Intelligent manufacturing training equipment

By designing intelligent manufacturing training equipment that includes a turntable, robotic arm, and storage device, the problem of the limited functionality of existing training platforms has been solved, enabling diversified automated training simulations and improving teaching effectiveness.

CN223692835UActive Publication Date: 2025-12-19HANGZHOU WEILAI SCI & EDUCATION EQUIP CO LTD
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Patent Information

Application Number
CN202422944263.X
Authority / Receiving Office
CN · China
Patent Type
Utility models(China)
Current Assignee / Owner
Filing Date
2024-12-01
Publication Date
2025-12-19
Estimated Expiration
2034-12-01

AI Technical Summary

Technical Problem

Existing intelligent manufacturing training platforms have limited functionality and cannot meet the diverse training needs of the actual intelligent manufacturing industry.

Method used

A smart manufacturing training device was designed, which includes a turntable, a robotic arm, a vision feeding component, and a storage device. It integrates various operating components in the industrial production of products and simulates the actual industrial production process. It includes a first training device, a second training device, and a storage device to realize multi-end assembly of workpieces and automated assembly line operation.

Benefits of technology

It enables diverse simulations of actual industrial production processes, meets the diverse needs of automation training, and improves teaching effectiveness.

✦ Generated by Eureka AI based on patent content.

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Abstract

The utility model belongs to the technical field of teaching equipment, and particularly relates to intelligent manufacturing training equipment. The first training device comprises a rotating disc, a plurality of first tools used for placing workpieces are arranged on the rotating disc in a surrounding mode, a plurality of assembling units are arranged outside the rotating disc, and the assembling units are used for assembling parts into the workpieces located on the first tools; the second training device comprises a manipulator, a second tool is arranged on one side of the manipulator, and a visual feeding assembly is arranged on one side of the second tool; the visual feeding assembly is used for recognizing the orientation of parts placed in the visual feeding assembly. The manipulator is used for grabbing a workpiece assembled by the first training device into the second tool, grabbing a part in the visual feeding assembly, turning the part to a specified direction and mounting the part on the workpiece; and the storage device is used for storing the assembled workpieces.
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Description

TECHNICAL FIELD

[0001] The patent belongs to the technical field of teaching equipment, and specifically relates to an intelligent manufacturing training device. BACKGROUND

[0002] A kind of automatic equipment clamp practical training platform convenient to operate is disclosed in Chinese utility model 2023201337835, including workbench main body, two placing grooves are oppositely arranged on the top of the workbench main body, the groove wall top of the placing groove is fixedly sleeved with a clamping frame, and a plurality of sub-frames are clamped in the frame of the clamping frame. The practical training platform in the patent has single function and poor comprehensiveness, and cannot meet the training needs of actual intelligent manufacturing industry. SUMMARY

[0003] The purpose of the present patent is to provide an intelligent manufacturing training device with multiple functions.

[0004] The purpose of the present patent is achieved as follows:

[0005] An intelligent manufacturing training device comprises:

[0006] a rack;

[0007] a first training device comprising a turntable, a plurality of first tooling devices for placing workpieces are arranged around the turntable, a plurality of assembly units are arranged outside the turntable, and the assembly units are used to assemble parts into the workpieces located on the first tooling devices;

[0008] a second training device comprising a mechanical hand, a second tooling device is arranged on one side of the mechanical hand, a visual feeding assembly is arranged on one side of the second tooling device; the visual feeding assembly is used to identify the orientation of the parts placed in the visual feeding assembly; the mechanical hand is used to pick up the workpieces assembled by the first training device into the second tooling device, pick up the parts in the visual feeding assembly, and install them on the workpieces after turning them to the designated orientation; and

[0009] a storage device for storing the assembled workpieces.

[0010] Further, the first training device comprises:

[0011] a first feeding assembly for feeding workpieces into the turntable;

[0012] a first assembly unit for assembling parts onto one end of the workpieces;

[0013] a rotating unit for picking up the workpieces, rotating them to the other end, and then installing them onto the first tooling devices; and

[0014] a second assembly unit for assembling parts onto the other end of the workpieces.

[0015] A first unloading assembly is configured to unload the workpiece from the first tooling.

[0016] Further, the first loading assembly comprises:

[0017] A first hopper, the first hopper has a first inclined surface, a first loading platform is connected to one side of the low end of the first inclined surface, a lifting member is arranged between the low end and the first loading platform, and the lifting member is configured to lift the workpiece at the low end to the first loading platform;

[0018] A first pushing rod is arranged in the first loading platform and is configured to push out the workpiece in the first loading platform; and

[0019] A first rotary chuck is configured to clamp one end of the lifting member and is rotatably installed on the first tooling.

