CN115446925A - A new energy battery cell buffer pad production device - Google Patents

Abstract

The invention belongs to the technical field of new energy batteries, and specifically relates to an automation of new energy battery cell cushion pads, including a transmission device, a first die-cutting mechanism, a first hot-pressing mechanism, a second die-cutting mechanism, a glue brushing device, and a film sticking mechanism , the second hot-pressing mechanism and the third die-cutting mechanism, the first die-cutting mechanism, the first hot-pressing mechanism, the second die-cutting mechanism, the glue brushing device, the film sticking mechanism, the second hot-pressing mechanism and the third die-cutting mechanism The conveying direction of the conveying device is arranged in sequence, and a plurality of manipulators are arranged on the outer periphery of the conveying device. The present invention is ingeniously designed, and each device and mechanism has a high degree of automation, and can be transported between each device and mechanism by setting a transmission device and a manipulator, with low safety risks, no need for excessive manual operation, and high work efficiency.

Description

A new energy battery cell cushion production device

technical field

The invention belongs to the technical field of new energy batteries, and in particular relates to an automation of battery cell cushion pads of new energy batteries.

Background technique

The production of new energy battery cell cushion pads is currently divided into several steps: 1. The worker puts the sheet-shaped raw silicone rubber into the mold, and uses a high-temperature and high-pressure machine (hot press) to form hot-pressed molds to form 1 out of 4 cushion embryos; 2. After hot pressing, the worker takes the pad embryo to the die-cutting workshop, and die-cuts the outer and inner sides of the mat; 3. The worker takes the die-cut outer and inner edge of the mat to the glue brushing machine and air-dries it; 4. Workers apply film on both sides of the air-dried hot blank. 4. Workers take the product after filming to the hot press machine for hot pressing. 5. The hot blank after hot pressing is taken to the die-cutting mechanism for die-cutting. Each of the above steps requires the use of workers for handling, which leads to low production efficiency and high safety risks.

Contents of the invention

Aiming at the problems of the prior art, the present invention provides a new energy battery battery cell buffer pad production device, which has high production efficiency and low safety risk.

In order to solve the above technical problems, the present invention adopts the following technical solutions:

A new energy battery cell cushion production device, including a transmission device, a first die-cutting mechanism, a first hot-pressing mechanism, a second die-cutting mechanism, a glue brushing device, a film-sticking mechanism, a second hot-pressing mechanism and a third mold Cutting mechanism, the first die-cutting mechanism, the first hot-pressing mechanism, the second die-cutting mechanism, the glue brushing device, the film sticking mechanism, the second hot-pressing mechanism and the third The die-cutting mechanism is arranged in sequence along the conveying direction of the conveying device, and a plurality of manipulators are arranged on the outer periphery of the conveying device.

Wherein, the first die-cutting mechanism includes a first die-cutting support, a first die-cutting device and a conveying mechanism, the first die-cutting device is set on the first die-cutting support, and the conveying mechanism is set on the The outer periphery of the first die-cutting device, the conveying mechanism includes a material rack, a die-cutting conveyor belt, a plurality of pressure rollers and a motor shaft, the die-cutting conveyor belt is arranged at the bottom of the first die-cutting device, and the pressure roller Both are arranged above the die-cutting conveyor belt, the bottom of the pressure roller is in contact with the die-cutting conveyor belt, the material rack is located outside the die-cutting conveyor belt, and the motor shaft is arranged on the die-cutting conveyor belt the top of.

