TWM598742U - Automated packaging equipment of core magnetic steel of motor rotor - Google Patents

Abstract

A motor rotor iron core magnetic steel automatic packaging equipment, which comprises: at least one packaging host, a rubber pellet supply device, a waste removal device, a conveying device and a control device. The motor rotor iron core magnetic steel automatic packaging equipment created by this invention can drive the rotor iron core feeding mechanism to move under the coordinated control of the control device, periodically feeding the rotor iron core into the glue injection mechanism, and the rubber particle supply device can adjust the glue The pellets are separated and output to achieve the pre-arrangement of the rubber pellets. The conveying device transports the rubber pellets and moves the rubber waste removal device to transfer the waste rubber to the waste removal area. This creation completes the automated supply of rotor cores, the automated supply of rubber pellets, and the automated removal of waste rubber, achieving the automated operation of the entire production process, thereby promoting the automated mass production of rotor cores.

Description

Motor rotor iron core magnetic steel automatic packaging equipment

This creation is about a kind of motor rotor core production equipment, and more particularly about a kind of motor rotor core magnet automatic packaging equipment.

The rotor orientation of the motor requires a large output capacity, and at the same time has high requirements for environmental conditions (high speed, high and low temperature, oiliness, corrosiveness, etc.). The combination of the multilayer iron core and the firmness of the magnetic steel in the rotor iron core will directly affect the performance of the motor. Output efficiency and quality, life span.

At present, the iron core and magnetic steel are encapsulated by the magnetic steel sealing glue host of the motor rotor iron core. The current sealing methods are roughly divided into three types. The first method is the dispensing and fixing method: the magnetic steel is first loaded into the iron core magnetic steel In the tank, apply liquid filled hot plastic dots on the surface of the magnetic steel and its surroundings, so that it will automatically flow into the gap; the second method is the magnetic steel immersion method: first paste the film on the bottom of the iron core and inject an appropriate amount The liquid thermosetting glue is placed in the magnetic steel tank, and then the magnetic steel is loaded into the magnetic steel tank; the third is the single-particle glue filling method: first arrange and fill the iron core and magnetic steel, and then heat the single The solid rubber particles are melted by applying a heat source, and force is applied to squeeze the molten rubber into the magnetic steel groove, so that it is filled in the gap between the magnetic steel and the magnetic steel groove.

Comparing the three sealing methods of the above sealing host, the first and second methods are only suitable for single-layer iron cores and liquid filling glue, and the manual participation is high; these two methods do not have multilayer iron cores and The conditions of automatic production and the lack of pressure during the filling process may cause the glue structure to be loose. Although the third method can produce multi-layer iron core rotors, the single rubber pellets are not easy to be evenly heated due to their large volume; in automated production, the rubber pellets need to be preheated for a long time in advance, so the filling quality is relatively uneven , And its single source of glue causes a long flow channel, the actual utilization rate of rubber particles is too low, and the cost is high; therefore, the above-mentioned sealing method cannot achieve mass production of high-quality and high-capacity motor rotors.

At the same time, the existing glue sealing host usually adopts the glue injection method. Affected by this glue sealing method, the waste glue cannot be stably separated from the glue injected into the magnetic steel tank during demolding; after demolding, the waste glue is directly exposed to gravity. The function drops, and it is impossible to achieve precise grasping and collection; therefore, the glue injection equipment using the existing sealing host can only realize the automation in the glue injection process, and the continuous supply of iron cores, the supply of rubber particles, and the collection of waste materials. The overall automation cannot be achieved in the process.

Therefore, in order to solve the various problems of the conventional motor rotor core production equipment, this creation proposes a motor rotor core magnet automatic packaging equipment.

In order to achieve the above and other purposes, this creation proposes an automatic packaging equipment for motor rotor iron core magnetic steel, which includes: at least one packaging host, including a glue injection mechanism and a rotor iron core feeding mechanism, the rotor iron core feeding The mechanism is arranged on one side of the glue injection mechanism to feed a plurality of rotor cores into the glue injection mechanism one by one; a rubber particle supply device includes a rubber particle storage mechanism, a rubber pipe, a moving rack and a transfer tray, The movable frame is connected with the rubber pipe, the inlet of the rubber pipe is connected to the rubber particle storage mechanism, the outlet of the rubber pipe faces the upper surface of the transfer tray, and the transfer tray has a plurality of receiving grooves corresponding to the rotor core. The bottom of the transfer tray is provided with a control valve to control the opening and closing of the bottom of the containing tank; a waste removal device; a conveying device including a conveying track, a first moving mechanism and a second moving mechanism, the conveying track is parallel to the injection Connecting the glue mechanism, the rubber particle storage mechanism and a waste removal area, the first moving mechanism is connected to the transfer tray so that the transfer tray slides on the conveying track, and the second moving mechanism is connected to the waste removal area A removal device to make the waste removal device slide on the conveying track; a control device, a signal connected to the glue injection mechanism, the rotor core feeding mechanism, the moving frame, the control valve, the waste removal device, The first moving mechanism and the second moving mechanism, wherein the control device controls the rotor core feeding mechanism so that the motor rotor cores are sequentially fed into the glue injection mechanism and fed out, and the control device controls the The moving rack moves the rubber pipe so that the rubber pipe moves on the upper surface of the transfer tray to place the rubber particles in the holding grooves. The control device controls the first moving mechanism to move the transfer tray so that the transfer tray Move back and forth between the position corresponding to the rubber particle storage mechanism and the position corresponding to the glue injection mechanism, and when the transfer tray is located at the position corresponding to the glue injection mechanism, the control valve is controlled to open so that the cloth is placed in the containing The rubber particles in the tank are supplied to the glue injection mechanism, and when the transfer disk is at a position corresponding to the rubber particle storage mechanism, the control valve is controlled to close, and the control device controls the glue injection mechanism to inject glue to the rotor core , The control device controls the second moving mechanism to move the waste removal device, so that the waste removal device moves back and forth between the position corresponding to the waste removal area and the position corresponding to the glue injection mechanism, and moves the waste material When the removal device is at the position corresponding to the glue injection mechanism, control the waste removal device to take out the waste glue in the glue injection mechanism, and when the waste removal device is at the position corresponding to the waste removal area, control the waste material The removal device releases the waste glue.