[0020] Further, the first assembly unit / second assembly unit comprises a first pressing assembly, which comprises:

[0021] A pressing support plate;

[0022] A pressing seat is slidably arranged on the pressing support plate, the pressing seat is provided with a storage groove, and the storage groove is provided with a pressing positioning member;

[0023] A storage cylinder is suspended on one end of the pressing support plate, and parts are stacked in the storage cylinder; when the pressing seat is located below the storage cylinder, the parts fall into the storage groove; and

[0024] A first pressing head is suspended on the other end of the pressing support plate; the pressing support plate is provided with a pressing hole, when the pressing seat slides to below the first pressing head, the first pressing head presses on the parts in the storage groove and fixes the parts on the workpiece of the first tooling through the pressing hole.

[0025] Further, the first assembly unit / second assembly unit comprises a second pressing assembly, which comprises:

[0026] A linear vibrator, the linear vibrator is provided with parts, and a part storage seat is arranged on one end of the linear vibrator;

[0027] A pressing chuck is connected with a lifting driving member and a sliding driving member for driving the movement of the pressing chuck, the pressing chuck is configured to move to the part storage seat to clamp the parts, and then move to the first tooling to install the parts on the workpiece.

[0028] Further, a conveying belt is arranged on one side of the first unloading assembly, the conveying belt is provided with a plurality of conveying seats for placing the workpieces, and sensors for identifying the workpieces are arranged at both ends of the conveying belt.

[0029] Further, the second training device further comprises a second feeding assembly, which comprises a feeding seat, an inclined chute is arranged in the feeding seat, the chute has a high position part and a low position part, the feeding inlet is arranged on the high position part, the discharge port is arranged on the low position part, the second feeding table is arranged below the discharge port, the third pushing rod is arranged in the second feeding table, and the third pushing rod is used for pushing the parts located in the second feeding table; the mechanical arm is used for grabbing the pushed parts and is mounted on the second tooling.

[0030] Further, the warehouse device comprises:

[0031] The stacking of the code material assembly comprises a plurality of code material seats, and a plurality of code material grooves for accommodating workpieces are arranged in the code material seats;

[0032] The storage assembly comprises a storage shelf, and a plurality of storage seats for placing the code material seats are formed in the storage shelf; and

[0033] The material taking plate is arranged on one side of the code material assembly, the material taking plate is connected with a code material driving element for driving the movement of the material taking plate; the material taking insertion gap is formed between the stacked code material seats, the material taking plate is located between two code material seats through the material taking insertion gap, and the code material seat is lifted.

[0034] Further, the code material assembly further comprises a code material rack, a code material groove for stacking the code material seats is formed in the code material rack, a code material lifting element is arranged behind the code material rack, and a notch part is arranged on the top of the code material rack to expose the material taking insertion gap outward, so that the material taking insertion gap is exposed outward by lifting the stacked code material seats through the code material lifting element.

[0035] Further, the visual feeding assembly comprises a feeding table, a plurality of feeding grooves for placing parts are arranged on the feeding table; and a visual detection element is arranged on the top of the feeding table, and is used for identifying the orientation of the parts in the feeding groove.

[0036] The patent has the following outstanding and beneficial technical effects compared with the prior art:

[0037] The first training device, the second training device and the warehouse device in the patent integrate various different operation components in product industrial production, well simulate various conditions in actual industrial production, meet the diversified needs of automation training, and thus better teaching effect is obtained. BRIEF DESCRIPTION OF DRAWINGS

[0038] Figure 1 It is a structure schematic diagram of the intelligent manufacturing training equipment.

[0039] Figure 2 It is a structure schematic diagram of the first training device.

[0040] Figure 3 is a structural diagram of the first feeding assembly Figure 1 .

[0041] Figure 4 is a structural diagram of the first feeding assembly Figure 2 .

[0042] Figure 5 is a structural diagram of the first pressing assembly.

[0043] Figure 6 is a sectional diagram of the first pressing assembly.

[0044] Figure 7 is a structural diagram of the first pressing assembly.

[0045] Figure 8 is a structural diagram of the first discharging assembly and the conveying belt.

[0046] Figure 9 is a structural diagram of the second training device and the storage device.

[0047] Figure 10 is a split diagram of the storage device.

[0048] Figure 11 is a structural diagram of the second feeding device.

[0049] Figure 12 is a sectional diagram of the second feeding device.

[0050] Figure 13 is a structural diagram of the stacking assembly Figure 1 .

