Battery box cover insert preassembling and mistake and omission recognition device

By designing pre-installed and error identification devices for battery box cover inserts, and using automated operations and detection sensors, the problems of pre-installed inserts and low efficiency in manual operations are solved, high-quality and efficient production is achieved, and safety and mold life are improved.

CN119890596APending Publication Date: 2025-04-25CHONGQING GUANGNENG RONGNENG AUTOMOTIVE TRIM CO LTD
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Patent Information

Application Number
CN202510052590.0
Authority / Receiving Office
CN · China
Patent Type
Applications(China)
Current Assignee / Owner
Filing Date
2025-01-14
Publication Date
2025-04-25

AI Technical Summary

Technical Problem

In the production and processing of existing battery box covers, manual manual operation insert pre-installation has problems such as operating errors, low production efficiency, large safety hazards and easy mold damage.

Method used

A pre-installed and error identification device for battery box cover inserts is designed, including a pre-installed workbench, clamping mechanism, automatic feeding mechanism and controller, and an automatic insert is automatically pre-installed through the mechanical arm and jaw clamping mechanism, and real-time error detection is carried out using detection sensors.

Benefits of technology

It improves product quality and production efficiency, reduces manual operation costs, avoids safety hazards, and extends the service life of the mold.

✦ Generated by Eureka AI based on patent content.

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Abstract

The invention discloses a battery box cover insert preassembling and error and omission recognition device which comprises a preassembling workbench, a clamping mechanism, an automatic feeding mechanism and a controller, the upper end face of the preassembling workbench is provided with a plurality of insert positioning mechanisms and at least two guide positioning grooves, the insert positioning mechanisms are distributed along the mounting position of a mold insert, the automatic feeding mechanism is provided with an insert grabbing positioning table, and the insert grabbing positioning table is provided with at least two guide positioning grooves. A first detection sensor is arranged on the insert grabbing and positioning table; the clamping mechanism comprises at least one primary insert clamping mechanism and at least one secondary insert clamping mechanism; the primary insert clamping mechanism is used for sequentially placing inserts on the insert grabbing and positioning table on the insert positioning mechanism of the preassembling worktable; the secondary insert clamping mechanism is provided with a plurality of second clamping jaw clamping mechanisms and used for grabbing the inserts on the preassembling workbench and conveying the inserts to the insert mounting position of the to-be-machined mold in a centralized mode. The device is simple in structure, the production efficiency and the product quality are improved, the labor intensity is reduced, and the working environment and the defective product outflow rate are improved.
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Description

Technical Field

[0001] The invention relates to the assembly of inserts on a box cover, and in particular to a battery box cover insert pre-assembly and error / missing identification device. Background Art

[0002] The existing production and processing method of the battery case cover mainly adopts the process of pre-installing round nut inserts, which is to manually place several round nut inserts in the insert pre-installation position in the injection mold, and then use the injection molding machine to inject the battery case cover. Since there are more than ten inserts arranged around the battery case cover, the current method is to manually pre-install the round nut inserts in the mold, which leaves the following problems:

[0003] 1. There are operational errors in manual operation, and the missing of inserts will cause quality and functional problems of the product, resulting in material waste and outflow of defective products.

[0004] 2. The placement time of manual inserts is long, which affects the low production efficiency.

[0005] 2. The insert is misplaced, causing damage to the mold.

[0006] 3. Manual operation also poses production safety risks.

[0007] Therefore, it is urgent to adopt mechanical automation operation to replace manual operation. Summary of the invention

[0008] The purpose of the present invention is to provide a battery box cover insert pre-installation and error and omission identification device to improve product quality and production efficiency and avoid the safety hazards of manual operation.

[0009] The technical solution adopted for the purpose of the present invention is:

[0010] A battery box cover insert pre-installation and error / omission identification device, comprising a pre-installation workbench, a clamping mechanism, an automatic feeding mechanism and a controller, wherein the upper end surface of the pre-installation workbench is provided with a plurality of insert positioning mechanisms and at least two guide positioning grooves distributed along the mold insert installation position, and the insert positioning mechanism is used to place the insert to be processed; the automatic feeding mechanism comprises a vibrating screen and an insert grabbing and positioning platform, the vibrating screen is arranged on the side of the pre-installation workbench, the insert grabbing and positioning platform is arranged at the output end of the vibrating screen, and the insert grabbing and positioning platform is provided with a first detection sensor; the clamping mechanism comprises at least one primary insert clamping mechanism and a secondary insert clamping mechanism, the primary insert clamping mechanism comprises a first mechanical arm and at least one first claw clamping mechanism arranged on the first mechanical arm, each of the first claw clamping mechanisms is provided with a second detection sensor, and the primary insert clamping mechanism is used to clamp the insert The inserts on the component grabbing and positioning table are placed on the insert positioning mechanism of the pre-installation workbench in sequence; the secondary insert clamping mechanism includes a second mechanical arm and a transfer mounting plate arranged on the second mechanical arm, and the transfer mounting plate is provided with a plurality of second clamping claw clamping mechanisms and at least two positioning guide pillars. The number and distribution positions of the plurality of second clamping claw clamping mechanisms correspond to the insert positioning mechanism of the pre-installation workbench, and are used to grab the various inserts on the pre-installation workbench and send them to the insert installation position of the mold to be processed. Each of the second clamping claw clamping mechanisms is provided with a third detection sensor and an ejection mechanism. The ejection mechanism is used to eject the inserts on the second clamping claw clamping mechanism, and the positioning guide pillar is used to cooperate with the guide positioning groove on the pre-installation workbench and the guide groove in the mold; the electrical components on the pre-installation workbench, the clamping mechanism and the automatic feeding mechanism are all electrically connected to the controller.

[0011] Furthermore, the clamping mechanism is provided with two first-insert clamping mechanisms.

[0012] Furthermore, the first insert clamping mechanism is provided with five first claw clamping mechanisms, the first robotic arm is provided with a claw turntable, the first claw clamping mechanisms are evenly distributed on the claw turntable through a first L-shaped mounting block, each of the first claw clamping mechanisms is correspondingly provided with a second detection sensor, and the second detection sensor is mounted on the first L-shaped mounting block.

[0013] Furthermore, the first claw clamping mechanism and the second claw clamping mechanism both include claws and a driving mechanism, the claws both include a connecting portion for connecting to the driving mechanism and a clamping portion extending laterally from the connecting portion, and the clamping end faces of the clamping portions are both provided with an arc surface for clamping the insert.

[0014] Furthermore, the clamping portion of the claw of the second claw clamping mechanism extends obliquely upward and laterally along the connecting portion of the claw of the second claw clamping mechanism.

[0015] Furthermore, the transfer mounting plate is provided with a second L-shaped mounting block having the same number as the second claw clamping mechanism, the vertical section of the second L-shaped mounting block is a hollow structure, the second claw clamping mechanism is arranged on the horizontal section of the second L-shaped mounting block, the claw of the second claw clamping mechanism is located at the upper end of the second L-shaped mounting block, the ejection mechanism and the third detection sensor are arranged in the vertical section of the second L-shaped mounting block, and the ejection mechanism is located at the lower end of the second L-shaped mounting block.

[0016] Furthermore, each of the insert positioning mechanisms includes an insert positioning column and a fourth detection sensor, and the upper end face of each of the insert positioning columns is a conical surface to form a material guide portion; each of the insert positioning columns is located on the upper end face of the pre-installation workbench, corresponding to the position of the insert mounting hole of the mold.

[0017] Furthermore, the pre-installation workbench is provided with positioning and mounting blocks having the same number as the insert positioning mechanisms, and the insert positioning columns and the fourth detection sensors are arranged on the positioning and mounting blocks.

[0018] Furthermore, a weight-reducing hole is provided in the middle of the transfer mounting plate, a second claw clamping mechanism is provided on the front of the transfer mounting plate, and at least two vacuum suction cups for adsorbing the processed battery box cover are provided on the back.

[0019] Furthermore, the vibrating screen includes a vibrator, a vibrating disk and a material guide rail, a spiral channel is provided in the vibrating disk, a material guide trough is provided at the discharge end of the spiral channel for screening the horizontal output of pre-installed inserts, a transition platform is provided at the connection between the spiral channel and the material guide trough, a rejection rod is provided at the upper end of the material guide trough, the output end of the material guide trough is connected to the material guide rail, and an insert grabbing and positioning platform is provided at the discharge end of the material guide rail.

