Multifunctional rotor magnetic shoe pasting equipment

Abstract

The invention discloses a multifunctional rotor magnetic shoe pasting device, and relates to the technical field of motor rotor assembly, the multifunctional rotor magnetic shoe pasting device comprises a work box, a suspension support plate, a first mounting plate, a workbench, a clamping assembly, an insertion assembly, a support assembly, a glue extrusion assembly and a rotor body; the suspension supporting plate is horizontally arranged right above the top of the working box; the plurality of mounting plates I are respectively arranged and fixedly mounted between the bottom edge of the suspension supporting plate and the top of the circumferential outer wall of the working box; the working table is horizontally and fixedly mounted at the top of the working box; the clamping assembly is arranged on the top of the workbench. The plug-in mounting assembly is mounted on the inner wall of the bottom of the working box; the supporting assembly is installed in the center of the top of the workbench. The magnetic tile inserting device has the beneficial effects that when magnetic tiles are inserted, a trace amount of glue on the side edge is synchronously supplemented, glue shortage in the lower half area of a notch is filled, and empty adhesion is prevented.

Description

Technical Field

[0001] This application relates to the field of motor rotor assembly technology, and in particular to a multifunctional rotor magnet attaching device. Background Technology

[0002] In the fields of motor manufacturing and new energy equipment, the precise assembly of rotor magnets is a core process to ensure the power output efficiency and operational stability of motors. As new energy vehicle drive motors and industrial high-precision servo motors rapidly develop towards higher power density and miniaturization, increasingly stringent technical requirements are being placed on the bonding strength of rotor magnets.

[0003] Existing rotor magnet bonding equipment typically involves pre-applying adhesive to the bottom or top and bottom ends of the rotor slot's inner wall, and then using a mechanical structure to push the magnets upwards for insertion. However, the fit between the magnet and the slot's inner wall is extremely small. During insertion, the magnet pushes the adhesive upwards in one direction, causing a large amount of adhesive to be pushed away in the lower half of the slot, resulting in localized adhesive shortages or even gaps in adhesion. This affects the long-term reliability of the bond between the magnet and the rotor. Summary of the Invention

[0004] The purpose of this invention is to overcome the shortcomings of existing technologies by proposing a multifunctional rotor-mounted magnetic tile device. Its advantages are: it simultaneously replenishes a small amount of adhesive on the side while the magnetic tile is being inserted, filling any missing adhesive in the lower half of the slot and preventing air adhesion.

[0005] To achieve the above objectives, the technical solution adopted in this application is as follows: a multifunctional rotor-mounted magnetic tile applicator, comprising: a work box, and further comprising: a suspension plate, a mounting plate, a worktable, a clamping assembly, an insertion assembly, a support assembly, an extrusion assembly, and a rotor body; the suspension plate is horizontally positioned directly above the top of the work box; there are several mounting plates, which are respectively arranged and fixedly installed between the bottom edge of the suspension plate and the top of the outer circumference of the work box; the worktable is horizontally fixedly installed on the top of the work box; the clamping assembly is positioned on the top of the worktable; the insertion assembly is installed on the inner bottom wall of the work box; the support assembly is installed at the center of the top of the worktable; the extrusion assembly is positioned between the insertion assembly and the worktable; and the rotor body is positioned directly above the support assembly.

[0006] Preferably, the clamping assembly includes: a plurality of magnetic tile bodies; a plurality of storage slots are equidistantly arranged on the top of the workbench; the plurality of magnetic tile bodies are vertically arranged within the plurality of storage slots; the insertion assembly includes: a first extrusion disc, a plurality of extrusion strips, two first cylinders, and a second extrusion disc; the first extrusion disc is horizontally positioned directly below the center of the bottom of the workbench; the extrusion strips are arc-shaped; the plurality of extrusion strips correspond to the plurality of storage slots; and the plurality of extrusion strips are vertically arranged and fixedly installed at the top edge of the first extrusion disc, wherein one of the extrusion strips... One cylinder is vertically fixedly installed between the center of the bottom inner wall of the work box and the bottom of the first extrusion disc. The second extrusion disc is horizontally positioned directly below the bottom of the suspension plate. Another cylinder is vertically fixedly installed between the center of the bottom of the suspension plate and the top of the second extrusion disc. The extrusion assembly includes: a support platform, several push plates, mounting rods, several inserts, several first-stage buffer springs, several limit blocks, several second-stage mounting plates, and several second-stage buffer springs. The support platform is fixedly installed at the center of the top of the worktable, and the top of one side of the support platform is arranged with... There are several slots, and several push plates are respectively inserted into several of the slots. The mounting rod is vertically positioned directly above the top of the extrusion plate. Several mounting grooves are evenly spaced along the edge of the top of the mounting rod. Several inserts are vertically inserted into several mounting grooves. Several buffer springs are vertically fixed between the bottom inner wall of several mounting grooves and the bottom of several inserts. Several limiting blocks are fixedly installed on the top of one end of several inserts, with the bottom of the limiting block away from the insert inclined downwards. Each of the slots has a mounting groove on both sides at one end. Two mounting plates are grouped together, and two mounting plates in one group are fixedly installed on both sides of the push plate. The two mounting plates are located in the corresponding two mounting grooves. Two buffer springs are grouped together, and two buffer springs in one group are fixedly installed between the two mounting plates in one group and the inner wall of one end of the two mounting grooves. The other end of the bottom of each of the slots has an adhesive inlet, and the adhesive inlets are fluidly connected to the adhesive supply system through pipelines.

