the carrier fixture 3100, a limiting block 3236 is arranged on the poking block 3233, the limiting block 3236 is provided with a limiting slot, the limiting slot is in an arc-shaped structure, and the limiting slot abuts against the outer side wall of the carrier fixture 3100. That is, the structural size of the limiting slot matches the structural size of the outer side wall of the carrier fixture 3100, so as to facilitate the limiting slot to enclose part of the outer side wall of the carrier fixture 3100, thereby playing a limiting and fixing role, and avoiding the carrier fixture 3100 from being positionally deviated during the poking operation of the carrier fixture 3100.
[0062] In an embodiment, the multi-station conveying module 3200 further comprises a second limiting stop 3240, the first limiting stop 3220 and the second limiting stop 3240 have the same structure, and the second limiting stop 3240 is located on the area of the magnetic compression ring. When the carrier fixture 3100 moves on the area of the magnetic compression ring, the second limiting stop 3240 is used for limiting and stopping the carrier fixture 3100, and the position of the carrier fixture 3100 is adjusted through the second limiting stop 3240, so as to avoid the deviation of the carrier fixture 3100 and affect the normal operation of the magnetic compression ring.
[0063] The shaping area is located at the end of the first conveying belt 3210, and a blocking strip is arranged on the shaping area. The blocking strip is used for limiting the carrier fixture, so that the casing and the magnetic ring on the carrier fixture can be shaped by the shaping device.
[0064] In an embodiment, in order to avoid the carrier fixture 3100 being stuck on the joint end of the multi-station conveying module 3200 and the first fixture reflow module 3300, the first fixture reflow module 3300 comprises a first conveying belt 3310 and a second fixture jockey 3320. The second fixture jockey 3320 is arranged on one end of the first conveying belt 3310, and the second fixture jockey 3320 is used for jockeying the carrier fixture 3100 to move from the multi-station conveying module 3200 to the first conveying belt 3310. The carrier fixture 3100 is moved to the fixture transition module 3400 by the first conveying belt 3310, and the carrier fixture 3100 is prevented from being stuck on the joint end by the second fixture jockey 3320. In the embodiment, the second fixture jockey 3320 has the same structure as the first fixture jockey 3230. Further, the first conveying belt 3310 is a belt conveying belt.
[0065] In order to form a reflow closed loop by the fixture reflow conveying device 3000, the first fixture reflow module 3300 and the second fixture reflow module 3500 are connected through the fixture transition module 3400, so that the carrier fixture 3100 can enter the second fixture reflow module 3500 from the first fixture reflow module 3300.
[0066] The jig transition mold set 3400 includes a transition plate 3410 and a pushing piece 3420. The two ends of the transition plate 3410 are connected with the first jig reflow mold set 3300 and the second jig reflow mold set 3500 respectively. The pushing piece 3420 is located on one side of the transition plate 3410. The pushing piece 3420 is used to push the carrier jig 3100 from the first jig reflow mold set 3300 to the transition plate 3410, and is also used to push the carrier jig 3100 from the transition plate 3410 to the second jig reflow mold set 3500. In this embodiment, the transition plate 3410 has a "N" shape structure, so that the carrier jig 3100 can be limited. Further, in order to ensure the stability of the installation of the transition plate 3410, the bottom surface of the transition plate 3410 is provided with a transition plate support frame, and the transition plate is supported and fixed by the transition plate support.
[0067] Further, the pushing piece 3420 includes a fixed table 3421, a pushing driving piece 3422 and a pushing bar 3423. The fixed table 3421 is located on one side of the transition plate 3410. The pushing driving piece 3422 is installed on the fixed table 3421. The pushing bar 3423 is connected with the pushing driving piece 3422. The pushing driving piece 3422 is used to drive the pushing bar 3423 to reciprocatingly displace at the two ends of the transition plate 3410. Further, the pushing driving piece 3422 is a rodless cylinder. A slide rail is arranged on the fixed table 3421. The pushing bar is moved along the slide rail by the rodless cylinder.