Wherein, the bottom of the first die-cutting device is provided with a die-cutting platform, the die-cutting conveyor belt is located at the bottom of the die-cutting platform, the bottom of the die-cutting platform is provided with a base, and the bottom of the die-cutting device Both ends of the bottom are provided with a first rodless cylinder, one end of the first rodless cylinder is connected to the first die-cutting device, and the other end of the first rodless cylinder protrudes outward from the first die. A cutting device, the first rodless cylinder is provided with a first slider, and the two sides of the base are respectively connected with two first sliders; the top of the first die-cutting device is connected with a driving guide rail, The drive guide rail is arranged along the horizontal direction, and a second slider is slidably arranged on the drive guide rail, and a pick-up assembly is arranged on the bottom of the second slide block, and a first drive motor is arranged on the pick-up assembly. A driving motor drives the pick-up assembly to move up and down.

Wherein, the first heat-pressing mechanism includes a heat-pressing device, the conveying device includes a heat-pressing conveying assembly, and there are multiple heat-pressing devices and the heat-pressing conveying assembly, and the heat-pressing conveying Press the conveyor belt, the number of the hot-pressing device is consistent with the number of the hot-pressing conveyor belt, the hot-pressing device is arranged side by side along the transport direction of the hot-pressing transfer assembly, and the manipulator is correspondingly arranged on the side of the hot-pressing device On the outer periphery, the hot-pressing conveyor belts are distributed up and down, a gap is set between every two adjacent hot-pressing conveyor belts, and a stopper is set at one end of the hot-pressing conveyor belts.

Wherein, the second die-cutting mechanism includes a second die-cutting bracket, a CCD camera module and a second die-cutting device, the conveying device includes a die-cutting conveying assembly, the first heat-pressing mechanism and the second die-cutting device The cutting mechanism is respectively arranged at both ends of the die-cutting transmission assembly, the second die-cutting device is arranged on the second die-cutting support, the bottom of the second die-cutting device is provided with a die-cutting base, and the The top of the second die-cutting device is provided with a die-cutting fixing plate, and the CCD camera module includes an upper CCD camera module and a lower CCD camera module, and the upper CCD camera module and the lower CCD camera module are respectively arranged On the die-cutting fixing plate and the second die-cutting bracket, the upper CCD camera module and the lower CCD camera module are arranged oppositely, and the manipulator is arranged on the outer periphery of the second die-cutting bracket.

Wherein, the glue brushing device includes a rubber rolling assembly and an air-drying assembly, the rubber rolling assembly and the air-drying assembly are arranged side by side, the rubber rolling assembly includes a rubber rolling frame body, and the top of the rubber rolling frame body is provided with a first A transmission assembly, the first transmission assembly is provided with a rubber roller near one end of the air-drying assembly, the bottom of the rubber roller is provided with a rubber storage box, the air-drying assembly includes an air-drying channel, and the first air-drying channel is provided with a Two transmission components, the second transmission component is provided with a plurality of hanging components, the outside of the hanging components is provided with a hook, and the manipulator is provided between the rubber rolling component and the second die-cutting mechanism .

Wherein, the film sticking mechanism includes a film sticking workbench, a film sticking support, a first driving roller, a second driving roll, a feeding platform and a partition, and the film sticking support and the feeding platform are all arranged on the working table , the first driving roller and the second driving roller are both arranged on the film sticking support, the partition is fixed on the top of the rear end of the feeding platform, and the feeding platform is positioned between the partitions There is a gap between them, the first driven roller is arranged on the film sticking support, the first driven roller is located on the top of the partition, the top of the feeding platform is provided with a guide rail, and the guide rail is slidably set There is a cutting knife, and the manipulator is arranged between the film sticking mechanism and the glue brushing device.

Wherein, a second driven roller is arranged on the film sticking support, a first drive motor is set at the bottom of the film sticking workbench, and a fixed frame is set at the output end of the first drive motor, and the first drive motor drives the fixed frame Up and down displacement, the middle part of the third fixed frame rotates and is provided with a third driven roller, and the third driven roller is arranged at the bottom of the separator.

Wherein, the conveying device includes a film pasting conveyor belt, and the film pasting conveyor belt is located between the glue brushing device and the film pasting mechanism.

Wherein, the second die-cutting mechanism is consistent with the third die-cutting mechanism.