In an embodiment of the invention, the rotor core feeding mechanism includes a rotating shaft, a power output member, and a rotor core carrier. The rotating shaft is arranged on one side of the glue injection mechanism, and the rotor core The center of the carrier is sleeved on the rotating shaft, the rotor core carrier is provided with a plurality of glue injection plates, each of the glue injection plates is provided with an insertion area for placing a rotor core, and the power output member is connected to the rotor The iron core carrier makes the rotor iron core carrier rotate to feed the glue injection plates into the glue injection mechanism in sequence.

In an embodiment of the present invention, the control device is signal-connected to the power output component, and the control device controls the power output component so that the glue injection boards are fed into the glue injection mechanism and output sequentially.

In an embodiment of the present invention, the rotor core feeding mechanism includes two conveyor tracks, which are respectively arranged at the feed inlet and the outlet of the glue injection mechanism.

In an embodiment of this creation, the control device signals the conveyor tracks so that the rotor cores are sequentially fed into the glue injection mechanism and fed out.

In an embodiment of the present invention, the transfer tray is provided with a plurality of heating elements, which are arranged adjacent to the containing grooves.

In an embodiment of this creation, it further includes a shaft-piercing and expanding device. The shaft-piercing and expanding device includes an outer sleeve, an inner sleeve, a threading shaft, an extrusion power member, and a reset power member. The sleeve is in a conical shape. The bottom end of the inner sleeve is connected to a rubber injection plate of the rotor core feeding mechanism. The outer sleeve has a cone-shaped space inside and is sleeved on the inner sleeve. The outer surface of the barrel faces the inner surface of the shaft hole. The outer sleeve has a plurality of upper grooves and a plurality of lower grooves. The upper grooves extend axially downward from the top of the outer sleeve, and the lower grooves extend from the outer sleeve. The bottom end of the sleeve extends upward in the axial direction. The upper grooves and the lower grooves are staggered and equidistantly arranged. The top of the outer sleeve is provided with an accommodation groove and an anti-falling part. The through shaft includes a head Part and a body part, the body part penetrates the inner sleeve, the head part is arranged in the accommodating groove, the anti-falling part is arranged on the periphery of the head, the accommodating groove and the anti-falling part are used to restrict For the displacement of the shaft, the pressing power part is arranged adjacent to the head, the resetting power part is arranged adjacent to the bottom end of the inner sleeve, the pressing power part and the resetting power part are signally connected to the control device, the The control device controls the squeezing power piece to press the head along the axial direction of the shaft to force the outer sleeve to expand outward, and the control device controls the reset power piece to reverse the axial direction of the shaft. Squeeze the body to reset the outer sleeve.

In an embodiment of the present invention, the rotor core feeding mechanism further includes a heat preservation member, the heat preservation member includes a lifting arm, a heat preservation cover and a heating chassis, the heating chassis is arranged under the heat preservation cover, the The lifting arm is connected with the heat preservation cover, and the control device is connected with the lifting arm to control the vertical displacement of the lifting arm.

In an embodiment of the present invention, the rotor core feeding mechanism further includes an outer diameter restricting member, the outer diameter restricting member includes a moving arm and two semi-ring cylindrical shells whose shapes match the rotor core, The moving arm signal is connected to the control device, the semi-ring cylindrical casings are arranged on a rubber injection plate of the rotor core feeding mechanism through the moving arm, and the semi-ring cylindrical casings are provided for each other The snap-fit part.

In an embodiment of the present invention, a plurality of the packaging hosts share the conveying track, the packaging hosts are arranged side by side, and the rubber pellet supply device and the waste removal area are respectively arranged at two ends of the packaging hosts.