[0068] It should be noted that one end of the transition plate 3410 is connected with the end of the first jig reflow mold set 3300, and the other end of the transition plate 3410 is connected with the initial end of the second jig reflow mold set 3500. When the carrier jig 3100 is pushed, the pushing piece 3420 is first moved to the side of the first jig reflow mold set 3300 away from the transition plate 3410, so as to avoid the carrier jig 3100. When the carrier jig 3100 moves to the front of the pushing bar, the pushing driving piece 3422 is started, and drives the pushing bar 3423 to push the carrier jig 3100 from the end of the first jig reflow mold set 3300 to the transition plate 3410, and then continues to push the carrier jig 3100 from the transition plate 3410 to the second jig reflow mold set 3500.
[0069] Further, in an embodiment, the second jig reflow mold set 3500 includes a second conveying belt 3510. The second conveying belt is a belt conveying belt.
[0070] Further, in order to improve the automation degree of the whole device and reduce the participation of manual, a good product unloading mechanical arm 10000 and a good product loading tray are arranged on one side of the second fixture reflow module, and the good product unloading mechanical arm 10000 is used to carry the good product on the loading fixture to the good product loading tray. In this way, the unloading operation of the good product can be realized. In the embodiment, the good product unloading mechanical arm 10000 is a three-axis mechanical arm.
[0071] Further, in order to facilitate the unloading operation of the good product unloading mechanical arm 10000, a fixture stopping piece 3520 is further arranged at the end of the second fixture reflow module 3500, and the fixture stopping piece 3520 is used to stop the loading fixture 3100. The fixture stopping piece 3520 includes a stopping cylinder and a stopping rod, the stopping cylinder is connected with the stopping rod, and the loading fixture 3100 is also provided with a stopping limiting hole. By moving the stopping rod to the direction of the loading fixture 3100 driven by the stopping cylinder, the stopping rod is inserted into the stopping limiting hole, so that the stopping limiting of the loading fixture 3100 is realized.
[0072] The above embodiments only express several embodiments of the present application, and the description is more specific and detailed, but it cannot be understood as the limitation of the scope of the patent. It should be pointed out that for ordinary skilled in the art, without departing from the concept of the present application, a number of modifications and improvements can be made, which belong to the protection scope of the present application. Therefore, the protection scope of the patent of the present application should be subject to the appended claims.
Claims
1. An automatic assembly device for electric motor magnetic rings, characterized in that, include: The assembly includes a housing tilting and feeding module, an upper magnetic ring module, a fixture return conveying device, and a magnetic ring pressing device. The housing tilting and feeding module, the upper magnetic ring module, and the magnetic ring pressing device are respectively arranged around the periphery of the fixture return conveying device. The fixture return conveying device is equipped with multiple material-carrying fixtures, and the fixture return conveying device is equipped with a feeding area and a magnetic ring pressing area. The magnetic ring pressing device is located on the magnetic ring pressing area. When one of the material-carrying fixtures is located on the loading area, the upper magnetic ring module is used to transfer the magnetic ring to the material-carrying fixture in the loading area, and the housing flipping loading module is used to transfer the housing to the loading area so that the housing is fitted onto the magnetic ring. When the fixture return conveying device transfers the material-carrying fixture to the magnetic ring pressing device, the magnetic ring pressing device is used to press the magnetic ring on the material-carrying fixture and the housing. The fixture return conveying device includes a multi-station conveying module, a first fixture return module, a fixture transition module, and a second fixture return module, which are connected end to end in a ring structure. The multi-station conveying module includes a first conveyor belt, a first limiting and blocking member, a first fixture actuating member, and a second limiting and blocking member. The first limiting and blocking member is disposed on one side of the first conveyor belt, with its blocking end facing the first conveyor belt. When the material-carrying fixture moves to the loading area, the first limiting and blocking member is used to block and limit the material-carrying fixture. The first fixture actuating member is disposed on one side of the first conveyor belt, with its actuating end located on the first conveyor belt. The first fixture actuating member is used to push the material-carrying fixture from the second fixture return module into the multi-station conveying module. The second limiting and blocking member is located on the magnetic ring area. When the material-carrying fixture moves on the magnetic ring area, the second limiting and blocking member is used to limit and block the material-carrying fixture. The first fixture return module includes a first conveyor belt and a second fixture actuating component. The second fixture actuating component is disposed on one end of the first conveyor belt and is used to actuate the material-carrying fixture from the multi-station conveying module to the first conveyor belt. The fixture transition module includes a transition plate and a pusher. The two ends of the transition plate are respectively connected to the first fixture return module and the second fixture return module. The pusher is located on one side of the transition plate. The pusher is used to push the material-carrying fixture from the first fixture return module onto the transition plate, and the pusher is also used to push the material-carrying fixture from the transition plate onto the second fixture return module.