[0020] The above technical solution has the following beneficial effects:

[0021] The present invention has a simple structure. The device uses the primary insert clamping mechanism to pre-install the insert on the pre-installation workbench, and then automatically pre-installs the insert. Then, the secondary insert clamping mechanism is used to grab the insert pre-installed according to the mold insert position as a whole and put it into the corresponding position of the insert in the mold for injection molding. In this process, multiple detection sensors are used to perform real-time detection of insert mis-installation and missing installation, and at least the following technical effects are achieved:

[0022] 1. The production process is more stable, improving product quality

[0023] Through the set program, precise control equipment will place each round nut insert in the correct position in sequence and solve the connection problems between each process, and conduct real-time and accurate detection of the wrong or missed installation of the inserts, avoiding the problems of missing or missed installation, wrong installation, disorderly placement, misjudgment, neglect, confusion, etc. in manual operation, thus improving product quality and process stability.

[0024] 2. Reduced production costs

[0025] The automated operation is fast and stable, and the production efficiency has increased by 65%, reducing the need for manual operation and labor costs. Product quality has been effectively improved, the product defect rate has been reduced by 10%, and the product scrap rate and rework rate have been reduced, thereby reducing production costs.

[0026] 3. Improved security

[0027] Automated operations avoid the need for personnel to work inside the mold, reduce the labor intensity of operators, and improve the safety of the production environment.

[0028] The clamping mechanism is provided with a plurality of first insert clamping mechanisms, which work simultaneously to improve the work efficiency of insert pre-installation.

[0029] Each of the insert positioning mechanisms comprises an insert positioning column and a fourth detection sensor, the insert positioning column is located on the upper end surface of the pre-installation workbench, and the position of each of the insert positioning columns corresponds to the insert installation hole of the mold, thereby further avoiding the situation where the insert is missed.

[0030] The upper end surface of each insert positioning column is a conical surface, forming a material guide portion, which is convenient for taking and placing the insert.

[0031] The pre-installation workbench is provided with positioning mounting blocks with the same number as the insert positioning mechanism, the first claw clamping mechanism is arranged on the first L-shaped mounting block, and the transfer mounting plate is provided with second L-shaped mounting blocks with the same number as the second claw clamping mechanism. The positioning mounting blocks, the first L-shaped mounting blocks and the second L-shaped mounting blocks are used to facilitate quick maintenance and replacement of each insert positioning mechanism, the first claw clamping mechanism and the second claw clamping mechanism.

[0032] The vibrating screen includes a vibrator and a vibrating plate, a spiral channel is arranged in the vibrating plate, a material guide trough is arranged at the discharge end of the spiral channel for screening the horizontal output of pre-installed inserts, a transition platform is arranged at the connection between the spiral channel and the material guide trough, and a rejection rod is arranged at the upper end of the material guide trough. The vibrating screen has a simple structure and can automatically screen out inserts set at a water level, thereby preventing inserts from being misplaced during pre-installation.

[0033] The transfer mounting plate of the secondary insert clamping mechanism is provided with a weight-reducing hole in the middle, and the weight of the transfer mounting plate is reduced by using the weight-reducing hole, and the power configuration of the second robot arm is reduced. The transfer mounting plate of the secondary insert clamping mechanism is provided with a clamping claw on the front, and at least two vacuum suction cups for adsorbing the processed battery box cover on the back. The secondary insert clamping mechanism not only realizes the pre-installation of the insert, but also can realize the automatic removal of the battery box cover after the processing is completed, which improves the degree of intelligence, reduces the equipment settings, and reduces the cost.

[0034] Further description is given below in conjunction with the accompanying drawings and specific implementation methods. BRIEF DESCRIPTION OF THE DRAWINGS

[0035] Figure 1 It is a structural schematic diagram of specific embodiment 1;

[0036] Figure 2 It is a structural schematic diagram of the pre-installed workbench in specific embodiment 1;

[0037] Figure 3 is a structural schematic diagram of the insert positioning mechanism in specific embodiment 1;

[0038] Figure 4 It is a structural schematic diagram of the insert positioning column in specific embodiment 1;

[0039] Figure 5 It is a structural schematic diagram of a T-shaped positioning block in specific embodiment 1;

[0040] Figure 6 is a schematic structural diagram of the first clamping mechanism of the clamping jaw in the specific embodiment 1;

[0041] Figure 7 It is a structural schematic diagram of the secondary insert clamping mechanism in specific embodiment 1;

[0042] Figure 8 for Figure 7 Structural diagram of the usage status;

[0043] Fig. 9 is a schematic structural diagram of the second clamping mechanism of the specific embodiment 1;

[0044] Fig.10 This is a schematic diagram of the structure of a vibrating pot in specific embodiment 1;

[0045] Fig.11 for Fig.10 The enlarged schematic diagram at A in the middle;

[0046] Fig.12 It is a schematic diagram of the structure of the transition platform, the material guide trough and the rejection rod in the specific embodiment 1.