As a result, the motor rotor core magnetic steel automatic packaging equipment created by this invention can drive the rotor core feed mechanism to move under the coordinated control of the control device, and periodically feed the rotor core into the glue injection mechanism; at the same time, The rubber particle storage mechanism separates and outputs the rubber particles, and transports the rubber particles in groups through the rubber pipe to the corresponding storage tank for temporary storage; this step uses small rubber particles to achieve the pre-arrangement of the rubber particles, effectively avoiding the preheating of the large rubber particles The problems of long time, uneven filling quality and low actual utilization rate of rubber particles effectively reduce the cost of using rubber particles. The transfer tray is pushed to the top of the glue injection mechanism by the first moving mechanism, and the rubber particles are filled into the glue injection mechanism by the opening and closing of the control valve; after the glue injection is finished, the rubber waste removal device is driven by the second moving mechanism In cooperation, the waste rubber is transferred to the waste removal area, and the rotor iron core feeding mechanism will transport out the rotor iron core that has completed the injection, thereby realizing the automatic cleaning of the waste rubber.

The motor rotor iron core magnetic steel automatic packaging equipment created by this author completes the automatic supply of the rotor core, the automatic supply of rubber particles, and the automatic removal of waste rubber, achieving the automatic operation of the entire production process, which in turn promotes the automation of the rotor core. produce. The motor rotor iron core magnetic steel automatic packaging equipment created by this invention can automatically inject glue on the multilayer iron core to ensure the combination of the multilayer iron core and the firmness of the magnetic steel in the rotor iron core, thereby improving the quality and capacity of the motor rotor.

In order to fully understand the creation, the following specific examples are used to illustrate the creation in detail with the accompanying drawings. Those skilled in the art can understand the purpose, features and effects of this creation from the content disclosed in this specification. It should be noted that this creation can be implemented or applied through other different specific embodiments, and various details in this specification can also be based on different viewpoints and applications, and various modifications and changes can be made without departing from the spirit of this creation. The following implementations will further describe the related technical content of this creation in detail, but the disclosed content is not intended to limit the scope of patent application for this creation. The description is as follows:

As shown in Figures 1 to 3, the automatic packaging equipment 100 for the motor rotor iron core magnetic steel of the present creative embodiment includes: at least one packaging host 1, a waste removal device 2, a rubber pellet supply device 3, and a control Device 4 and a conveying device 5.

As shown in FIG. 4, the packaging host 1 includes a glue injection mechanism 11 and a rotor core feeding mechanism 12. The glue injection mechanism 11 is used to inject glue into the rotor core M. In this embodiment, the glue is injected upward from the bottom of the rotor core M. The rotor core feeding mechanism 12 is arranged on one side of the glue injection mechanism 11 to feed the plurality of rotor cores M into the glue injection mechanism 11 one by one.

In this embodiment, the rotor core feeding mechanism 12 is a rotary feeding mechanism. The rotor core feeding mechanism 12 includes a rotating shaft 121, a power output member 122 and a rotor core carrier 123. The rotating shaft 121 is arranged on one side of the glue injection mechanism 11, the center of the rotor core carrier 123 is sleeved on the rotating shaft 121, the rotor core carrier 123 is provided with a plurality of glue injection plates 1231, and each glue injection plate 1231 is respectively provided There is an insertion area R for respectively placing a rotor core M (refer to Figure 10). In the placement area R, the glue injection board 1231 is also provided with a plurality of glue injection holes 1232 to allow the glue injection mechanism 11 to pass through the glue injection board 1231 from below to inject glue into the rotor core M.

The power output member 122 is connected to the rotor core carrier 123 so that the rotor core carrier 123 rotates to feed the glue injection plate 1231 into the glue injection mechanism 11 sequentially. In this embodiment, the rotor core carrier 123 is double symmetrical, and each end is provided with a glue injection plate 1231. Therefore, every time the rotor core carrier 123 rotates 180 degrees, a rotor core M is fed into the glue injection mechanism 11. And the rotor core M originally located in the glue injection mechanism 11 is sent out. With the continuous rotation of the rotor core carrier 123, the rotor core M to be injected can be automatically fed into the injection mechanism 11, and the completed rotor core M can be sent out of the injection mechanism 11. However, the invention is not limited to this. The rotor core carrier 123 may be triple-symmetrical with a three-injection rubber plate 1231, or for four-fold symmetry with a four-injection rubber plate 1231, etc., which can vary according to production requirements.

As shown in FIG. 3, two outer sides of the glue injection mechanism 11 that are different from the side of the rotor core feeding mechanism 12 are respectively provided with a waste removal area F and a rubber pellet supply device 3. The waste removal device 2 can move back and forth between the waste removal area F and the glue injection mechanism 11.

As shown in FIG. 6, the rubber particle supply device 3 includes a rubber particle storage mechanism 31, a rubber pipe 32, a moving rack 33 and a transfer tray 34. The movable frame 33 is connected to the rubber pipe 32, and the inlet of the rubber pipe 32 is connected to the rubber particle storage mechanism 31. The rubber particle storage mechanism 31 stores a plurality of rubber particles (not shown). The rubber particle storage mechanism 31 vibrates at a specific frequency to separate the rubber particles stacked in the rubber particle storage mechanism 31. The separated rubber particles pass through the rubber pipe 32 outputs. The outlet of the rubber pipe 32 faces the upper surface of the transfer tray 34. As shown in FIG. 7, the transfer tray 34 has a plurality of positions corresponding to the accommodating grooves 341 of the rotor core M. Therefore, when the movable frame 33 moves the rubber pipe 32 to each accommodating groove 341, the rubber particles output by the rubber pipe 32 will follow They are sequentially dropped into the containing groove 341, and temporarily stored in the transfer tray 34 in a manner that the arrangement pattern matches the glue injection position of the rotor core M. As shown in FIGS. 7 and 8, a control valve 342 is provided at the bottom of the transfer tray 34 to selectively control the opening and closing of the bottom of the containing tank 341. When the transfer tray 34 is located below the rubber pipe 32 to receive rubber pellets, the control valve 342 is closed to leave the rubber pellets in the holding tank 341; when the transfer tray 34 is moved to the glue injection mechanism 11, the control valve 342 opens to make the glue The pellets fall on the glue injection mechanism 11. In this embodiment, the control valve 342 has a plate-like structure with an opening, and the opening can be connected or disconnected from the receiving groove 341 through horizontal movement. However, the present invention is not limited to this. The control valve 342 can have other structures and principle.