[0007] Preferably, the support assembly includes: two support rods, which are vertically fixedly installed on the top two sides of the support platform, a mounting groove three is provided at the center of the bottom of the support platform, an opening one is provided at the center of the top inner wall of the mounting groove three, and a placement groove is provided at the center of the top of the mounting rod, with the placement groove corresponding to and cooperating with the opening one.

[0008] Preferably, each of the plurality of storage slots is vertically provided with a push plate, and a buffer assembly is installed on one end of each of the push plates and the inner wall of the end of each of the storage slots away from the support platform. A limit protrusion is fixedly installed on the top of one end of each of the push plates. A limit plate is rotatably installed on the top of the worktable via a damping shaft. The limit plate is annularly arranged, and the inner circumference of the limit plate is continuously concave and convex. A handle is fixedly installed on one side of the outer circumference of the limit plate.

[0009] Preferably, the buffer assembly includes: a sleeve, a rod, and a buffer spring. The sleeve is horizontally fixedly installed on the inner wall of the end of the storage slot away from the support platform. One end of the rod is fixedly installed on one end of the push plate, and the other end of the rod is inserted into the sleeve. The buffer spring is horizontally fixedly installed between the other end of the rod and the inner wall of one end of the sleeve.

[0010] Preferably, a connecting plate is fixedly installed at equal intervals between the bottom sides of several extrusion strips that are close to each other, and the center position of the top of the connecting plate is fixedly installed with the bottom of the mounting rod.

[0011] Preferably, the edges on both sides of one end of the limiting protrusion are all smooth curved surfaces, and the connection points of the concave and convex surfaces of the inner circumference of the limiting disk are all smooth curved surfaces.

[0012] Compared with the prior art, the beneficial effects of this application are as follows: (1) This invention proposes a multifunctional rotor magnetic tile bonding device, which is equipped with a magnetic tile body, an extrusion disc 1, several extrusion strips, two cylinders 1, an extrusion disc 2, a support platform, several push plates, mounting rods, several insert strips, several buffer springs 1, several limit blocks, several mounting plates 2, and several buffer springs 2. The upper cylinder 1 drives the extrusion disc 2 to move vertically downward to press the rotor body, while the lower cylinder 1 drives the extrusion disc 1 to move vertically upward. The extrusion disc 1 simultaneously drives the extrusion strips to move upward to push the magnetic tile body into the slot of the rotor body, and at the same time drives the mounting rods to move upward. The mounting rod moves the insert upwards, and the insert, through the end limit block, squeezes the push plate to move slightly horizontally along the support platform slot. When the magnetic tile body continues to be inserted, the insert is compressed by the reaction force of the push plate, causing the buffer spring 1 to be relatively displaced with the mounting rod, so that the push plate continues to extend slightly. When the cylinder 1 moves in the opposite direction, it drives the extrusion plate 2, extrusion plate 1 and subsequent extrusion strips, mounting rods, and inserts to reset. After the insert is reset, the buffer spring 2 rebounds and drives the push plate to reset horizontally. This achieves simultaneous insertion of the magnetic tile body and replenishment of a small amount of glue on the side, filling the missing glue in the lower half of the rotor body slot and preventing empty adhesion.

[0013] (2) The present invention proposes a multifunctional rotor magnetic tile attaching device, which is equipped with a push plate, a limiting protrusion, a limiting plate, a handle and a buffer assembly. The buffer assembly pushes the push plate to press the magnetic tile body in the placement slot to the insertion standby position. After the magnetic tile body is inserted once, it can automatically replenish the material. When replenishing the material in batches, the handle is rotated to make the protrusion on the inner wall of the limiting plate squeeze the limiting protrusion, which drives the push plate to move and leave a gap for manual feeding. After the material replenishment is completed, the handle is rotated in the opposite direction, the squeezing force of the limiting plate on the limiting protrusion disappears, and the buffer assembly pushes the push plate to press the magnetic tile body to the insertion standby position again to prevent it from shifting, thus realizing the feeding of the magnetic tile body and automatic replenishment of the material. Attached Figure Description

[0014] Figure 1 This is a perspective view of the present invention.