[0051] Figure 14 is a structural diagram of the stacking assembly Figure 2 .

[0052] Meaning represented by the figure mark:

[0053] 1, frame;

[0054] 2, first training device; 21, rotary disc; 211, first tooling;

[0055] 22, first feeding assembly; 221, first hopper; 222, first inclined surface part; 223, first feeding table; 224, second pushing rod; 225, first pushing rod; 226, first rotary chuck; 227, pushing hole; 228, low end;

[0056] 23, first assembly unit; 24, rotating unit; 25, second assembly unit; 26, first blanking assembly; 27, first pressing assembly; 271, pressing support plate; 272, pressing seat; 273, storage groove; 274, pressing positioning piece; 275, storage cylinder; 276, first pressing head; 277, pressing hole;

[0057] 28, second pressing assembly; 281, linear vibrator; 282, part storage seat; 283, pressing chuck; 284, accommodation groove;

[0058] 3, second training device; 31, second tooling; 311, mechanical hand;

[0059] 32, second feeding assembly; 321, feeding seat; 322, slide; 323, high position part; 324, low position part; 325, feeding inlet; 326, discharging port; 327, second feeding table; 328, third pushing rod;

[0060] 4, visual feeding assembly; 41, feeding table; 411, feeding groove; 42, visual detection piece;

[0061] 5, warehouse device;

[0062] 51, stacking assembly; 511, stacking seat; 512, stacking groove; 513, material taking gap; 514, stacking frame; 515, notch part; 516, lifting motor; 517, lifting rod; 518, lifting plate; 5181, lifting guide hole; 5182, lifting guide column;

[0063] 52, storage partition; 521, storage seat;

[0064] 53, material taking plate; 531, stacking driving piece;

[0065] 6, conveying belt; 61, conveying seat; 62, sensor; DETAILED DESCRIPTION

[0066] The present patent will be further described below in combination with specific embodiments:

[0067] An intelligent manufacturing training device, such as Figure 1As shown, it comprises a rack 1, a first training device 2, a second training device 3 and a storage device 5, the first training device 2 comprises a rotating disc 21, a plurality of first tooling 211 for placing workpieces are arranged around the rotating disc 21, a plurality of assembly units are arranged outside the rotating disc 21, the assembly units are used for assembling parts into the workpieces located on the first tooling 211. The second training device 3 comprises a mechanical hand 311, one side of the mechanical hand 311 is provided with a second tooling 31, one side of the second tooling 31 is provided with a visual feeding assembly 4; the visual feeding assembly 4 is used for identifying the orientation of the parts placed in the visual feeding assembly 4; the mechanical hand 311 is used for grabbing the workpiece after the workpiece is assembled by the first training device 2 into the second tooling 31, grabbing the parts in the visual feeding assembly 4 and installing them on the workpiece after turning to the specified direction. The workpiece sequentially passes through the first training device 2, the second training device 3 for assembly, and then is stored in the storage device 5.

[0068] Specifically, as shown in the figure, Figure 2 The first training device 2 comprises a first feeding assembly 22 arranged around the rotating disc 21, a first assembly unit 23, a rotating unit 24, a second assembly unit 25 and a first discharging assembly 26, at the beginning of assembly, the workpiece is installed on the first tooling 211 on the rotating disc 21 through the first feeding assembly 22, and then the rotating disc 21 rotates, so that the workpiece located on the first tooling 211 sequentially passes through the first feeding assembly 22, the first assembly unit 23, the rotating unit 24, the second assembly unit 25 and the first discharging assembly 26 to realize assembly.

[0069] The workpiece in the patent is a sleeve, and accordingly the first tooling 211 is actually a plurality of positioning pins arranged around the rotating disc 21, and the sleeve can be directly sleeved outside the positioning pins to realize fixation.

[0070] Further, as shown in the figure, Figure 3 , 4As shown, the first feeding assembly 22 comprises a first hopper 221 fixed on a base, the first hopper 221 has a first inclined surface 222, the low end 228 of the first inclined surface 222 is externally connected with a first feeding table 223, a lifting member is arranged between the low end 228 and the first feeding table 223, and the lifting member is used to lift the workpiece at the low end 228 to the first feeding table 223. The first hopper 221 is actually a square hopper body, the first inclined surface 222 is formed in the hopper body, the first inclined surface 222 is arranged from outside to inside, and the two ends of the first inclined surface 222 are respectively a high end and the low end 228, the high end is used to put the workpiece, the workpiece rolls down to the low end 228 along the first inclined surface 222, and a vertical baffle is arranged on one side of the low end 228, and the vertical baffle is provided with a horizontal first feeding table 223 at the top.