Beneficial effects of the present invention: the present invention is novel in structure and ingenious in design. During work, the worker puts the sheet-shaped raw silicon rubber into the first die-cutting mechanism for die-cutting, and after die-cutting, utilizes the first hot-pressing mechanism to heat-press to form a cushion blank. Then the pad blank is sent to the second die-cutting mechanism, and the outer and inner edges are stamped and formed. The stamped blank blank is transported to the glue brushing device for brushing and air-drying. The mechanism performs hot-press molding, and finally transports the formed pad blank to the third die-cutting mechanism for cutting and molding. By setting the transmission device and the robot arm, it can be transported between various devices and mechanisms. The safety risk is low and does not require too much Manual operation, high work efficiency.

Description of drawings

Fig. 1 is a structural schematic diagram of the present invention.

Fig. 2 is a first structural schematic diagram of the first die-cutting mechanism of the present invention.

Fig. 3 is a second structural schematic diagram of the first die-cutting mechanism of the present invention.

Fig. 4 is a side view of the first die-cutting mechanism of the present invention.

Fig. 5 is a top view of the first heat-pressing mechanism of the present invention.

Fig. 6 is a schematic structural diagram of the first heat-pressing mechanism of the present invention.

Fig. 7 is a side view of the first heat-pressing mechanism of the present invention.

FIG. 8 is a first structural schematic diagram of the second die-cutting mechanism of the present invention.

FIG. 9 is a second structural schematic diagram of the second die-cutting mechanism of the present invention.

Fig. 10 is a schematic structural view of the second die-cutting device of the present invention.

Fig. 11 is a schematic structural view of the glue brushing device of the present invention.

Fig. 12 is a schematic structural view of the rubber rolling assembly of the present invention.

Fig. 13 is a top view of the rubber rolling assembly of the present invention.

Fig. 14 is a schematic structural view of the air-drying assembly of the present invention.

Fig. 15 is a schematic structural diagram of the second conveying component of the present invention.

FIG. 16 is a first structural schematic diagram of the film pasting mechanism of the present invention.

Fig. 17 is a second structural schematic diagram of the film pasting mechanism of the present invention.

Fig. 18 is a schematic diagram of the third structure of the film pasting mechanism of the present invention.

Reference signs are respectively: 1. Transmission device, 2. First die-cutting mechanism, 3. First heat-pressing mechanism, 4. Second die-cutting mechanism, 5. Glue brushing device, 6. Film sticking mechanism, 7. Second Hot pressing mechanism, 8, the third die-cutting mechanism, 9, manipulator;

201, the first die-cutting bracket, 202, the first die-cutting device, 203, the conveying mechanism, 204, the material rack, 205, the die-cutting conveyor belt, 206, the pressure roller, 207, the motor shaft, 208, the die-cutting platform, 209, Base, 210, the first rodless cylinder, 211, the first slide block, 212, the driving guide rail, 213, the second slide block, 214, the pick-up assembly, 215, the first drive motor, 216, the adjustment fixing frame, 217, the thread Adjusting rod, 218, positioning block, 219, positioning hole;

301, hot pressing device, 302, hot pressing transfer assembly, 303, hot pressing conveyor belt, 304, block, 305, spacer, 306, shell, 307, hot pressing machine;

401, the second die-cutting bracket, 402, the CCD camera module, 403, the second die-cutting device, 404, the die-cutting transmission assembly, 405, the die-cutting base, 406, the die-cutting fixing plate, 407, the upper CCD camera module , 408, the lower CCD camera module, 409, the die-cutting driving device, 410, the die-cutting guide column, 411, the guide plate, 412, the die-cutting knife seat, 413, the bottom plate under the die-cutting die, 414, the second rodless cylinder, 415, scraper slide block, 416, scraper plate;