[0015] Figure 2 This is a perspective view highlighting the extrusion disc in this invention.

[0016] Figure 3 This is a perspective view highlighting the mounting rod in this invention.

[0017] Figure 4 For the present invention Figure 3 The 3D image highlighting point A is shown in the image.

[0018] Figure 5 For the present invention Figure 3 The 3D diagram highlighting point B is shown in the image. Figure 6 This is a perspective view highlighting the push plate in this invention. Figure 7 For the present invention Figure 6 The 3D view highlighting point C is shown in the image. Figure 8 This is a cross-sectional view highlighting the buffer spring three in this invention.

[0019] In the diagram: 1. Working box; 8. Suspension plate; 9. Mounting plate one; 10. Worktable; 11. Rotor body; 201. Magnet body; 202. Extrusion disc one; 203. Extrusion strip; 204. Cylinder one; 205. Extrusion disc two; 206. Support platform; 207. Push plate; 208. Mounting rod; 209. Insert strip; 2010. Buffer spring one; 2011. Limiting block; 2012. Mounting plate two; 2013. Buffer spring two; 301. Support rod; 401. Push plate; 402. Limiting protrusion; 403. Limiting disc; 404. Handle; 501. Sleeve; 502. Insert rod; 503. Buffer spring three; 601. Connecting disc. Detailed Implementation

[0020] The present application will be further described below with reference to specific embodiments. It should be noted that, without conflict, the various embodiments or technical features described below can be arbitrarily combined to form new embodiments.

[0021] In the description of this application, it should be noted that the terms "center", "lateral", "longitudinal", "length", "width", "thickness", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", "clockwise", "counterclockwise", etc., which indicate the orientation and positional relationship based on the orientation or positional relationship shown in the accompanying drawings, are only for the convenience of describing this application and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and should not be construed as limiting the specific protection scope of this application.

[0022] It should be noted that the terms "first," "second," etc., in the specification and claims of this application are used to distinguish similar objects and are not necessarily used to describe a specific order or sequence.

[0023] One preferred embodiment of this application, such as Figures 1 to 8As shown, a multifunctional rotor-mounted magnetic tile applicator includes: a work box 1, and further includes: a suspension plate 8, a mounting plate 9, a worktable 10, a clamping assembly, an insertion assembly, a support assembly, an extrusion assembly, and a rotor body 11; the suspension plate 8 is horizontally positioned directly above the top of the work box 1; there are several mounting plates 9, which are respectively arranged and fixedly installed between the bottom edge of the suspension plate 8 and the top of the outer circumference of the work box 1; the worktable 10 is horizontally fixedly installed on the top of the work box 1; the clamping assembly is located on the top of the worktable 10; the insertion assembly is installed on the bottom inner wall of the work box 1; the support assembly is installed at the center of the top of the worktable 10; the extrusion assembly is located between the insertion assembly and the worktable 10; the rotor body 11 is positioned directly above the support assembly; the clamping assembly includes: several magnetic tile bodies 201, which are equidistantly arranged on the top of the worktable 10. The assembly includes several storage slots, with several magnetic tile bodies 201 arranged vertically in each slot. The insertion assembly includes: an extrusion plate 202, several extrusion strips 203, two cylinders 204, and an extrusion plate 205. The extrusion plate 202 is horizontally positioned directly below the center of the bottom of the workbench 10. The extrusion strips 203 are arc-shaped and are respectively positioned corresponding to several storage slots. The extrusion strips 203 are vertically arranged and fixedly installed at the top edge of the extrusion plate 202. One cylinder 204 is vertically fixedly installed between the center of the bottom inner wall of the work box 1 and the bottom of the extrusion plate 202. The extrusion plate 205 is horizontally positioned directly below the bottom of the suspension plate 8. The other cylinder 204 is vertically fixedly installed between the center of the bottom of the suspension plate 8 and the top of the extrusion plate 205.The extrusion assembly includes: a support platform 206, several push plates 207, a mounting rod 208, several inserts 209, several buffer springs 2010, several limit blocks 2011, several mounting plates 2012, and several buffer springs 2013. The support platform 206 is fixedly installed at the center of the top of the workbench 10. Several slots are arranged on the top of one side of the support platform 206, and several push plates 207 are respectively inserted into several slots. The mounting rod 208 is vertically set directly above the top of the extrusion plate 202. Several mounting grooves 209 are evenly arranged on the edge of the top of the mounting rod 208, and several inserts 209 are respectively vertically inserted into several mounting grooves 209. Several buffer springs 2010 are respectively vertically fixedly installed on the bottom inner wall of several mounting grooves 209 and several inserts 2013. Between the bottom of the 09, several limiting blocks 2011 are fixedly installed on the top of one end of several inserts 209. The bottom of the limiting block 2011 away from the insert 209 is inclined downwards. Several slots have mounting grooves on both sides of one end. Two mounting plates 2012 form a group, with two mounting plates 2012 in one group fixedly installed on both sides of the push plate 207. The two mounting plates 2012 are located in their respective mounting grooves. Two buffer springs 2013 form a group, with two buffer springs 2013 in one group fixedly installed between the two mounting plates 2012 in one group and the inner wall of one end of the two mounting grooves. Several slots have glue inlets at the other end of their bottoms, and these glue inlets are fluidly connected to the glue supply system via pipelines.