[0071] The first pushing rod 225 is arranged in the first feeding table 223 and is used to push out the workpiece in the first feeding table 223. Figure 3 As shown, a cylinder is fixed on the outer wall of the first feeding table 223, the end of the cylinder is connected with the first pushing rod 225 in the first feeding table 223 through a connecting plate; in working, the cylinder is extended to drive the first pushing rod 225 to retreat, and the first pushing rod 225 is extended to push the workpiece in the first feeding table 223 to move outward when the cylinder retreats. A first rotary chuck 226 is arranged on the side of the workpiece exposed to the outside, the first rotary chuck 226 is fixed on the base where the first hopper 221 is arranged, the first rotary chuck 226 is used to clamp one end of the lifting member and is rotatably connected to the first tool 211, so that the end of the workpiece is opposite to the first tool 211, thereby achieving the feeding of the workpiece.

[0072] In fact, the first rotary chuck 226 is connected with a lifting driving member, the lifting driving member is a lifting cylinder, the lifting cylinder is arranged on the base where the first hopper 221 is arranged, the lifting cylinder is connected with the rotary chuck and makes the first rotary chuck 226 face the first feeding table 223, when the first pushing rod 225 pushes out the workpiece, the workpiece falls into the first rotary chuck 226, then the first rotary chuck 226 clamps the workpiece, then the lifting driving member drives the first rotary chuck 226 to rise, so that the workpiece is separated from the first hopper 221, then the first rotary chuck 226 rotates to vertically arrange the workpiece above the first tool 211, finally the lifting driving member is lowered to release the workpiece after the workpiece is arranged on the first tool 211, thereby completing the arrangement of the workpiece.

[0073] The lifting member comprises a second pushing rod 224, a pushing hole 227 is formed in the low end 228 of the second pushing rod 224, and a lifting driving member is connected to the second pushing rod 224 below the first hopper 221. The lifting driving member drives the second pushing rod 224 to be located in the pushing hole 227. When the workpiece is located above the pushing hole 227, the lifting driving member works to drive the second pushing rod 224 to rise, so that the workpiece is leveled with the first feeding table 223 and rolls into the first feeding table 223, thereby achieving feeding. The lifting driving member is specifically a cylinder.

[0074] After the workpiece is installed on the first tool 211, the workpiece is sent to the first assembly unit 23 by the rotating disc 21 for part installation. The parts in the patent include part one and part two, so the first assembly unit 23 in the patent comprises a first pressing assembly 27 and a second pressing assembly 28, and the first pressing assembly 27 and the second pressing assembly 28 are used to install the part one and the part two respectively.

[0075] As Figure 5 , 6As shown, the first pressing assembly 27 includes a pressing support plate 271. A groove is provided in the pressing support plate 271, and a pressing seat 272 is driven to slide within the groove by a cylinder. The pressing seat 272 is a square block with a circular storage groove 273 at its center. A pressing positioning component 274 is provided in the storage groove 273. An arched component is provided above the pressing support plate 271, and a cylindrical storage cylinder 275 is provided within the arched component. The storage cylinder 275 is hollow, and a part is stacked inside it. Under the action of gravity, the part gradually falls onto the pressing support plate 271. Because a pressure seat 272 is slidably mounted on the pressure support plate 271, the pressure seat 272, driven by a cylinder, will be opposite to the storage cylinder 275, causing the storage cylinder 275 to fall into the placement groove 273 of the pressure seat 272. The pressure positioning component 274 includes a pneumatic ejector pin installed in the pressure seat 272. The pneumatic ejector pin has an exposed air nozzle connected to an air valve. The air valve controls the pneumatic ejector pin to push out and abut against the part in the placement groove 273 to achieve positioning. A first pressure head 276 is also provided on one side of the storage cylinder 275, which is suspended on the outer end of the pressure support plate 271 by a bracket. The first pressure head 276 is connected to a cylinder that drives downward pressure. A pressing hole 277 is provided on the outer end of the pressing support plate 271, which is opposite to the first pressing head 276. When the pressing seat 272 slides under the first pressing head 276, the first pressing head 276 presses against the part in the storage groove 273. At the same time, the pressing positioning member 274 is released, allowing the part to fall onto the workpiece of the first tooling 211 and be pressed tightly under the action of the first pressing head 276, thus achieving assembly. It should be noted that the pressing seat 272 itself has a certain length. When the pressing seat 272 slides under the first pressing head 276, the tail end of the pressing seat 272 will block the storage cylinder 275 to prevent the storage cylinder 275 from falling onto the pressing support plate 271. Only when the pressing seat 272 is reset and the storage cylinder 275 is opposite to the storage groove 273 will the part in the storage cylinder 275 fall into the storage groove 273.