[0047] In the accompanying drawings, 1 is a vibrating screen, 1-1 is a vibrating plate, 1-2 is a material guide rail, 1-3 is an insert grabbing and positioning platform, 1-4 is a first detection sensor, 1-5 is a material guide trough, 1-6 is a transition platform, 1-7 is a rejection rod, 2 is a circular insert, 3 is a first insert clamping mechanism, 3-1 is a first robotic arm, 3-2 is a first claw clamping mechanism, 3-3 is a second detection sensor, 3-5 is a first L-shaped mounting block, 3-4 is a claw turntable, 4 is a secondary insert clamping mechanism, 4-1 is a third detection sensor, 4-2 is an ejection mechanism, 4-3 is a second claw clamping mechanism, 4-4 is a transfer mounting plate, 4-5 is a positioning guide column, 4-6 is a vacuum suction cup, 4-7 is a second L-shaped mounting block, 5 is an insert positioning mechanism, 5-1 is an insert positioning column, 5-2 is a fourth detection sensor, 5-3 is a T-shaped positioning block, and 6 is an insert pre-installation platform. DETAILED DESCRIPTION Specific embodiment 1:

[0049] See also Figures 1 to 12 As shown, a battery case cover insert pre-installation and error / missing identification device includes a pre-installation workbench 6, a clamping mechanism, an automatic feeding mechanism and a controller. The upper end surface of the pre-installation workbench 6 is provided with a plurality of insert positioning mechanisms 5 and at least two guide positioning grooves distributed along the mold insert installation position. In this specific embodiment: the mold is a battery case cover injection mold. The insert positioning mechanism 5 is used to place the insert to be processed. Each of the insert positioning mechanisms 5 includes an insert positioning column 5-1 and a fourth detection sensor 5-2. The insert positioning column 5-1 is located on the upper end surface of the pre-installation workbench 6. The position of each of the insert positioning columns 5-1 corresponds to the insert installation hole of the mold. The upper end surface of each of the insert positioning columns 5-1 is a conical surface to form a material guide portion. The pre-installation workbench 6 is provided with positioning and mounting blocks of the same number as the insert positioning mechanisms 5. The insert positioning column 5-1 and the fourth detection sensor 5-2 are arranged on the positioning and mounting blocks. In this specific embodiment: the pre-installation workbench 6 is a rectangular workbench, and the pre-installation workbench 6 is provided with 50 grooves and 50 insert positioning columns 5-1. The 50 grooves are distributed along the circumference of the pre-installation workbench 6, corresponding to the mold insert installation position, and a positioning installation block is set in each groove. The 50 positioning installation blocks are spliced ​​into a T-shaped structure by horizontally arranged rectangular blocks and vertically arranged rectangular blocks. The 50 insert positioning columns 5-1 are all set on the horizontally arranged rectangular blocks, and the 50 fourth detection sensors 5-2 are all set on the vertically arranged rectangular blocks. The fourth detection sensor 5-2 is used to detect whether there is an insert on the insert positioning column 5-1. In this specific embodiment: the insert is a circular insert 2. Thereby avoiding the situation of missing installation. T-shaped positioning blocks are set around the pre-installation workbench 6, and the upper end surface of each T-shaped positioning block 5-3 is provided with a guide positioning groove.