501, rubber rolling assembly, 502, air drying assembly, 503, rubber rolling frame body, 504, first conveying assembly, 505, rubber rolling roller, 506, rubber storage box, 507, air drying channel, 508, second conveying assembly, 509 , mounting assembly, 510, stepper motor, 511, first fixed frame, 512, first roller, 513, second roller, 514, round belt, 515, first roller groove, 516, second roller Wheel groove, 517, the second fixed frame, 518, the first rotating shaft, 519, the chain, 520, the sprocket, 521, the spacer, 522, the connecting plate, 523, the hook;

601, film sticking table, 602, film sticking support, 603, first driving roller, 604, second driving roller, 605, feeding platform, 606, partition, 607, first driven roller, 608, guide rail, 609, Cutter, 610, second driven roller, 611, second driving motor, 612, third fixed frame, 613, third driven roller, 614, film-sticking conveyor belt, 615, electric roller, 616, fourth driven roller .

detailed description

In order to facilitate the understanding of those skilled in the art, the present invention will be further described below in conjunction with the embodiments and accompanying drawings, and the contents mentioned in the embodiments are not intended to limit the present invention. The present invention will be described in detail below in conjunction with the accompanying drawings.

A new energy battery cell cushion production device, as shown in Figure 1-Figure 18, including a transmission device 1, a first die-cutting mechanism 2, a first hot-pressing mechanism 3, a second die-cutting mechanism 4, and a glue brushing device 5. The film sticking mechanism 6, the second hot-pressing mechanism 7 and the third die-cutting mechanism 8, the first die-cutting mechanism 2, the first hot-pressing mechanism 3, the second die-cutting mechanism 4, the brush The glue device 5, the film sticking mechanism 6, the second hot-pressing mechanism 7 and the third die-cutting mechanism 8 are sequentially arranged along the conveying direction of the conveying device 1, and the outer periphery of the conveying device 1 is provided with a plurality of manipulators 9 . Specifically, when working, workers put the sheet-shaped raw silicone rubber into the first die-cutting mechanism 2 for die-cutting. After die-cutting, the first heat-pressing mechanism 3 is used for hot-pressing to form a mat, and then the mat is sent to the second die-cutting Mechanism 4, stamping and forming the outer and inner edges, and transport the stamped blank to the glue brushing device 5 for brushing and air drying. After air drying, the film sticking mechanism 6 applies film to both sides of the hot blank, and then transports it to the second hot pressing mechanism 7 for hot pressing forming , and finally transport the formed mat blank to the third die-cutting mechanism 8 for cutting and molding. By setting the conveying device 1 and the manipulator 9, it can be transported between various devices and mechanisms. The safety risk is low and does not require too much manual operation ,high working efficiency.

A new energy battery cell cushion production device described in this example, the first die-cutting mechanism 2 includes a first die-cutting bracket 201, a first die-cutting device 202 and a conveying mechanism 203, and the first die-cutting mechanism 2 The device 202 is arranged on the first die-cutting support 201, the conveying mechanism 203 is arranged on the outer periphery of the first die-cutting device 202, and the conveying mechanism 203 includes a rack 204, a die-cutting conveyor belt 205, a plurality of press Roller 206 and motor shaft 207, described die-cutting conveyer belt 205 is arranged on the bottom of described first die-cutting device 202, and described pressing roller 206 is arranged on the top of described die-cutting conveying belt 205, and the bottom of described pressing roller 206 Abutting against the die-cutting conveyor belt 205 , the material rack 204 is located outside the die-cutting conveyor belt 205 , and the motor shaft 207 is arranged on the top of the die-cutting conveyor belt 205 . Specifically, the roll-type silicone rubber raw material is rotatably placed on the material rack 204, the silicone rubber raw material is arranged along the die-cutting conveyor belt 205, and the pressing roller 206 stabilizes the material to be die-cut on the die-cutting conveyor belt 205, and the silicone rubber raw material passes through the die-cutting conveyor belt 205. After cutting the upper surface of the conveyor belt 205, it is introduced into the first die-cutting device 202, and the waste material after die-cutting is introduced into the motor shaft 207, and the motor shaft 207 rotates so that the waste material is also recovered in roll form. After each die-cutting is completed, the die-cutting conveyor belt 205 The movement drives the material to move. At this time, the motor shaft 207 rotates at the same time, so that the material can move at the same time. The present invention realizes automatic feeding, die-cutting, and recycling waste without excessive manual operations, with high processing efficiency and low safety risks.