[0076] After part one is assembled, the turntable 21 continues to operate, moving the workpiece to the second pressing assembly 28 to install part two. For example... Figure 7As shown, the second pressing assembly 28 comprises a linear vibrator 281, which is provided with a vibrating channel, and the part two is continuously vibrated and conveyed in the vibrating channel. The vibrating channel is provided with a blocking wall at the end, and a part placing seat 282 is formed at the end of the vibrating channel by the blocking wall. The second pressing assembly 28 comprises a pressing chuck 283 arranged on one side of the linear vibrator 281. The pressing chuck 283 is connected with a lifting driving element and a sliding driving element for driving the movement of the pressing chuck 283. The lifting driving element and the sliding driving element are a sliding rail sliding block and a lifting cylinder arranged on the sliding rail sliding block, respectively. The end of the lifting cylinder is connected with the pressing chuck 283. The pressing chuck 283 is arranged downward. The pressing chuck 283 is placed on the part placing seat 282 by the sliding driving element, and then the pressing chuck 283 falls into the part placing seat 282 to clamp the part two by the lifting driving element. In order to facilitate the pressing chuck 283 to clamp the part two, the part placing seat 282 is provided with a displacement slot 284 on both sides. The clamping arm of the pressing chuck 283 passes through the displacement slot 284 to clamp the part in the part placing slot 273. After the pressing chuck 283 clamps the part two, the pressing chuck 283 moves to the second tooling 31 by the lifting driving element and the sliding driving element, and the part two is installed on the workpiece by pressing.

[0077] The rotating unit 24 is arranged behind the second pressing assembly 28. The rotating unit 24 is a rotary chuck connected with a cylinder. After the workpiece is clamped by the rotary chuck and rotated by one hundred and eighty degrees, the workpiece is reinserted into the first tooling 211. Since the workpiece, the part one and the part two in the present application are sleeve pieces or ring pieces, the part one and the part two after assembly can still be installed on the first tooling 211 after rotation, and continue to be conveyed.

[0078] The second assembly unit 25 also comprises the first pressing assembly 27 and the second pressing assembly 28. Similarly, the part one and the part two are installed on the other end of the workpiece by the first pressing assembly 27 and the second pressing assembly 28. The workpiece is rotated by the rotating unit 24, so as to achieve the effect of assembling the workpiece at both ends.

[0079] In general, the first training device 2 in the present application integrates the rotating disc 21 structure, the first pressing head 276 and the linear vibrator 281, and solves the problem of multi-end installation of the workpiece. Only one rotating disc 21 integrates various automatic equipment structures, so that the practical training content is more abundant and diversified when the intelligent manufacturing training device is used for practical training, so as to obtain better teaching effect.

[0080] The first blanking assembly 26 is arranged behind the second assembly unit 25, which is also a rotary chuck connected with a lifting cylinder and a rotating cylinder, and the workpiece is clamped by the rotary chuck to realize the carrying. Actually, a conveying belt 6 is arranged on one side of the first blanking assembly 26, which is mainly in a chain structure, and one end of the conveying belt 6 is provided with a sprocket driven by a motor to drive the conveying belt 6 to move. A plurality of conveying seats 61 for placing the workpiece are arranged in the conveying belt 6, and the first blanking assembly 26 clamps the workpiece and carries it to the conveying seat 61 of the conveying belt 6. Sensors 62 for identifying the workpiece are arranged at both ends of the conveying belt 6, and the sensor 62 close to the first blanking assembly 26 is used to detect whether the workpiece is carried to the conveying seat 61. If the sensor 62 detects the workpiece, the conveying belt 6 is started to convey the workpiece on the conveying seat 61 to the other end of the conveying belt 6, and the sensor 62 on the other end of the conveying belt 6 detects it. At this time, the conveying belt 6 stops, indicating that the product conveying is completed, and the next action can be performed.

[0081] After the product is conveyed to the other end of the conveying belt 6, the second training device 3 works to assemble the parts to the workpiece. The second training device 3 comprises a mechanical hand 311, one side of the mechanical hand 311 is provided with a second tooling 31, one side of the second tooling 31 is provided with a visual feeding assembly 4; the visual feeding assembly 4 is used to identify the orientation of the parts placed in the visual feeding assembly 4; the mechanical hand 311 is used to clamp the workpiece after being assembled by the first training device 2 into the second tooling 31, clamp the parts in the visual feeding assembly 4 and install them on the workpiece after being adjusted to the specified direction.