[0050] The clamping mechanism includes at least one primary insert clamping mechanism 3 and a secondary insert clamping mechanism 4. In this specific embodiment, the clamping mechanism is provided with two primary insert clamping mechanisms, which are located on the two sides of the pre-installation workbench 6. The operations on both sides are not easy to interfere with each other, and the work efficiency is high. The primary insert clamping mechanism includes a first mechanical arm 3-1 and at least one first clamping claw clamping mechanism 3-2 arranged on the first mechanical arm 3-1. Each of the first clamping claw clamping mechanisms 3-2 is correspondingly provided with a second detection sensor 3-3. The primary insert clamping mechanism is used to place the inserts on the insert grabbing and positioning platform 1-3 on the insert positioning mechanism 5 of the pre-installation workbench 6 in sequence. In this specific embodiment, the two first insert clamping mechanisms are each provided with five first claw clamping mechanisms 3-2, the first mechanical arm 3-1 is provided with a claw turntable 3-4, and the first claw clamping mechanisms 3-2 are evenly distributed on the claw turntable 3-4 through the first L-shaped mounting block 3-5. After the first claw clamping mechanism 3-2 clamps the insert, the second detection sensor 3-3 will detect the release signal, and then it will rotate to the next claw for clamping. The first claw clamping mechanism is an existing claw clamping mechanism, and each of the first claw clamping mechanisms 3-2 is correspondingly provided with a second detection sensor 3-3, and the second detection sensor 3-3 is installed on the first L-shaped mounting block. The second detection sensor is used to detect whether the first claw clamping mechanism 3-2 clamps the insert.

[0051] The secondary insert clamping mechanism 4 includes a second robot arm and a transfer mounting plate 4-4 arranged on the second robot arm. The second robot arm diagram is omitted in the attached drawings of this specific embodiment. Possibly, the transfer mounting plate 4-4 is mounted on the second robot arm through a fetal membrane. The transfer mounting plate 4-4 is provided with a plurality of second clamping claw clamping mechanisms 4-3 and at least two positioning guide pillars 4-5. The number and distribution positions of the plurality of second clamping claw clamping mechanisms 4-3 correspond to the insert positioning mechanisms 5 of the pre-installation workbench 6, and are used to grab the various inserts on the pre-installation workbench 6 and centrally deliver them to the insert mounting position of the mold to be processed. Each of the second claw clamping mechanisms 4-3 is correspondingly provided with a third detection sensor 4-1 and an ejection mechanism 4-2, the ejection mechanism 4-2 is used to eject the insert on the second claw clamping mechanism 4-3, the third detection sensor 4-1 is used to detect whether the second claw clamping mechanism 4-3 has clamped the insert, the transfer mounting plate 4-4 is provided with the same number of second L-shaped mounting blocks 4-7 as the second claw clamping mechanism 4-3, the vertical section of the second L-shaped mounting block is a hollow structure, the second claw clamping mechanism 4-3 is arranged in the horizontal section of the second L-shaped mounting block, the claw of the second claw clamping mechanism 4-3 is located at the upper end of the second L-shaped mounting block, the third detection sensor 4-1 is arranged in the vertical section of the second L-shaped mounting block, the ejection mechanism 4-2 is arranged at the lower end of the second L-shaped mounting block, the second claw clamping mechanism 4-3 is an existing claw clamping mechanism, and the ejection mechanism 4-2 is an existing ejector mechanism, and the ejector ejects the insert through the hollow structure of the second L-shaped mounting block. In this specific embodiment: the transfer mounting plate 4-4 is provided with 50 grooves, 50 second L-shaped mounting blocks are installed in the grooves of the transfer mounting plate 4-4 by bolts, and the second L-shaped mounting block extends out of the grooves, 50 second clamping claws 4-3 are respectively arranged at the horizontal sections of the second L-shaped mounting blocks, 50 third detection sensors 4-1 are installed at the upper end of the second L-shaped mounting blocks, and the ejection mechanism 4-2 is installed at the lower end of the second L-shaped mounting block. The first clamping claws 4-3, the second clamping claws 4-3 and the ejection mechanism 4-2 are all driven by cylinders. Each positioning guide column 4-5 is installed on the transfer mounting plate 4-4 by a lug. The positioning guide post 4-5 is used to cooperate with the guide positioning groove on the pre-installation workbench 6 or the guide groove in the mold. When the transfer installation plate 4-4 is moved to the pre-installation workbench 6, the positioning guide post 4-5 is inserted into the guide positioning groove, and the positioning guide post cooperates with the guide positioning groove to position the second clamping mechanism 4-3 on the transfer installation plate 4-4, so as to facilitate the clamping of the insert. When the transfer installation plate 4-4 puts the clamped insert into the mold, the positioning guide post 4-5 is inserted into the guide groove, and the insert is loosened and placed in the mold after being positioned in cooperation with the guide groove in the mold. In this specific embodiment: four positioning guide posts 4-5 are provided.

[0052] The electrical components on the pre-installation workbench 6, the clamping mechanism and the automatic feeding mechanism are all electrically connected to the controller, and the controller adopts a PLC controller, which controls the start and stop actions of the electrical components on the pre-installation workbench 6, the clamping mechanism and the automatic feeding mechanism respectively.