A new energy battery cell cushion production device described in this example, the bottom of the first die-cutting device 202 is provided with a die-cutting platform 208, and the die-cutting conveyor belt 205 is located at the bottom of the die-cutting platform 208, The bottom of the die-cutting platform 208 is provided with a base 209, and both ends of the bottom of the first die-cutting device 202 are provided with a first rodless cylinder 210, and one end of the first rodless cylinder 210 is connected to the first The die-cutting device 202 is connected, and the other end of the first rodless cylinder 210 protrudes outward from the first die-cutting device 202, and the first rodless cylinder 210 is provided with a first slider 211. Both sides of the base 209 are respectively connected to two first sliders 211; the top of the first die-cutting device 202 is connected with a driving guide rail 212, and the driving guide rail 212 is arranged along the horizontal direction, and the driving guide rail 212 slides A second slider 213 is provided, the bottom of the second slider 213 is provided with a pick-up assembly 214, the pick-up assembly 214 is provided with a first drive motor 215, and the first drive motor 215 drives the pick-up assembly 214 to move up and down . Specifically, the first die-cutting device 202 directly performs die-cutting on the die-cutting platform 208. The above-mentioned setting enables the die-cutting platform 208 to move along the first rodless cylinder 210 after the die-cutting is completed, and the die-cutting platform 208 can complete the die-cutting. The silicone rubber is output to the outside of the first die-cutting device 202. After the die-cutting platform 208 transports the die-cut product to the outside of the first die-cutting device 202, the pick-up assembly 214 moves to the die-cutting platform 208 along the driving rail 212 , the picking component 214 picks up the die-cut product onto the conveying device 1 .

A new energy battery battery cell cushion production device described in this example, the top of the die-cutting frame body 201 is provided with a plurality of adjustment fixing frames 216, and both ends of the pressure roller 206 are provided with threaded adjustment rods 217 , the threaded adjustment rods 217 are screwed to the adjustment fixing frame 216 . Specifically, when in use, roll out the roll material along the die-cutting conveyor belt 205, and then adjust the threaded adjustment rod 217 to make the pressure roller 206 move downwards to press the silicone rubber raw material on the die-cutting conveyor belt 205. When the silicone rubber raw material needs to be replaced , the pressing roller 206 is displaced upward by adjusting the threaded adjusting rod 217 .

In the automatic die-cutting equipment described in this example, positioning blocks 218 are provided on both sides of the top of the material rack 4 , and positioning holes 219 are provided on the positioning blocks 218 . Specifically, when in use, both sides of the roll material are rotatably connected with the positioning holes 219 .

A new energy battery cell cushion production device described in this example, the first heat-pressing mechanism 3 includes a heat-pressing device 301, the transfer device 1 includes a heat-pressing transfer assembly 302, the heat-pressing device 301, There are multiple hot-pressing transfer assemblies 302, each of which includes hot-pressing transfer belts 303, the number of the hot-pressing devices 301 is consistent with the number of the hot-pressing transfer belts 303, and the hot-pressing devices 301 is arranged side by side along the transport direction of the hot-pressing transfer assembly 302, the manipulator 9 is correspondingly arranged on the outer periphery of the hot-pressing device 301, and the hot-pressing conveyor belts 303 are distributed up and down, and every two adjacent hot-pressing conveyor belts There is a gap between 303 , and one end of the hot-pressing conveyor belt 303 is provided with a stopper 304 . Specifically, when in use, the products to be processed are placed on each hot-press conveyor belt 303, and a gap is provided between every two adjacent hot-press conveyor belts 303, so that the products to be processed can be transported smoothly, and each hot-press conveyor belt 303 The product to be processed is transported to the stopper 304. At this time, the product to be processed no longer moves, and the manipulator 9 transports the product to be processed on the hot-pressing conveyor belt 303 to the mold of the hot-pressing device 301 for hot-pressing. After hot-pressing The manipulator 9 is used to take out and unload the products after hot pressing, which has high work efficiency and high safety.