[0024] First, the rotor body 11 is placed stably on top of the support rod 301 of the support assembly and aligned with the center of the support platform 206. Several magnetic tile bodies 201 are vertically placed into several storage slots on the top of the workbench 10 to complete the loading. Then, basic adhesive is pre-applied to the inner wall of each slot of the rotor body 11 through an external dispensing device. At the same time, the adhesive supply system is connected to the adhesive inlet of the extrusion assembly through pipelines to inject a small amount of supplementary adhesive into the slots of the support platform 206 for later use. After the equipment is started, the upper cylinder 204 pushes the extrusion plate 205 vertically downward to fit against the top of the rotor body 11, firmly pressing it onto the support assembly to prevent displacement. The lower cylinder 204 pushes the extrusion plate 205 to press the rotor body 11 vertically downward to fit against the top of the rotor body 11. The first disc 202 moves vertically upward, causing several arc-shaped extrusion strips 203 to rise synchronously and extend into the placement groove, contacting the bottom of the magnetic tile body 201 and pushing it towards the rotor body slot to begin insertion. During the upward movement of the extrusion disc 202, the mounting rod 208 moves upward synchronously. When the magnetic tile body 201 is inserted into the rotor body slot to a depth of about 1 / 3, the inclined surface of the limiting block 2011 at the end of the top insertion strip 209 of the mounting rod 208 contacts the end of the push plate 207. The mounting rod 208 continues to move upward, and the insertion strip 209 presses the push plate 207 through the inclined surface of the limiting block 2011, causing the push plate 207 to move slightly horizontally along the slot of the support platform 206 by 0.2-0.3mm. When the push plate 207 moves, it compresses the buffer spring 2013, simultaneously squeezing out a small amount of supplementary adhesive from the glue inlet side, contacting the lower half of the slot of the magnetic tile body 201. Since the insertion end of the magnetic tile body 201 is not yet in contact with the adhesive and is dry, when it comes into contact with the small amount of supplementary adhesive, it will carry away some of the adhesive during its upward movement. This is equivalent to reapplying and bonding a layer of adhesive to the lower half of the slot of the rotor body 11. The magnetic tile body 201 continues upward to complete the remaining 2 / 3 of the insertion stroke. The mounting rod 208 moves upward simultaneously, and the insert 209, under the reaction force of the push plate 207, compresses the buffer spring 2010, creating relative displacement with the mounting rod 208. This ensures that the push plate 207 continues to extend slightly, gradually replenishing adhesive as the magnetic tile body is inserted, precisely filling the adhesive gaps in the lower half of the rotor body slot and avoiding dry bonding. Because the amount of supplementary adhesive is extremely small and adapts to the tiny gap between the magnetic tile body and the slot, no adhesive overflow occurs. Water moves upwards along the magnetic tile body, evenly covering the inner wall of the slot. Once the magnetic tile body 201 is fully inserted into the rotor body slot, the equipment triggers a stop signal. Two cylinders 204 move in opposite directions simultaneously. The upper cylinder 204 moves the extrusion plate 205 upwards to reset, while the lower cylinder 204 moves the extrusion plate 202 and mounting rod 208 downwards to reset. After the mounting rod 208 descends, the pressure of the insert 209 on the push plate 207 disappears. The buffer spring 2013 rebounds, causing the push plate 207 to reset to its initial position in the slot. The buffer spring 2010 rebounds, causing the insert 209 to reset into the mounting slot. The glue supply system then replenishes a small amount of glue into the slot of the support platform 206 through the glue inlet. The operator removes the rotor body 11, now assembled with the magnetic tile body, and can proceed to the next work cycle. This process achieves simultaneous insertion of the magnetic tile body 201 and replenishment of a small amount of glue on the side, filling the lower half of the rotor body 11 slot and preventing dry adhesion.