[0053] In this specific embodiment, two automatic feeding mechanisms are provided, and both of the two automatic feeding mechanisms are located on one side of the pre-installation workbench 6 . The automatic feeding mechanism includes a discharging workbench, a vibrating screen 1, an insert grabbing and positioning platform 1-3 and a first detection sensor 1-4 arranged on the discharging workbench, the vibrating screen 1 is arranged on the side of the pre-installed workbench 6, the vibrating screen 1 is used to automatically screen and output inserts that meet the requirements of horizontal position placement, the discharging end of the vibrating screen 1 is provided with an insert grabbing and positioning platform 1-3, the lower end of the insert grabbing and positioning platform 1-3 is arranged on the discharging workbench through a support seat, the upper end surface of the insert grabbing and positioning platform 1-3 is provided with an insert positioning groove and two insert clamping notches symmetrically arranged on both sides of the insert positioning groove, a sensor detection hole is provided on the side of the insert grabbing and positioning platform 1-3, the sensor detection hole is connected with the insert positioning groove, the first detection sensor 1-4 is installed on the support seat through a bracket, the detection part of the first detection sensor 1-4 is inserted into the sensor detection hole, and the first detection sensor 1-4 is used to detect whether there is an insert on the insert grabbing and positioning platform 1-3. If missing clamping is detected, the equipment will report an error. In this specific embodiment: the vibrating screen 1 includes a vibrator, a vibrating plate 1-1 and a material guide rail 1-2, the vibrator is placed on a discharging workbench, the vibrating plate 1-1 is arranged on the vibrator, a spiral channel is arranged in the vibrating plate 1-1, and a material guide trough 1-5 for screening the horizontal output of pre-installed inserts is arranged at the discharging end of the spiral channel, the opening of the material guide trough 1-5 is arranged on the side to form a groove for accommodating the horizontally placed inserts, and the height of the groove is greater than the height of the horizontally placed inserts and less than the height of the vertically placed inserts. The connecting part of the spiral channel and the guide trough 1-5 is provided with a transition platform 1-6. The upper end cover of the guide trough 1-5 changes from narrow to wide from the end of the transition platform, so that the horizontally placed inserts can enter the guide trough. The upper end of the guide trough is also provided with a rejection rod 1-7, which is an arc rod. The rejection rod 1-7 extends out of the guide trough, and blocks the vertically placed inserts from continuing to move forward and falling into the vibration plate 1-1, so as to screen out the inserts that meet the horizontal setting requirements. The discharge port of the guide trough 1-5 is connected to the guide rail 1-2, and the lower end of the guide rail 1-2 is set on the discharge workbench through a support frame. Possibly, a straight vibrator is also set on the upper end surface of the guide rail 1-2.

[0054] Possibly, an alarm device is also included, which is electrically connected to the controller and is used to automatically give an alarm prompt in time when abnormal situations such as missing or wrong installation of equipment are detected.

[0055] Possibly, the controller is electrically connected to the control system of the mold, and automatically sends the detected signal to the control system of the mold, thereby realizing the linkage between the battery box cover insert pre-installation, the error and leakage identification device and the mold, improving the intelligence level of the equipment and improving work efficiency.

[0056] Possibly, both the first claw clamping mechanism 3-2 and the second claw clamping mechanism 4-3 include claws and a driving mechanism, and both the claws include a connecting portion for connecting to the driving mechanism and a clamping portion extending laterally from the connecting portion, and the clamping end faces of the clamping portions are provided with an arc surface for clamping the insert, so that the clamping is more stable. The clamping portion of the claw of the second claw clamping mechanism 4-3 extends obliquely upward and laterally along the connecting portion of the claw of the second claw clamping mechanism 4-3, and is used to make way for the ejector pin of the mold when the insert is placed in the mold. The clamping portion of the claw of the first claw clamping mechanism 3-2 extends horizontally and laterally along the connecting portion of the claw of the first claw clamping mechanism.

[0057] Possibly, a weight-reducing hole is provided in the middle of the transfer mounting plate 4-4, a second claw clamping mechanism 4-3 is provided on the front of the transfer mounting plate 4-4, and at least two vacuum suction cups for adsorbing the processed battery box cover are provided on the back, and the vacuum suction cup is connected to the compressed air source through a pipeline, and the processed workpiece on the mold is automatically removed through the vacuum suction cup 4-6, thereby improving the degree of intelligence and work efficiency.