Further, a spacer 305 is provided at the edge between every two adjacent hot-press conveyor belts 303 . Specifically, the spacer 305 separates two adjacent hot-pressing conveyor belts 303 to form a gap for products to pass through.

Further, the heat-pressing device 301 includes a housing 306 and two heat-pressing machines 307, the two heat-pressing machines 307 are both arranged in the housing 306, and the two heat-pressing machines 307 are arranged side by side. Specifically, the above configuration makes the heat press device 301 have double stations, and when one heat press 307 is working, the other heat press 307 completes the steps of picking and placing products, which greatly improves work efficiency.

A new energy battery cell cushion production device described in this example, the second die-cutting mechanism 4 includes a second die-cutting bracket 401, a CCD camera module 402 and a second die-cutting device 403, the conveying device 1 includes a die-cutting transmission assembly 404, the first heat press mechanism 3 and the second die-cutting mechanism 4 are respectively arranged at both ends of the die-cutting transmission assembly 404, and the second die-cutting device 403 is arranged at the On the second die-cutting support 401, the bottom of the second die-cutting device 403 is provided with a die-cutting base 405, the top of the second die-cutting device 403 is provided with a die-cutting fixing plate 406, and the CCD camera module 402 includes an upper CCD camera module 407 and a lower CCD camera module 408, and the upper CCD camera module 407 and the lower CCD camera module 408 are respectively arranged on the die-cutting fixing plate 406 and the second die-cutting On the support 401 , the upper CCD camera module 407 and the lower CCD camera module 408 are arranged oppositely, and the manipulator 9 is arranged on the outer periphery of the second die-cutting support 401 . Specifically, during use, the blank to be die-cut is grabbed by the manipulator 9 and put into the CCD camera module 402 to take pictures and align it, and then put it into the second die-cutting device 403 to die-cut the shape of the pad blank. It solves the safety risk of manual loading and unloading. Since there is no manual operation, the space utilization rate is improved, and the CCD camera module 402 alignment correction is added to ensure the product accuracy. Furthermore, the solution of taking pictures and positioning through the CCD camera module 402 belongs to the prior art, and will not be repeated here.

Further, the second die-cutting device 403 includes a guide plate 411 and a die-cutting driving device 409, a plurality of die-cutting guide columns 410 are arranged at the edge of the die-cutting base 405, and the die-cutting fixing plate 406 is arranged on On the top of the die-cutting guide column 410, the die-cutting driving device 409 is arranged on the die-cutting fixing plate 406, the output end of the die-cutting driving device 409 is passed through the die-cutting fixing plate 406, and The edge of the guide plate 411 connected to the top of the guide plate 411 is provided with a plurality of guide holes, the die-cut guide posts 410 are set through the guide holes one by one, and the bottom of the guide plate 411 is provided with A die-cutting knife seat 412 , the die-cutting base 405 is provided with a die-cutting bottom plate 413 . Specifically, the manipulator 9 transports the product to be die-cut to the bottom plate 413 of the die-cutting die, and the die-cutting driving device 409 works so that the guide plate 411 presses down along the die-cutting guide column 410 to die-cut the product. After the die-cutting is completed, the die-cutting The cutting driving device 409 works, and the guide plate 411 is lifted to realize die cutting.