[0025] Further reference Figure 1 and Figure 2 The support assembly includes two support rods 301, which are vertically fixed on the top two sides of the support platform 206. An installation groove 3 is provided at the center of the bottom of the support platform 206. An opening 1 is provided at the center of the top inner wall of the installation groove 3. A placement groove is provided at the center of the top of the installation rod 208. The placement groove and the opening 1 are correspondingly matched.

[0026] During operation, first align the rotor body 11 with the support rods 301 on both sides of the top of the support platform 206, and fit the two support rods 301 into the corresponding holes on the rotor body 11. The support rods 301 are used to achieve the initial positioning and stable support of the rotor body 11. Then, adjust the placement direction of the rotor body 11 so that the end with the protrusion faces the opening one of the support platform 206, allowing the protrusion of the rotor body 11 to pass through the opening one. This ensures that the rotor body 11 is installed correctly in the correct orientation and avoids interference between the protrusion of the rotor body and the support platform 206, so as not to affect the subsequent magnetic tile body insertion operation. When the second extrusion plate 205 presses down, the rotor body 11 is firmly fixed on the support assembly under the limiting action of the support rods 301 and the pressing action of the second extrusion plate 205, ensuring that the rotor body 11 does not shift or shake during the magnetic tile body insertion process, providing a stable foundation for accurate insertion.

[0027] Further reference Figure 4 , Figure 6 and Figure 8 Each of the several storage slots has a vertically installed push plate 401. One end of each push plate 401 is connected to the inner wall of the storage slot away from the support platform 206 and a buffer component is installed. A limit protrusion 402 is fixedly installed on the top of one end of each push plate 401. A limit plate 403 is rotatably installed on the top of the worktable 10 via a damping shaft. The limit plate 403 is annular and the inner circumference of the limit plate 403 is continuously concave and convex. A handle 404 is fixedly installed on one side of the outer circumference of the limit plate 403. The edges on both sides of one end of the limit protrusion 402 are smooth curved surfaces. The connection points of the concave and convex surfaces of the inner circumference of the limit plate 403 are smooth curved surfaces.

[0028] Under normal conditions, the buffer components in several storage slots continuously generate horizontal thrust, pushing the pusher plate 401 to press firmly against the magnetic tile body 201 within the storage slot, securing the magnetic tile body 201 firmly in the insertion standby position. Once a single magnetic tile body 201 is inserted, the thrust of the buffer components immediately acts on the insertion rod 502, thereby pushing the pusher plate 401 towards the support platform 206, causing the next magnetic tile body 201 in the storage slot to automatically fill the original insertion standby position. This completes the feeding action of the magnetic tile body 201 without manual intervention. When a batch of magnetic tile bodies 201 needs to be added to the storage slot, the operator holds the handle 404 on one side of the outer circumference of the limiting disc 403 and rotates the annularly arranged limiting disc 403. This aligns the convex portion of the continuous concave-convex structure on the inner circumference of the limiting disc 403 with the limiting protrusion 402 at the top of one end of the pusher plate 401. The convex portion of the inner wall of the limiting disc 403 then presses against the limiting protrusion 402. 2. This causes the push plate 401 to move away from the support platform 206. At this time, a gap is formed between the push plate 401 and the end of the storage slot near the support platform 206. The operator can manually insert several magnetic tile bodies 201 into the storage slot through this gap to complete the batch replenishment of magnetic tile bodies 201. After the magnetic tile bodies 201 are replenished, the handle 404 is rotated in the opposite direction to drive the limiting plate 403 to rotate, so that the concave part of the inner circumference of the limiting plate 403 is aligned with the limiting protrusion 402. At this time, the squeezing force of the limiting plate 403 on the limiting protrusion 402 disappears. The buffer component pushes the insertion rod 502 to drive the push plate 401 to move closer to the support platform 206. The push plate 401 is close to the outermost magnetic tile body 201 in the storage slot and accurately pushes it to the appropriate position required for insertion, so as to achieve tight clamping and insertion positioning of the magnetic tile body 201, and avoid the magnetic tile body 201 from shifting in the storage slot and affecting the subsequent insertion operation.

[0029] Further reference Figure 8 The buffer assembly includes: a sleeve 501, a rod 502, and a buffer spring 503. The sleeve 501 is horizontally fixedly installed on the inner wall of the end of the storage slot away from the support platform 206. One end of the rod 502 is fixedly installed on one end of the push plate 401, and the other end of the rod 502 is inserted into the sleeve 501. The buffer spring 503 is horizontally fixedly installed between the other end of the rod 502 and the inner wall of one end of the sleeve 501.