As shown in FIGS. 1 to 3, the conveying device 5 includes a conveying track 53, a first moving mechanism 51 and a second moving mechanism 52. The conveying track 53 is parallel to the connection line of the glue injection mechanism 11, the glue pellet supply device 3 and the waste removal area F. The first moving mechanism 51 is connected to the transfer tray 34 so that the transfer tray 34 slides on the conveying track 53 and is fed under the rubber pipe 32 and the glue injection mechanism 11, while the second moving mechanism 52 is connected to the waste removal device 2 so that The waste removal device 2 slides on the conveying track 53 and is fed into the waste removal area F and the glue injection mechanism 11.

As shown in FIG. 5, the control device 4 signals the glue injection mechanism 11, the power output member 122 of the rotor core feeding mechanism 12, the moving frame 33, the control valve 342, the waste removal device 2, the first moving mechanism 51 and the second Two moving mechanism 52.

Next, it will be explained how the control device 4 controls these elements to work together.

First, the control device 4 controls the first moving mechanism 51 to move the transfer tray 34 so that the transfer tray 34 is located at a position corresponding to the rubber pellet supply device 3. The first moving mechanism 51 can not only make the transfer tray 34 slide along the conveying track 53, but also The first moving mechanism 51 can also move the transfer tray 34 back and forth in a direction perpendicular to the conveying track 53 so that the outlet of the rubber pipe 32 faces the transfer tray 34. Then the control device 4 controls the moving frame 33 to move the rubber pipe 32 horizontally, so that the rubber pipe 32 moves on the upper surface of the transfer tray 34 to place the rubber particles in the plurality of holding grooves 341. In this process, the control device 4 controls the control valve 342 closed.

On the other hand, the control device 4 controls the power output member 122 to rotate the rotor core carrier 123, and feed one of the glue injection plates 1231 and the rotor core M to be glued on it into the glue injection The upper part of the mechanism 11 is pre-remarked glue.

Next, the control device 4 controls the first moving mechanism 51 to move the transfer tray 34 so that the transfer tray 34 is moved to a position corresponding to the glue injection mechanism 11 via the conveying track 53 (the first moving mechanism 51 can be moved in a direction perpendicular to the conveying track 53 Move the transfer tray 34 back and forth so that the transfer tray 34 is located directly above the glue injection mechanism 11). At this time, the transfer tray 34 is located below the glue injection board 1231 and above the glue injection mechanism 11. The control device 4 controls the control valve 342 to open, so that the rubber particles fall down at a predetermined position and are supplied to the glue injection mechanism 11. By repeating the above actions, the transfer tray 34 can be moved back and forth between the position corresponding to the rubber particle storage mechanism 31 and the position corresponding to the glue injection mechanism 11, thereby continuously distributing the rubber particles at the predetermined position of the glue injection mechanism 11.

After the transfer plate 34 leaves, the control device 4 controls the glue injection mechanism 11 to move upward (or the rotor core carrier 123 moves down), so that the glue injection mechanism 11 is directed to the rotor core M through the glue injection hole 1232 of the glue injection plate 1231. Injection glue. Since the arrangement of rubber particles distributed by the glue injection mechanism 11 corresponds to the glue injection position of the rotor core M, when the rotor core M is located directly above the glue injection mechanism 11, the glue injection mechanism 11 directly squeezes and heats these already placed The glue particles can be used to inject the melt into the rotor core M. During the glue injection process, the control device 4 can simultaneously control the first moving mechanism 51 and the moving frame 33 to perform the aforementioned rubber particle arrangement action.

After the glue injection is completed, the rotor core carrier 123 is separated from the glue injection mechanism 11 (it can be the rotor core carrier 123 moves up or the glue injection mechanism 11 moves down), and the control device 4 controls the second moving mechanism 52 to move the waste removal Device 2 moves the waste removal device 2 toward a position corresponding to the glue injection mechanism 11. The second moving mechanism 52 can move the waste removal device 2 back and forth in a direction perpendicular to the conveying track 53 so that the waste removal device 2 is located directly above the glue injection mechanism 11.

When the waste removal device 2 is located directly above the injection mechanism 11 at the position corresponding to the glue injection mechanism 11 (the waste removal device 2 is below the rotor core carrier 123), the control device 4 controls the waste removal device 2 Take out the waste glue remaining on the glue injection mechanism 11. In this embodiment, the waste removing device 2 is a suction head that uses suction to suck waste rubber, but the invention is not limited to this.