[0058] Working principle of the present invention:

[0059] First, the circular insert 2 is manually placed into the vibrating screen 11 of the automatic feeding mechanism, and the circular insert 2 is pushed onto the guide rail 1-2 by the vibration force generated in the vibrating screen 11, and moves along the guide rail 1-2 to the track insert grabbing and positioning platform 1-3. The insert grabbing and positioning platform 1-3 restricts the circular insert 2 from continuing to move forward, and the two mechanical arms 3 rotate to the track front end insert grabbing and positioning platform 1-3, and the circular insert 2 is rotated and grabbed by the first claw clamping mechanism of the two first insert clamping mechanisms. After grabbing a circular insert 2, the first claw clamping mechanism will automatically rotate to grab the next circular insert 2 until all five first claw clamping mechanisms 2 are fully grabbed. During the grabbing process, the first sensor 1-4 at the front end of the insert grabbing and positioning platform 1-3 will continue to detect. If a missed clamp is detected, the equipment will report an error and stop running.

[0060] Secondly, after the first insert clamping mechanism grabs, the first mechanical arm 3-1 rotates to the insert positioning column 5-1 of the insert positioning mechanism 5, accurately aligns with the insert positioning column 5-1, and sequentially places each circular insert 2 into the insert positioning column 5-1. The two first insert clamping mechanisms are each responsible for grabbing and placing half of the circular inserts 2. When the first insert clamping mechanism places all the inserts of the insert positioning column 5-1 on the pre-installation workbench 6 in place, the fourth detection sensor next to the insert positioning column 5-1 will perform wrong or missing detection on the circular insert 2. If it is detected that the circular insert 2 is wrongly installed or missing, the device will report an error and stop running.

[0061] Then, when the inspection is completed without error, the transfer mounting plate 4-4 is rotated to the guide positioning groove by the second mechanical arm of the secondary insert clamping mechanism 4, and the positioning guide column 4-5 cooperates with the guide positioning groove to ensure that the second claw clamping mechanism 4-3 grasps the position accurately. The second mechanical arm moves the transfer mounting plate 4-4 to the mold, and the positioning guide column 4-5 cooperates with the guide groove of the mold to accurately position it. The second claw clamping mechanism 4-3 delivers all the inserts on the pre-installation workbench 6 to the insert pre-installation position of the mold at one time, which improves work efficiency and avoids manual operation errors and personnel safety issues.

[0062] Finally, after the battery box cover is injection molded, the secondary insert clamping mechanism 4 will rotate into the mold to take out the workpiece. When taking out the workpiece, the vacuum suction cup 4-6 at the lower end of the transfer mounting plate 4-4 of the secondary insert clamping mechanism 4 will suck the workpiece tightly, and then grab the workpiece and place it on the platform.

[0063] The present invention not only accurately realizes the pre-installation of inserts and the identification of wrong or missing installation, greatly improves the utilization rate of materials and production efficiency, reduces the product missing installation rate, and thus effectively controls the production cost and product quality. Moreover, different fetal membranes can be flexibly replaced to realize the pre-installation of different inserts and the identification of wrong or missing installation, thereby improving the versatility of the equipment.

Claims

1. A battery box cover insert pre-installation and error / missing identification device, characterized in that: It includes a pre-installation workbench, a clamping mechanism, an automatic feeding mechanism and a controller. The upper end surface of the pre-installation workbench is provided with a plurality of insert positioning mechanisms and at least two guide positioning grooves distributed along the mold insert installation position. The insert positioning mechanism is used to place the insert to be processed; the automatic feeding mechanism includes a vibrating screen and an insert grabbing and positioning platform. The vibrating screen is arranged on the side of the pre-installation workbench, and the insert grabbing and positioning platform is arranged at the output end of the vibrating screen. The insert grabbing and positioning platform is provided with a first detection sensor; the clamping mechanism includes at least one primary insert clamping mechanism and a secondary insert clamping mechanism. The primary insert clamping mechanism includes a first mechanical arm and at least one first claw clamping mechanism arranged on the first mechanical arm. Each of the first claw clamping mechanisms is provided with a second detection sensor. The primary insert clamping mechanism is used to grab the insert on the insert grabbing and positioning platform. The parts are placed on the insert positioning mechanism of the pre-installation workbench in sequence; the secondary insert clamping mechanism includes a second mechanical arm and a transfer mounting plate arranged on the second mechanical arm, and a plurality of second clamping claw clamping mechanisms and at least two positioning guide pillars are arranged on the transfer mounting plate. The number and distribution positions of the plurality of second clamping claw clamping mechanisms correspond to the insert positioning mechanism of the pre-installation workbench, and are used to grab the various inserts on the pre-installation workbench and send them to the insert installation position of the mold to be processed. Each of the second clamping claw clamping mechanisms is provided with a third detection sensor and an ejection mechanism. The ejection mechanism is used to eject the inserts on the second clamping claw clamping mechanism, and the positioning guide pillar is used to cooperate with the guide positioning groove on the pre-installation workbench and the guide groove in the mold; the electrical components on the pre-installation workbench, the clamping mechanism and the automatic feeding mechanism are all electrically connected to the controller.