[0030] Under normal conditions, the buffer spring 503 generates a horizontal thrust on the insert rod 502. This thrust is transmitted to the push plate 401 through the insert rod 502, keeping the push plate 401 in a tight position. When the push plate 401 is subjected to an external force in a direction away from the support platform 206, the push plate 401 drives the insert rod 502 to retract into the sleeve 501. The insert rod 502 compresses the buffer spring 503 inside the sleeve 501, causing the buffer spring 503 to undergo compression deformation and store elastic force. When the external force disappears, the compressed buffer spring 503 releases its elastic force, pushing the insert rod 502 to extend outward along the axial direction of the sleeve 501. The insert rod 502 drives the push plate 401 to return to the initial tight position.

[0031] Further reference Figure 6 A number of extrusion strips 203 are arranged at equal intervals on their bottom sides and fixedly installed with the same connecting plate 601. The center of the top of the connecting plate 601 is fixedly installed with the bottom of the mounting rod 208.

[0032] When the lower cylinder 204 is activated to push the extrusion plate 202 vertically upward, the extrusion plate 202 drives several extrusion strips 203 on its top edge to move upward synchronously. Because the connecting plate 601 is equidistantly fixed at the bottom of the extrusion strips 203 on one side of each other, and the top center of the connecting plate 601 is fixedly connected to the bottom of the mounting rod 208, the upward movement of the extrusion strips 203 will synchronously drive the mounting rod 208 to rise vertically via the connecting plate 601. This achieves synchronous linkage between the extrusion strips 203 and the mounting rod 208, providing a structural basis for the insertion of the magnetic tile body and the application of micro-adhesive. Simultaneously, due to the relatively high height of the extrusion strips 203, they are prone to wobbling, shifting, or deforming under individual force. The connecting plate 601... Several extrusion strips 203 are connected at the bottom to form a secondary fixing structure, which effectively limits the independent offset and deformation of individual extrusion strips 203, ensuring that all extrusion strips 203 maintain precise spacing and verticality, and stably align with the magnetic tile body 201 in the workbench 10 storage slot to achieve precise insertion. In addition, an annular pad can be placed on the connecting plate 601 and fitted on the outside of the mounting rod 208. If glue leaks and falls when the extrusion assembly replenishes a small amount of glue, it will fall directly onto the annular pad, avoiding contamination of the core components. Every once in a while, the annular pad can be removed, the contaminated pad can be discarded and a new pad can be replaced to complete the cleaning and maintenance of glue leakage. The operation is convenient and does not affect the normal operation of the equipment.