2. The automatic assembly equipment for motor magnetic rings according to claim 1, characterized in that, It also includes a housing adhesive application device, which is located on one side of the housing flipping and feeding module and is used to apply adhesive to the inner wall of the housing.
3. The automatic assembly equipment for motor magnetic rings according to claim 1, characterized in that, The housing flipping and feeding module includes a housing flipping robot and a housing feeding robot. The housing flipping robot and the housing feeding robot are respectively disposed on one side of the fixture return conveying device. The housing flipping robot is used to flip the housing, and the housing feeding robot is used to transfer the flipped housing to the feeding area so that the housing is fitted onto the magnetic ring.
4. The automatic assembly equipment for motor magnetic rings according to claim 3, characterized in that, The housing flipping robot includes a flipping fixture, a fixed gripper, a flipping motor, and a lifting component. The flipping fixture is located on one side of the fixture return conveyor. The fixed gripper is connected to the flipping motor, and the lifting component is connected to the flipping motor. The fixed gripper is used to load and fix the housing on the flipping fixture. The flipping motor is used to drive the fixed gripper to flip so that the opening of the housing faces downward. The lifting component is used to drive the flipping motor to move up and down.
5. The automatic assembly equipment for motor magnetic rings according to claim 4, characterized in that, The lifting component includes a lifting plate and a drive cylinder. The tilting motor is mounted on the lifting plate, and the drive cylinder is connected to the lifting plate. The drive cylinder is used to drive the lifting plate to move up and down.
6. The automatic assembly equipment for motor magnetic rings according to claim 1, characterized in that, It also includes a magnetic ring defect detection device, which is installed on the jig return conveyor and located between the feeding area and the magnetic ring pressing device. The magnetic ring defect detection device is used to detect the position of the magnetic ring on the material-carrying jig.
7. The automatic assembly equipment for motor magnetic rings according to claim 1, characterized in that, The magnetic ring pressing device includes a fixed frame, a pressing drive component, and an elastic pressing component. The fixed frame is disposed on one side of the fixture return conveying device. The pressing drive component is mounted on the fixed frame and connected to the elastic pressing component. When the material-carrying fixture moves the magnetic ring and the housing to below the elastic pressing component, the pressing drive component drives the elastic pressing component to move towards the housing, so that the elastic pressing component performs a pressing operation on the housing and the magnetic ring.
8. The automatic assembly equipment for motor magnetic rings according to claim 7, characterized in that, The downward driving component is a slide cylinder.
9. The automatic assembly equipment for motor magnetic rings according to claim 7, characterized in that, The elastic pressing member includes a fixed block, a first spring, a fixed rod, and a pressing block. The fixed block is connected to the driving end of the pressing drive member. The fixed rod passes through the fixed block. The pressing block is connected to one end of the fixed rod. The first spring is sleeved on the fixed rod and is located between the fixed block and the pressing block.
10. The automatic assembly equipment for motor magnetic rings according to claim 7, characterized in that, It also includes a coating catalyst device, which is mounted on the fixed frame and is used to apply a coating catalyst to the magnetic ring on the material carrier fixture.
Citation Information
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