After sucking the waste rubber, the control device 4 then controls the second moving mechanism 52 to move the waste removal device 2 to move the waste removal device 2 to the waste removal area F. The rotor core M that has been injected with glue is removed and replaced with the next one, and the next rotor core M to be injected with glue is fed into the glue injection mechanism 11.

When the waste removal device 2 is moved to a position corresponding to the waste removal area F, the control device 4 controls the waste removal device 2 to release waste rubber, so that the waste rubber falls in the waste removal area F. By repeating the above actions, the waste removal device 2 can be moved back and forth between the position corresponding to the waste removal area F and the position corresponding to the glue injection mechanism 11, and the waste glue remaining in production can be automatically and continuously removed.

The sequence of the operation steps of the motor rotor iron core magnetic steel automatic packaging equipment 100 of the present invention is actually not limited to the above. In fact, the sequence of actions of the components can be adjusted according to the manufacturing process conditions.

The motor rotor iron core magnetic steel automatic packaging equipment 100 created by this invention can drive the rotor iron core feeding mechanism 12 to move under the coordinated control of the control device 4, and periodically feed the rotor iron core M into the glue injection mechanism; and At the same time, the rubber particle storage mechanism 31 separates and outputs the rubber particles by shaking, and transports the rubber particles in groups through the rubber pipe 32 to the corresponding holding tank 341 for temporary storage; this step uses small rubber particles to achieve the The pre-arrangement effectively avoids the problems of long preheating time of large rubber particles, uneven filling quality, and low actual utilization rate of rubber particles, and effectively reduces the use cost of rubber particles. The transfer tray 34 is pushed to the upper side of the glue injection mechanism 11 by the first moving mechanism 51, and the rubber particles are filled into the glue injection mechanism 11 by the opening and closing of the control valve 342; after the glue injection is completed, the rubber waste removal device 2 borrows With the cooperation of the second moving mechanism 52, the waste rubber is transferred to the waste removal area F, and the rotor core feeding mechanism 12 transports out the rotor core M that has completed the injection, thereby realizing the automatic cleaning of the waste rubber.

The motor rotor iron core magnetic steel automatic packaging equipment 100 of this creation has completed the automatic supply of the rotor core M, the automatic supply of rubber particles, and the automatic removal of waste rubber, achieving the automatic operation of the entire production process, thereby promoting the rotor core M Automated mass production. The motor rotor iron core magnetic steel automatic packaging equipment 100 of the present invention can automatically inject glue on the multilayer iron core to ensure the combination of the multilayer iron core and the firmness of the magnetic steel in the rotor iron core, thereby improving the quality and capacity of the motor rotor.

Further, in one embodiment, as shown in FIG. 8, the transfer tray 34 is provided with a plurality of heating elements 343, which are arranged adjacent to the receiving groove 341. The heating element 343 can preheat the rubber particles to promote the softening of the rubber particles, thereby shortening the process time and improving the quality of the rubber injection.

Further, in an embodiment, as shown in FIGS. 1, 5 and 9, the rotor core feeding mechanism 12 further includes a heat-preserving member 124. The heat preservation member 124 includes a lifting arm 1241, a heat preservation cover 1242 and a heating chassis 1243. The lifting arm 1241 is connected to the heat preservation cover 1242, the heating chassis 1243 is disposed under the heat preservation cover 1242, and the control device 4 is connected to the lifting arm 1241 by signals to control the vertical displacement of the lifting arm 1241. When a glue injection plate 1231 and the rotor core M on it are located in the glue injection mechanism 11, the control device 4 can control the lifting arm 1241 to descend, so that the thermal insulation member 124 covers the other glue injection mechanism 11 and waits for injection. The rubber rotor core M, and the heating chassis 1243 is located directly below the glue injection board 1231 that has not been fed. The thermal insulation member 124 and the heating chassis 1243 sandwich the rotor core M to provide continuous thermal insulation for the rotor core M waiting for glue injection, so that the temperature is close to the conditions required by the manufacturing process, so as to improve the subsequent glue injection quality.

Further, in one embodiment, as shown in FIGS. 10 to 12A, the automatic packaging equipment 100 for the magnetic steel of the motor rotor iron core of the present invention further includes a piercing and expanding shaft device 6. The threading and expanding shaft device 6 includes an outer sleeve 61, an inner sleeve 62, a threading shaft 63, an extrusion power member 64 and a reset power member 65.

As shown in FIGS. 11 to 12C, the inner sleeve 62 has a conical shape, and the bottom end of the inner sleeve 62 is connected to the rubber injection plate 1231 of the rotor core feeding mechanism 12.

As shown in FIGS. 10 and 12A, the outer surface of the outer sleeve 61 faces the inner surface of the shaft hole, and as shown in FIG. 10, the outer sleeve 61 has a plurality of upper grooves 611 and a plurality of lower grooves 612. The top end of the outer sleeve 61 extends downward in the axial direction, and the plurality of lower grooves 612 extend upward in the axial direction from the bottom end of the outer sleeve 61, and the upper grooves 611 and the lower grooves 612 are staggered at equal intervals. As a result, The outer diameter size of the outer sleeve 61 can be squeezed by an external force to have a variable elastic space.