[0033] Working principle: First, align the rotor body 11 with the support rods 301 on both sides of the top of the support platform 206, so that the corresponding holes on the rotor body 11 fit the two support rods 301. Adjust the placement direction so that the end with the protrusion passes through the opening of the support platform 206, ensuring that the installation is correct and avoiding interference between the protrusion and the support platform 206. Under normal conditions, the buffer assembly in the storage slot, including the sleeve 501, the insert rod 502, and the buffer spring 503, generates a horizontal thrust that is transmitted to the push plate 401 through the insert rod 502. This pushes the push plate 401 to press tightly against the magnetic tile body 201 in the storage slot, firmly pressing the magnetic tile body 201 into the insertion and waiting position. Then, it is vertically inserted into several storage slots on the top of the worktable 10. Several magnetic tile bodies 201 are placed inside. If a batch of magnetic tile bodies 201 needs to be replenished later, the handle 404 on one side of the outer circumference of the limiting plate 403 can be held to rotate the annular limiting plate 403. This causes the protrusion on the inner wall of the limiting plate 403 to press against the limiting protrusion 402 on the top of the push plate 401, moving the push plate 401 away from the support platform 206 and compressing the buffer spring 503. After manually replenishing the material through the gap, the handle 404 is rotated in the opposite direction to align the concave part of the inner wall of the limiting plate 403 with the limiting protrusion 402. The buffer spring 503 releases its elasticity to push the push plate 401 back against the magnetic tile body 201 to the ready position. At the same time, an annular pad can be placed on the connecting plate 601 and fitted onto the outside of the mounting rod 208 for use. The system receives any leaked adhesive from the extrusion assembly and then pre-applies base adhesive to the inner wall of each slot on the rotor body 11 via an external dispensing device. The adhesive supply system is connected to the inlet of the extrusion assembly via pipeline, injecting a small amount of supplementary adhesive into the slot of the support platform 206 for later use. After the equipment is started, the two cylinders 204 operate synchronously. The upper cylinder 204 pushes the extrusion disc 205 vertically downwards to fit against the top of the rotor body 11, firmly pressing it against the support assembly to prevent displacement. The lower cylinder 204 pushes the extrusion disc 202 vertically upwards, causing several arc-shaped extrusion strips 203 to rise synchronously. Because the connecting disc 601 is equidistantly fixed at the bottom of several extrusion strips 203 on one side close to each other and is connected to the mounting rod 2... 08 is fixedly connected at the bottom. When the extrusion strip 203 rises, it will synchronously drive the mounting rod 208 to rise vertically through the connecting plate 601. The connecting plate 601 can also effectively limit the independent offset and deformation of a single extrusion strip 203, ensuring that all extrusion strips 203 are stably aligned with the magnetic tile body 201 in the placement slot and push it to move towards the rotor body slot to begin insertion. When the magnetic tile body 201 is inserted into the rotor body slot to a depth of about 1 / 3, the inclined surface of the limiting block 2011 at the end of the top insertion strip 209 of the mounting rod 208 contacts the end of the push plate 207. The mounting rod 208 continues to move upward, and the insertion strip 209 presses the push plate 207 through the inclined surface of the limiting block 2011, causing the push plate 207 to move slightly horizontally along the slot of the support platform 206 by 0.2-0.3mm. When the push plate 207 moves, it compresses the buffer spring 2013, simultaneously squeezing out a small amount of supplementary adhesive from the glue inlet side of the slot, contacting the dry insertion end of the magnetic tile body 201. As the magnetic tile body 201 moves upward, it carries away some of the small amount of adhesive, effectively reapplying and bonding a layer of adhesive to the lower half of the rotor body 11 slot. The magnetic tile body 201 continues upward to complete the remaining 2 / 3 of the insertion stroke. Simultaneously, the mounting rod 208 moves upward, and the insertion bar 209, under the reaction force of the push plate 207, compresses the buffer spring 2010, creating relative displacement with the mounting rod 208. This ensures that the push plate 207 continues to extend slightly, gradually replenishing adhesive as the magnetic tile body inserts, precisely filling the adhesive gaps in the lower half of the rotor body slot, avoiding dry bonding and preventing adhesive overflow. When the magnetic tile body 201 is fully inserted into the rotor body slot, the equipment triggers a stop signal, and the two cylinders 204 move in opposite directions simultaneously. The upper cylinder 204... The extrusion plate 205 moves upward and resets, while the lower cylinder 204 moves the extrusion plate 202 and mounting rod 208 downward and resets. After the mounting rod 208 descends, the pressure of the insert 209 on the push plate 207 disappears. The buffer spring 2013 rebounds, causing the push plate 207 to reset to its initial position in the slot. The buffer spring 2010 rebounds, causing the insert 209 to reset into the mounting groove. The glue supply system then replenishes a small amount of glue into the slot of the support platform 206 through the glue inlet. After a period of time, the ring pad contaminated with glue on the connecting plate 601 can be removed and replaced with a new pad. After a single magnetic tile body 201 is inserted, the thrust of the buffer assembly immediately acts on the insert rod 502, which in turn pushes the push plate 401 towards the support platform 206, causing the next magnetic tile body 201 in the storage slot to automatically fill the original insertion position. The operator then removes the rotor body 11 after the magnetic tile body assembly is completed, and the next work cycle can begin.

[0034] The basic principles, main features, and advantages of this application have been described above. Those skilled in the art should understand that this application is not limited to the above embodiments. The embodiments and descriptions in the specification are merely the principles of this application. Various changes and modifications can be made to this application without departing from its spirit and scope, and all such changes and modifications fall within the scope of the claims. The scope of protection claimed by this application is defined by the appended claims and their equivalents.

Claims

1. A multifunctional rotor-mounted magnetic tile applicator, comprising: The work box (1) is characterized in that it further includes: Suspension plate (8): The suspension plate (8) is horizontally positioned directly above the top of the work box (1); Mounting plate one (9): There are several mounting plates one (9), and several mounting plates one (9) are respectively arranged and fixedly installed between the bottom edge of the suspension plate (8) and the top of the outer circumferential wall of the work box (1); Workbench (10): The workbench (10) is horizontally fixedly installed on the top of the work box (1); Clamping assembly: The clamping assembly is disposed on the top of the worktable (10); Insert assembly: The insert assembly is installed on the bottom inner wall of the work box (1); Support assembly: The support assembly is installed at the center of the top of the workbench (10); Extrusion assembly: The extrusion assembly is disposed between the insertion assembly and the worktable (10); Rotor body (11): The rotor body (11) is located directly above the support assembly.