2. A battery box cover insert pre-installation and error / missing identification device according to claim 1, characterized in that: The clamping mechanism is provided with two first-time insert clamping mechanisms.

3. A battery box cover insert pre-installation and error / missing identification device according to claim 1 or 2, characterized in that: The first insert clamping mechanism is provided with five first claw clamping mechanisms, and the first robotic arm is provided with a claw turntable. The first claw clamping mechanisms are evenly distributed on the claw turntable through the first L-shaped mounting block, and each of the first claw clamping mechanisms is correspondingly provided with a second detection sensor, and the second detection sensor is installed on the first L-shaped mounting block.

4. A battery box cover insert pre-installation and error / missing identification device according to claim 1 or 2, characterized in that: The first claw clamping mechanism and the second claw clamping mechanism both include claws and a driving mechanism, the claws both include a connecting portion for connecting to the driving mechanism and a clamping portion extending laterally from the connecting portion, and the clamping end faces of the clamping portions are both provided with arc surfaces for clamping inserts.

5. A battery box cover insert pre-installation and error / missing identification device according to claim 4, characterized in that: The clamping portion of the claw of the second claw clamping mechanism extends obliquely upward and laterally along the connecting portion of the claw of the second claw clamping mechanism.

6. A battery box cover insert pre-installation and error / missing identification device according to claim 1 or 2, characterized in that: The transfer mounting plate is provided with a second L-shaped mounting block having the same number as the second claw clamping mechanism, the vertical section of the second L-shaped mounting block is a hollow structure, the second claw clamping mechanism is arranged on the horizontal section of the second L-shaped mounting block, the claw of the second claw clamping mechanism is located at the upper end of the second L-shaped mounting block, the ejection mechanism and the third detection sensor are arranged in the vertical section of the second L-shaped mounting block, and the ejection mechanism is located at the lower end of the second L-shaped mounting block.

7. The battery box cover insert pre-installation and error / missing identification device according to claim 1, characterized in that: Each of the insert positioning mechanisms includes an insert positioning column and a fourth detection sensor. The upper end surface of each of the insert positioning columns is a conical surface to form a material guide portion. Each of the insert positioning columns is located on the upper end surface of the pre-installation workbench, corresponding to the position of the insert installation hole of the mold.

8. The battery box cover insert pre-installation and error / missing identification device according to claim 7, characterized in that: The pre-installation workbench is provided with positioning and mounting blocks having the same number as the insert positioning mechanisms, and the insert positioning columns and the fourth detection sensors are arranged on the positioning and mounting blocks.

9. A battery box cover insert pre-installation and error / missing identification device according to claim 1 or 2, characterized in that: A weight-reducing hole is provided in the middle of the transfer installation plate, a second clamping mechanism is provided on the front of the transfer installation plate, and at least two vacuum suction cups for adsorbing the processed battery box cover are provided on the back.

10. A battery box cover insert pre-installation and error / missing identification device according to claim 1 or 2, characterized in that: The vibrating screen includes a vibrator, a vibrating plate and a material guide rail. A spiral channel is provided in the vibrating plate. A material guide trough for screening and horizontally outputting pre-installed inserts is provided at the discharge end of the spiral channel. A transition platform is provided at the connection between the spiral channel and the material guide trough. A rejection rod is provided at the upper end of the material guide trough. The output end of the material guide trough is connected to the material guide rail. An insert grabbing and positioning platform is provided at the discharge end of the material guide rail.