As shown in FIGS. 11 to 12C, the top of the outer sleeve 61 is provided with a receiving groove T and an anti-falling part 613.

The shaft 63 includes a head 631 and a body 632. The body 632 penetrates the inner sleeve 62. The head 631 is disposed in the accommodating groove T. The anti-dropping portion 613 is disposed on the periphery of the head 631. The accommodating groove T and The anti-falling part 613 is used to limit the displacement of the through shaft 63.

The extrusion power member 64 and the reset power member 65 are signal-connected to the control device 4. The squeezing power member 64 is disposed adjacent to the head 631, and the reset power member 65 is disposed adjacent to the bottom end of the inner sleeve 62.

Next, how to manipulate the outer diameter size change of the outer sleeve 61 will be explained.

As shown in Fig. 12A, first, the shaft hole of the rotor core M is aligned with the shaft-piercing device 6 and inserted. When the outer sleeve 61 is not expanded, the outer sleeve 61 is not in close contact with the inner surface of the shaft hole of the rotor core M. It should be noted that FIGS. 12A to 12C are for ease of understanding. Therefore, the distance between the outer sleeve 61 and the inner surface of the shaft hole is exaggerated. In fact, the actual size and proportion of each component may not be the same as the drawing.

Next, as shown in FIG. 12B, the control device 4 controls the pressing power member 64 to press the head 631 along the axial direction of the shaft 63, and the head 631 presses the outer sleeve 61 in the accommodating groove T so that the outer sleeve 61 is slightly stretched outwards under force, and the outer diameter increases. At this time, the outer surface of the outer sleeve 61 is attached to the inner surface of the shaft hole of the rotor core M, and the outer sleeve 61 is tightly fitted with the shaft hole of the rotor core M, thereby ensuring the multilayer core of the rotor core M The relative position and angle between the two are more accurate.

When the rotor core M is to be taken out, as shown in Fig. 12C, the control device 4 controls the reset power member 65 to press the body 632 in the axial direction of the through shaft 63 in reverse direction, so that the through shaft 63 is pushed up to prevent it from falling out. For the part 613, since the outer sleeve 61 receives an upward force, the outer diameter is retracted to its original size. Thereby, the distance between the outer sleeve 61 and the inner surface of the shaft hole of the rotor core M is increased, so that the rotor core M can be easily taken out.

Further, in an embodiment, as shown in FIG. 13, the rotor core feeding mechanism 12 further includes an outer diameter limiting member 125. The outer diameter restricting member includes a movable arm 1251 and two semi-ring cylindrical shells 1252 whose shapes match the rotor core M. The two semi-ring cylindrical shells 1252 are provided with buckling parts 1252a, 1252b for buckling with each other. . The buckling portions 1252a and 1252b are in corresponding shapes. When the two semi-ring cylindrical shells 1252 are opposite to each other, the buckling portions 1252a and 1252b are buckled together in pairs, and the shape is not limited to that shown in the figure. The half-ring cylindrical sleeve 1252 further has a locking hole 1252c, which allows screws to pass through the locking hole 1252c to securely lock the two half-ring cylindrical sleeves 1252 on the outside of the rotor core M, so that the rotor core The shape of M is maintained. The moving arm 1251 is signal-connected to the control device 4, and the two half-ring cylindrical casings 1252 can be respectively driven by the connecting moving arm 1251. The two semi-ring cylindrical shells 1252 are arranged on the rubber injection plate 1231 of the rotor core feeding mechanism 12 via the moving arm 1261. The control device 4 controls the moving arm 1251 to move so that the two semi-ring cylindrical shells 1252 are set In the rotor core M. In addition, the shape of the movable arm 1251 and the connection manner with the semi-circular cylindrical casing 1252 are not limited to those shown in the drawings.

Further, in one embodiment, as shown in FIG. 14, a plurality of package hosts 1 share a transport track 53, so multiple package hosts 1 can be arranged in parallel. In this embodiment, a plurality of packaging hosts 1 are arranged in parallel, and the rubber pellet supply device 3 and the waste removal area F are respectively arranged at both ends of the plurality of parallel packaging hosts 1, and the control device 4 controls the first moving mechanism 51 in the corresponding glue The position of the grain storage mechanism 31 and the position of each glue injection mechanism 11 are displaced. Similarly, the control device 4 controls the second moving mechanism 52 to move between the position corresponding to the waste removal area F and the position corresponding to each glue injection mechanism 11. Therefore, multiple groups of packaging hosts 1 can be combined in parallel in the manner described above, and Reduce the number of components such as the rubber pellet supply device 3 and the waste removal device 2.

Further, in an embodiment, as shown in FIG. 15, the rotor core feeding mechanism 12a is not a rotary feeding, but instead feeds the plural rotor cores M into the glue injection mechanism 11 in a linear manner. The rotor iron core feeding mechanism 12a includes two conveyor belts 121a and 122a, which are respectively arranged at the feeding port and the feeding port of the glue injection mechanism 11. The control device 4 signals the conveyor belts 121a and 122a so that the plural rotor cores M are fed into the glue injection mechanism 11 and fed out in sequence.