2. The multifunctional rotor magnet bonding device as described in claim 1, characterized in that, The clamping assembly includes: a plurality of magnetic tile bodies (201), and a plurality of storage slots are equidistantly arranged on the top of the workbench (10). The plurality of magnetic tile bodies (201) are vertically arranged in the plurality of storage slots. The insertion assembly includes: a first extrusion plate (202), a plurality of extrusion strips (203), two first cylinders (204), and a second extrusion plate (205). The first extrusion plate (202) is horizontally arranged directly below the center of the bottom of the workbench (10). The extrusion strips (203) are arc-shaped, and the plurality of extrusion strips (203) are respectively Corresponding to several of the storage slots, several extrusion strips (203) are vertically arranged and fixedly installed at the top edge of the first extrusion plate (202). One of the cylinders (204) is vertically fixedly installed between the center of the bottom inner wall of the work box (1) and the bottom of the first extrusion plate (202). The second extrusion plate (205) is horizontally arranged directly below the bottom of the suspension plate (8). The other cylinder (204) is vertically fixedly installed between the center of the bottom of the suspension plate (8) and the top of the second extrusion plate (205).The extrusion assembly includes: a support platform (206), several push plates (207), a mounting rod (208), several inserts (209), several buffer springs (2010), several limiting blocks (2011), several mounting plates (2012), and several buffer springs (2013). The support platform (206) is fixedly installed at the center of the top of the workbench (10). Several slots are arranged on the top of one side of the support platform (206). Several push plates (207) are respectively inserted into several slots. The mounting rod (208) is vertically positioned directly above the top of the extrusion plate (202). Several mounting grooves are equidistantly arranged at the edge of the top of the mounting rod (208). Several inserts (209) are respectively vertically inserted into several mounting grooves. Several buffer springs (2010) are respectively vertically fixedly installed on the bottom inner wall of several mounting grooves and several inserts. Between the bottoms of the strips (209), several limiting blocks (2011) are fixedly installed on the top of one end of several inserts (209). The bottom of the limiting block (2011) away from the insert (209) is inclined downwards. Mounting grooves are provided on both sides of one end of several slots. Two mounting plates (2012) form a group, with two mounting plates (2012) in one group fixedly installed on both sides of the push plate (207). The two mounting plates (2012) are located in the corresponding two mounting grooves. Two buffer springs (2013) form a group, with two buffer springs (2013) in one group fixedly installed between the two mounting plates (2012) in one group and the inner wall of one end of the two mounting grooves. A glue inlet is provided at the other end of the bottom of several slots, and the glue inlets are fluidly connected to the glue supply system through pipelines.

3. The multifunctional rotor magnetizing device as described in claim 2, characterized in that, The support assembly includes two support rods (301), which are vertically fixed on the top two sides of the support platform (206). The support platform (206) has a mounting groove three at the center of its bottom and an opening one at the center of the inner top wall of the mounting groove three. The mounting rod (208) has a placement groove at the center of its top and the placement groove is configured to cooperate with the opening one.

4. The multifunctional rotor magnet bonding device as described in claim 2, characterized in that, Each of the several storage slots is vertically provided with a push plate (401). One end of each of the push plates (401) and the inner wall of the end of each of the several storage slots away from the support platform (206) are respectively equipped with a buffer component. A limiting protrusion (402) is fixedly installed on the top of one end of each of the several push plates (401). A limiting disk (403) is rotatably installed on the top of the worktable (10) through a damping shaft. The limiting disk (403) is arranged in a ring shape. The inner circumference of the limiting disk (403) is arranged in a continuous concave-convex shape. A handle (404) is fixedly installed on one side of the outer circumference of the limiting disk (403).

5. The multifunctional rotor magnet bonding device as described in claim 4, characterized in that, The buffer assembly includes a sleeve (501), a rod (502), and a buffer spring (503). The sleeve (501) is horizontally fixedly installed on the inner wall of the end of the storage slot away from the support platform (206). One end of the rod (502) is fixedly installed on one end of the push plate (401), and the other end of the rod (502) is inserted into the sleeve (501). The buffer spring (503) is horizontally fixedly installed between the other end of the rod (502) and the inner wall of one end of the sleeve (501).

6. The multifunctional rotor magnetizing device as described in claim 2, characterized in that, A number of extrusion strips (203) are equidistantly arranged on their bottom sides and fixedly installed with the same connecting plate (601). The center of the top of the connecting plate (601) is fixedly installed with the bottom of the mounting rod (208).

7. The multifunctional rotor magnet bonding device as described in claim 4, characterized in that, The edges on both sides of one end of the limiting protrusion (402) are all set with smooth curved surfaces, and the connection points of the concave and convex surfaces of the inner circumference of the limiting disk (403) are all set with smooth curved surfaces.

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