[0082] As shown in Figure 9 The second tooling 31 is arranged between the mechanical hand 311 and the conveying assembly, which is a claw part arranged upward to clamp the workpiece placed in the claw part. The mechanical hand 311 comprises a plurality of rotating joints connected in sequence, and a mechanical claw head connected to the rotating joint head, and the mechanical claw head is connected with an opening and closing motor for driving the opening and closing and a rotating motor for connecting the rotation.

[0083] When the robot 311 works, it first moves to the conveying belt 6 to grab the workpiece, and then carries the workpiece to the second tooling device 31 for processing. In fact, the second training device 3 comprises a second feeding assembly 32 arranged on one side of the robot 311, which comprises a feeding seat 321 provided with an inclined chute 322, the chute 322 having a high position part 323 and a low position part 324, the high position part 323 being provided with a feeding inlet 325, the low position part being provided with a discharging port 326, the discharging port 326 being provided below with a second feeding table 327, the second feeding table 327 being provided with a third pushing rod 328 for pushing the parts three in the second feeding table 327; the robot 311 is used to grab the pushed-out parts three and is installed on the second tooling device 31. The parts three are in a columnar shape, the feeding seat 321 is an angle-shaped shell, the inclined chute 322 is formed in the shell, a cylinder is arranged on the outer wall of the low position part 324 of the shell, the third pushing rod 328 is driven by the cylinder, the user sends the parts three from the feeding inlet 325, then the parts three enter the low position part 324 along the inclined chute 322 and fall into the second feeding table 327, and then the third pushing rod 328 pushes them out. One end of the pushed-out parts three is grabbed by the robot 311 and is pulled out to the second revolution under the driving of the robot 311, and then is fixed on the workpiece of the second tooling device 31 by the robot 311.

[0084] After the installation of the parts three is completed, the robot 311 will grab the parts four in the visual feeding assembly 4 and install them on the workpiece after being turned to the specified orientation. As shown in Figure 9 , the visual feeding assembly 4 comprises a feeding table 41 provided with a plurality of feeding grooves 411 for placing the parts four; and a visual detection member 42 arranged on the top of the feeding table 41 and used for identifying the orientation of the parts four in the feeding grooves 411. The visual detection member 42 is specifically a camera, which judges whether the orientation of the parts four is normal through graphic comparison after shooting the parts four, and if not, calculates the offset angle of the parts, and when the robot 311 clamps the parts, rotates the parts four by a certain angle according to the offset angle of the parts by the rotating motor on the robot 311, and then assembles the rotated parts into the workpiece on the second tooling device 31 to complete the assembly.

[0085] After the assembly of the workpiece is completed, the assembled workpiece is stored by the storage device 5 and is stacked. As shown in Figure 10 , the storage device 5 comprises:

[0086] a stacking assembly 51 comprising a plurality of stacked stacking seats 511 provided with a plurality of stacking grooves 512 for accommodating the workpieces;

[0087] The storage assembly comprises a storage rack 52, in which a plurality of storage seats 521 for placing the code seats 511 are formed; and

[0088] A taking plate 53 is arranged on one side of the code assembly 51, and the taking plate 53 is connected with a code driving element 531 for driving the movement of the taking plate 53; a taking insertion gap 513 is formed between the stacked code seats 511 for the insertion of the taking plate 53, so that the taking plate 53 is located between two code seats 511 through the taking insertion gap 513 to lift the code seats 511.

[0089] Specifically as Figure 13 shown, the code seat 511 is square, and a code groove 512 with a shape suitable for the workpiece after assembly is formed in the code seat 511. The lower ends of the code seats 511 are provided with supporting legs, and when a plurality of code seats 511 are stacked, the taking insertion gap 513 is formed in the middle of the lower ends of the code seats 511.

[0090] As shown in the figure, Figure 13 in fact, in order to prevent the stacked code seats 511 from being affected by the outside, the code assembly 51 further comprises a code rack 514, which is surrounded by a metal element and has an inner cavity for mounting the code seats 511. A plurality of code seats 511 are stacked in the inner cavity of the code rack 514. The code rack 514 is provided with a code lifting element, and the top of the code rack 514 is provided with a notch part 515 for exposing the taking insertion gap 513 outward, which is used to expose the taking insertion gap 513 outward by lifting the stacked code seats 511 with the code lifting element. The code lifting element comprises a lifting motor 516, a lifting rod 517 driven by the lifting motor 516, and a lifting plate 518 driven by the lifting rod 517. The two sides of the lifting plate 518 are provided with lifting guide holes 5181, and the lifting guide holes 5181 are provided with lifting guide columns 5182. The lifting rod 517 is threadedly connected with the lifting plate 518. The code rack 514 is stacked on the lifting plate 518, and in operation, the lifting motor 516 drives the lifting rod 517 to rotate, and then drives the lifting plate 518 to move along the lifting guide columns 5182, so that the lifting plate 518 rises, thereby driving the code rack 514 on the lifting plate 518 to work.