This creation has been disclosed above with an embodiment, but those familiar with this technology should understand that the embodiment is only used to describe the creation, and should not be interpreted as limiting the scope of the creation. It should be noted that all changes and replacements equivalent to this embodiment should be included in the scope of this creation. Therefore, the protection scope of this creation shall be subject to the scope of the patent application.

100: Automatic packaging equipment for motor rotor iron core magnetic steel 1: Package the host 11: Glue injection mechanism 12: Rotor core feed mechanism 121: Rotation axis 121a: conveyor track 122: Power output component 122a: conveyor track 123: Rotor core carrier 1231: plastic injection board 1232: plastic injection hole 124: Insulation component 1241: Lifting arm 1242: Insulation cover 1243: heated chassis 125: Outer diameter limiting member 1251: mobile arm 1252: Half-ring cylindrical casing 1252a: Fastening part 1252b: Fastening part 1252c: Locking hole 12a: Rotor core feed mechanism 2: Scrap removal device 3: Rubber pellet supply device 31: Rubber particle storage mechanism 32: Rubber hose 33: mobile rack 34: transfer tray 341: holding tank 342: Control Valve 343: heating element 4: control device 5: Conveying device 51: The first mobile agency 52: The second moving mechanism 53: Conveying track 6: Wearing shaft device 61: Outer sleeve 611: upper groove 612: lower groove 613: Anti-dropping part 62: inner sleeve 63: wear shaft 631: head 632: body 64: Extrusion power parts 65: Reset power parts F: Scrap removal area M: rotor core R: Placement area T: holding tank

FIG. 1 is a three-dimensional schematic diagram of the automatic packaging equipment for the magnetic steel of the motor rotor iron core according to the embodiment of the invention. FIG. 2 is a schematic diagram of the front view of the automatic packaging equipment for the magnetic steel of the motor rotor iron core according to the embodiment of the invention. FIG. 3 is a simplified schematic diagram of the top view of the automatic packaging equipment for the magnetic steel of the rotor iron core of the motor according to the present creative embodiment. Fig. 4 is a three-dimensional schematic diagram of the packaged host according to this creative embodiment. Fig. 5 is a schematic diagram of the signal connection of the control device according to this creative embodiment. Fig. 6 is a three-dimensional schematic diagram of the colloidal pellet supply device according to this creative embodiment. Fig. 7 is a three-dimensional schematic diagram of the transfer tray according to this creative embodiment. FIG. 8 is a schematic cross-sectional view of the transfer tray according to this creative embodiment. Fig. 9 is a three-dimensional schematic diagram of the thermal insulation member according to this creative embodiment. Fig. 10 is a three-dimensional schematic diagram of the shaft piercing device according to this creative embodiment. Fig. 11 is a schematic cross-sectional view of the shaft-piercing device according to this creative embodiment. 12A to 12C are schematic diagrams of the operation of the shaft threading device according to this creative embodiment. Fig. 13 is a three-dimensional schematic diagram of the outer diameter restricting member according to the creative embodiment. FIG. 14 is a simplified schematic diagram of a top view of a plurality of packaged hosts according to this creative embodiment. Fig. 15 is a three-dimensional schematic diagram of a rotor core feeding mechanism according to another embodiment of the invention.

100: Automatic packaging equipment for motor rotor iron core magnetic steel

1: Package the host

11: Glue injection mechanism

12: Rotor core feed mechanism

2: Scrap removal device

3: Rubber pellet supply device

34: transfer tray

5: Conveying device

51: The first mobile agency

52: The second moving mechanism

53: Conveying track

F: Scrap removal area

Claims (10)