A new energy battery battery cell cushion production device described in this example, the rear end of the lower bottom plate 413 of the die cutter is provided with a second rodless cylinder 414, and a scraper slide is provided on the second rodless cylinder 414. Block 415 , the scraper slide 415 is provided with a scraper 416 , and one end of the scraper 416 extends toward the lower bottom plate 413 of the knife mold. Specifically, the scraper slider 415 moves along the second rodless cylinder 414, and the scraper plate 416 scrapes away the die-cut waste on the bottom plate 413 of the knife die, without affecting the die-cutting of subsequent products.

A new energy battery cell buffer pad production device described in this example, the glue brushing device 5 includes a rubber rolling assembly 501 and an air-drying assembly 502, the rubber rolling assembly 501 and the air-drying assembly 502 are arranged side by side, the The rubber rolling assembly 501 includes a rubber rolling frame body 503, the top of the rubber rolling frame body 503 is provided with a first conveying assembly 504, and one end of the first conveying assembly 504 near the air drying assembly 502 is provided with a rubber rolling roller 505, the The bottom of the rubber roller 505 is provided with a rubber storage box 506, and the air-drying assembly 502 includes an air-drying passage 507, and a second conveying assembly 508 is arranged in the air-drying passage 507, and a plurality of hangers are arranged on the second conveying assembly 508. The carrying assembly 509 is provided with a hook 523 on the outside of the hanging assembly 509 , and the robot arm 9 is provided between the rubber rolling assembly 501 and the second die-cutting mechanism 4 . Specifically, during use, the product to be glued is placed on the first conveying assembly 504, and the first conveying assembly 504 transports the product to be glued to the top of the rubber roller 505, and the glue roller 505 applies the glue to on the product, and protrude through one end of the product through the first conveying assembly 504, the hook 523 moves along the second conveying assembly 508, the product has a through groove, and the hook 523 extends into the through groove to lift up the product after the glue brushing is completed, continue Air-drying is realized through the movement of the second conveying assembly 508 in the air-drying channel 507, and the air-dried products are removed by workers or unloading devices. The present invention has a high degree of automation, stable glue quality, and improved processing efficiency.

A new energy battery cell cushion production device described in this example, the first transmission assembly 504 includes a stepping motor 510, a first fixing frame 511, a first roller 512, a second roller 513 and a round belt 514, the first roller 512 and the second roller 513 are respectively provided at both ends of the first fixing frame 511, and the first roller 512 and the second roller 513 are respectively provided with a second A roller groove 515 and a second roller groove 516, the round belt 514, the first roller groove 515 and the second roller groove 516 are all provided with a plurality, the round belt 514 and the The first roller groove 515 and the second roller groove 516 are engaged one by one, and the stepper motor 510 is in transmission connection with the first roller 512 . Specifically, the above setting is stable in transmission, and the stepper motor 510 is set so that the glued product stretches out of the first conveying assembly 504 and then stops. After the hook 510 catches the glued product, the stepper motor 510 starts to work again.

A new energy battery cell cushion production device described in this example, the second transmission assembly 508 includes a second fixing frame 517, a first rotating shaft 518, a second rotating shaft (not shown) and a chain 519, the Both sides of the first rotating shaft 518 and both sides of the second rotating shaft are provided with sprockets 520, and the first rotating shaft 518 and the second rotating shaft are both rotatably connected to the second fixing bracket 517, and the Two chains 519 are provided, and the two chains 519 are respectively connected to the sprockets 520 on both sides, the hanging assembly 509 is connected to the chains 519 , and the first rotating shaft 518 is connected to the first driving motor 215 .

In a rubber rolling air-drying device described in this example, the mounting assembly 509 includes two positioning pieces 521 and a connecting plate 522, the two positioning pieces 521 are respectively arranged on the inner sides of the two chains 519, and the connecting plate 522 Both ends are correspondingly connected with two positioning pieces 521 , and the hook 510 is arranged on the connecting plate 522 .