[0091] As shown in the figure, Figure 14 the code driving element 531 comprises a code transverse sliding element, a code longitudinal sliding element arranged on the code transverse sliding element, and a code pushing element arranged on the code longitudinal sliding element and driving the taking plate 53. The taking plate 53 is inserted into the taking insertion gap 513 exposed outward by the code driving element 531, so as to lift the uppermost code seat 511.

[0092] Before the work of the material taking plate 53, the manipulator 311 will work to prevent the assembled workpiece in the uppermost material stacking seat 511, and then take the material stacking seat 511 loaded with the workpiece to the storage assembly on one side of the material stacking assembly 51 by the material taking plate 53. As shown, the storage assembly includes a storage shelf 52, which includes a plurality of longitudinal and transverse arranged and connected panels, and a plurality of storage seats 521 are formed on the panels. After the material taking plate 53 lifts the material stacking seat 511, it is sent to the storage seat 521 by the material stacking driving member 531 and then lowered to complete the material stacking of the workpiece. Figure 10

[0093] In summary, the first training device 2, the second training device 3 and the storage device 5 in the patent integrate various operating components in product industrial production, well simulate various situations in actual industrial production, meet the diversified needs of automation training, and thus better teaching effect is obtained.

[0094] The above embodiments are only preferred embodiments of the patent, and do not limit the protection scope of the patent. Therefore, equivalent changes made according to the structure, shape, principle of the patent should be covered within the protection scope of the patent.

[0095] It should be understood that the structure, proportion, size, etc. shown in the drawings of the specification are only used to cooperate with the content disclosed in the specification for understanding and reading by those skilled in the art, and do not limit the implementation conditions of the patent. Therefore, any modification of the structure, change of the proportion relationship or adjustment of the size, which does not affect the effect and purpose of the patent, should still fall within the scope covered by the disclosed technical content of the patent. At the same time, the terms such as "upper", "lower", "left", "right", "middle" and "one" in the specification are only for clear description, and do not limit the implementation scope of the patent. The change or adjustment of the relative relationship, without substantial change of the technical content, is also considered as the implementation scope of the patent.

[0096] It should also be noted that when an element is referred to as being "fixed" or "disposed" on another element, it can be directly on the other element or can have a middle element. When an element is referred to as being "connected" to another element, it can be directly connected to the other element or can be indirectly connected to the other element through a middle element.

[0097] ​In addition, the descriptions in the present application involving "first", "second", etc. are only for the purpose of description, and cannot be understood as indicating or implying the relative importance of the indicated technical features or implicitly indicating the number of the indicated technical features. Therefore, the features defined as "first", "second" can explicitly or implicitly include at least one of the features. In addition, the technical solutions of various embodiments can be combined with each other, but it must be based on the fact that a person skilled in the art can realize it, when the combination of technical solutions appears contradictory or cannot be realized, it should be considered that the combination of such technical solutions does not exist, nor within the protection scope required by the present application.

Claims

1. A smart manufacturing training apparatus, characterized by, The utility model relates to a training device for training workers to assemble workpieces, comprising: a rack (1); a first training device (2) comprising a rotating disc (21) with a plurality of first fixtures (211) for placing workpieces, and a plurality of assembly units outside the rotating disc (21) for assembling parts into the workpieces placed on the first fixtures (211); a second training device (3) comprising a mechanical arm (311) with a second fixture (31) on one side, and a visual feeding assembly (4) on the other side of the second fixture (31); the visual feeding assembly (4) is used to identify the orientation of the parts placed in the visual feeding assembly (4); the mechanical arm (311) is used to pick up the workpieces assembled by the first training device (2) into the second fixture (31), pick up the parts in the visual feeding assembly (4), and install them on the workpieces after turning them to the designated orientation; and a storage device (5) for storing the assembled workpieces. The first training device (2) comprises:

2. The intelligent manufacturing training device of claim 1, wherein, a first feeding assembly (22) for feeding workpieces into the rotating disc (21); a first assembly unit (23) for assembling parts onto one end of the workpieces; a rotating unit (24) for picking up the workpieces, rotating them to the other end, and installing them onto the first fixtures (211); and a second assembly unit (25) for assembling parts onto the other end of the workpieces; a first discharging assembly (26) for discharging the workpieces from the first fixtures (211). The first feeding assembly (22) comprises:

3. The intelligent manufacturing training device of claim 2, wherein, a first hopper (221) with a first inclined surface (222), a first feeding table (223) connected to the low end (228) of the first inclined surface (222), and a lifting piece between the low end (228) and the first feeding table (223) for lifting the workpieces at the low end (228) to the first feeding table (223); a first pushing rod (225) arranged in the first feeding table (223) for pushing out the workpieces in the first feeding table (223); and a first rotary chuck (226) for clamping one end of the lifting piece and rotating it to be installed onto the first fixtures (211). The first assembly unit (23) / second assembly unit (25) comprises a first pressing assembly (27), which comprises:

4. The intelligent manufacturing training device of claim 2, wherein, a pressing support plate (271); a pressing seat (272) slidingly arranged on the pressing support plate (271), with a storage groove (273) in the pressing seat (272) and a pressing positioning piece (274) in the storage groove (273); a storage cylinder (275) suspended on one end of the pressing support plate (271), with parts stacked in the storage cylinder (275); when the pressing seat (272) is below the storage cylinder (275), the parts fall into the storage groove (273); and ​ A first pressing head (276) is suspended on the other end of the pressing support plate (271); the pressing support plate (271) is provided with a pressing hole (277); when the pressing base (272) slides to below the first pressing head (276), the first pressing head (276) presses on the part in the storage groove (273) and fixes the part on the workpiece of the first tooling (211) through the pressing hole (277).

5. The intelligent manufacturing training device of claim 2, wherein, The first assembly unit (23) / second assembly unit (25) comprises a second pressing assembly (28), which comprises: A linear vibrator (281) conveying the parts, and a part storage seat (282) provided on one end of the linear vibrator (281); A pressing chuck (283) connected with a lifting driving element and a sliding driving element for driving the movement of the pressing chuck (283), so as to move the pressing chuck (283) to the part storage seat (282) to clamp the parts, and then move to the first tooling (211) to install the parts on the workpiece.

6. The intelligent manufacturing training device of claim 2, wherein: A conveying belt (6) is arranged on one side of the first feeding assembly (26), and the conveying belt (6) is provided with a plurality of conveying seats (61) for placing the workpiece; sensors (62) for identifying the workpiece are arranged at both ends of the conveying belt (6).

7. The intelligent manufacturing training device of claim 1, wherein, The second training device (3) further comprises a second feeding assembly (32), which comprises a feeding seat (321) provided with an inclined slide (322) having a high position part (323) and a low position part (324); the high position part (323) is provided with a feeding inlet (325), and the low position part is provided with a discharging port (326); a second feeding table (327) is arranged below the discharging port (326) and is provided with a third pushing rod (328) for pushing the parts in the second feeding table (327); and the mechanical hand (311) is used for grabbing the pushed parts and installing the parts on the second tooling (31).

8. The intelligent manufacturing training device of claim 1, wherein, The storage device (5) comprises: A stacking assembly (51) comprising a plurality of stacked stacking seats (511) provided with a plurality of stacking grooves (512) for accommodating the workpieces; A storage assembly comprising a storage shelf (52) shaped with a plurality of storage seats (521) for placing the stacking seats (511); and A taking plate (53) arranged on one side of the stacking assembly (51) and connected with a stacking driving element (531) for driving the movement of the taking plate (53); a taking insertion gap (513) is formed between the stacked stacking seats (511) for inserting the taking plate (53) between two stacking seats (511) to lift the stacking seats (511).

9. The intelligent manufacturing training device of claim 8, wherein: The code material assembly (51) further comprises a code material rack (514), in which a code material groove (512) is formed to stack the code material seat (511); the code material rack (514) is provided with a code material lifting piece at the back, and the top of the code material rack (514) is provided with a gap part (515) to expose the material taking insertion slot (513) outward, so as to expose the material taking insertion slot (513) outward by lifting the stacked code material seat (511) through the code material lifting piece.

10. The intelligent manufacturing training device of claim 1, wherein: The visual feeding assembly (4) comprises a feeding table (41) provided with a plurality of feeding grooves (411) for placing parts; and a visual detection piece (42) is arranged on the top of the feeding table (41) and used for identifying the orientation of the parts in the feeding grooves (411).