A motor rotor iron core magnetic steel automatic packaging equipment, which includes: At least one package host includes a glue injection mechanism and a rotor iron core feeding mechanism. The rotor iron core feeding mechanism is arranged on one side of the glue injection mechanism to feed a plurality of rotor iron cores into the glue injection mechanism one by one; A rubber granule supply device, comprising a rubber granule storage mechanism, a rubber pipe, a moving rack and a transfer plate, the moving rack is connected to the rubber pipe, the inlet of the rubber pipe is connected to the rubber granule storage mechanism, and the outlet of the rubber pipe Facing the upper surface of the transfer tray, the transfer tray has a plurality of accommodating grooves corresponding to the rotor core, and a control valve is provided at the bottom of the transfer tray to control the opening and closing of the bottom of the accommodating groove; A waste removal device; A conveying device includes a conveying track, a first moving mechanism, and a second moving mechanism. The conveying track is parallel to the line connecting the glue injection mechanism, the glue storage mechanism and a waste removal zone. The first moving mechanism Connecting the transfer tray so that the transfer tray slides on the conveying track, and the second moving mechanism is connected with the waste removal device to make the waste removal device slide on the conveying track; A control device for signal connection with the glue injection mechanism, the rotor core feeding mechanism, the moving frame, the control valve, the waste removal device, the first moving mechanism and the second moving mechanism, Wherein, the control device controls the rotor core feeding mechanism so that the motor rotor cores are sequentially fed into the glue injection mechanism and fed out, The control device controls the moving rack to move the rubber pipe, so that the rubber pipe moves on the upper surface of the transfer tray to place the rubber particles in the holding grooves, The control device controls the first moving mechanism to move the transfer tray, so that the transfer tray moves back and forth between the position corresponding to the rubber particle storage mechanism and the position corresponding to the glue injection mechanism, and the transfer tray is positioned corresponding to the injection mechanism. When the position of the glue mechanism, the control valve is controlled to open so that the glue particles distributed in the containing grooves are supplied to the glue injection mechanism, and when the transfer tray is at the position corresponding to the glue particle storage mechanism, the control valve is controlled The control valve is closed, The control device controls the glue injection mechanism to inject glue into the rotor core, The control device controls the second moving mechanism to move the waste removal device so that the waste removal device moves back and forth between the position corresponding to the waste removal area and the position corresponding to the glue injection mechanism, and moves the waste material When the removal device is at the position corresponding to the glue injection mechanism, the waste removal device is controlled to take out the waste glue in the injection mechanism, and when the waste removal device is at the position corresponding to the waste removal area, the waste removal device is controlled. The removal device releases the waste glue. The motor rotor iron core magnetic steel automatic packaging equipment according to claim 1, wherein the rotor iron core feeding mechanism includes a rotating shaft, a power output member and a rotor iron core carrier, and the rotating shaft is arranged on the glue injection On one side of the mechanism, the center of the rotor core carrier is sleeved on the rotating shaft, and the rotor core carrier is provided with a plurality of glue injection plates, and each of the glue injection plates is provided with an insertion area for placing a rotor iron The power output component is connected to the rotor core carrier so that the rotor core carrier rotates to feed the glue injection plates into the glue injection mechanism in sequence. The motor rotor iron core magnetic steel automatic packaging equipment according to claim 2, wherein the control device is signaled to connect the power output member, and the control device controls the power output member so that the glue injection boards sequentially feed the glue Institutions and feed out. According to claim 1, the automatic magnetic steel packaging equipment for a rotor iron core of a motor, wherein the rotor iron core feeding mechanism includes two conveying crawlers, which are respectively arranged at the inlet and the outlet of the glue injection mechanism. The motor rotor iron core magnetic steel automatic packaging equipment according to claim 4, wherein the control device signals are connected to the conveyor tracks so that the rotor iron cores are sequentially fed into the glue injection mechanism and fed out. According to claim 1, the automatic packaging equipment for the magnetic steel of the rotor iron core of the motor, wherein the transfer plate is provided with a plurality of heating elements, which are arranged adjacent to the containing grooves. The automatic packaging equipment for the magnetic steel of the motor rotor iron core as described in claim 1, further comprising a shaft-piercing and expanding device, which includes an outer sleeve, an inner sleeve, a shaft, and an extrusion power part And a reset power element, the inner sleeve is conical, the bottom end of the inner sleeve is connected to a rubber injection plate of the rotor core feeding mechanism, and the outer sleeve has a cone-shaped space inside and is sleeved on The inner sleeve, the outer surface of the outer sleeve faces the inner surface of the shaft hole, the outer sleeve has a plurality of upper grooves and a plurality of lower grooves, and the upper grooves extend axially downward from the top end of the outer sleeve , The lower grooves extend axially upward from the bottom end of the outer sleeve, the upper grooves and the lower grooves are staggered at equal intervals, and the top of the outer sleeve is provided with an accommodation groove and an anti-falling out The shaft includes a head and a body, the body penetrates the inner sleeve, the head is disposed in the accommodating groove, the anti-dropping part is disposed on the periphery of the head, the accommodating groove and The anti-falling part is used to limit the displacement of the through shaft, the squeezing power part is arranged adjacent to the head, the resetting power part is arranged adjacent to the bottom end of the inner sleeve, the squeezing power part and the resetting power A signal is connected to the control device, the control device controls the squeezing power piece to squeeze the head along the axial direction of the shaft to force the outer sleeve to expand outward, and the control device controls the reset power piece Squeeze the body backwards along the axial direction of the shaft to reset the outer sleeve. The motor rotor iron core magnetic steel automatic packaging equipment according to claim 1, wherein the rotor iron core feeding mechanism further includes a heat preservation member, the heat preservation member including a lifting arm, a heat preservation cover and a heating chassis, the lifting arm The heat-preserving cover is connected, the heating chassis is arranged under the heat-preserving cover, and the control device is signally connected to the lifting arm to control the vertical displacement of the lifting arm. The automatic packaging equipment for the magnetic steel of the rotor iron core of the electric motor according to claim 1, wherein the rotor iron core feeding mechanism further includes an outer diameter restricting member, the outer diameter restricting member includes a moving arm and two shapes matching the rotor iron The semi-ring cylindrical shells of the core, the movable arm signals are connected to the control device, the semi-ring cylindrical shells are arranged on a rubber injection plate of the rotor core feeding mechanism through the movable arm, the semi-rings The cylindrical casing is provided with a buckling part that can be buckled with each other. According to claim 1, the automatic packaging equipment for motor rotor iron core magnetic steel, wherein a plurality of the packaging hosts share a conveying track, the packaging hosts are arranged in parallel, the rubber pellet supply device and the waste removal area are respectively arranged in the Encapsulate both ends of the host.

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