Specifically, the above-mentioned setting has high stability, and the hook 510 moves in a circular motion. When hooking a product, it extends into the through groove of the product from top to bottom. Air dry.

A new energy battery battery cell buffer pad production device described in this example, the film pasting mechanism 6 includes a film pasting workbench 601, a film pasting support 602, a first driving roller 603, a second driving roller 604, a feeding platform 605 and The partition 606, the film sticking support 602 and the feeding platform 605 are all arranged on the workbench, the first driving roller 603 and the second driving roller 604 are all set on the film sticking support 602, The partition 606 is fixed on the top of the rear end of the feeding platform 605, the feeding platform 605 is provided with a gap between the partitions 606, and the film sticking support 602 is provided with a first driven roller 607 , the first driven roller 607 is located on the top of the partition 606, the top of the feeding platform 605 is provided with a guide rail 608, a cutting knife 609 is slidably arranged on the guide rail 608, and the film sticking mechanism 6 and the The manipulator 9 is arranged between the glue brushing devices 5 . Specifically, the first driving roller 603 places the coil material, the second driving roller 604 recovers the release paper, the coil material and the release paper are peeled off at the rear end of the separator 606, and the release paper winds around the first driven roller 607 and is collected. Roll to the second driving roller 604, the peeled film is transported to the feeding platform 605 along the gap, the cutting knife 609 moves along the slide rail, the peeled film is cut, the second driving roller 604 rotates so that the release paper is recycled and the release paper When moving toward the first driven roller 607, because the first driven roller 607 is located at the top of the partition 606, the peeled film can be driven to continue moving to the feeding platform 605 when the release paper moves, and the manipulator 9 will move the film to be pasted. The heating pad is transported to the feeding platform 605 for film application. The present invention does not require too much manual operation and has high work efficiency.

A new energy battery cell buffer pad production device described in this example, a second driven roller 610 is arranged on the film sticking support 602, a second drive motor 611 is set at the bottom of the film sticking workbench 601, and the The output end of the second drive motor 611 is provided with a third fixed frame 612, the second drive motor 611 drives the third fixed frame 612 to move up and down, and the middle part of the third fixed frame 612 is provided with a third driven roller 613 for rotation , the third driven roller 613 is disposed at the bottom of the separator 606 . Specifically, the above arrangement can make the peeled film stick to the bottom of the separator 606 , so that the peeled film can be stably transported from the gap to the feeding platform 605 .

In the new energy battery cell cushion production device described in this example, the conveying device 1 includes a film-attaching conveyor belt 614 , and the film-attaching conveyor belt 614 is located between the glue brushing device 5 and the film-attaching mechanism 6 . Specifically, the above arrangement is convenient for transporting the hot embryo that has been brushed and air-dried to the outer periphery of the film sticking mechanism 6 .

Further, the film sticking support 602 is provided with a motorized roller 615 and a fourth driven roller 616, the motorized roller 615 and the fourth driven roller 616 are arranged side by side above and below, the motorized roller 615 and the The fourth driven rollers 616 are located below the second driving roller 604 . Specifically, after the release paper passes between the electric roller 615 and the fourth driven roller 616 , it is recovered by the second driving roller 604 .

In the new energy battery cell cushion production device described in this example, the second die-cutting mechanism 4 is consistent with the third die-cutting mechanism 8 .

The above is only a preferred embodiment of the present invention, and does not limit the present invention in any form. Although the present invention is disclosed as above with preferred embodiments, it is not intended to limit the present invention. Anyone familiar with this field , without departing from the scope of the technical solution of the present invention, when using the technical content disclosed above to make some changes or modifications to equivalent embodiments with equivalent changes, but as long as it does not depart from the technical solution of the present invention, the technology of the present invention refers to the above Any simple modifications, equivalent changes and modifications made in the embodiments all belong to the scope of the technical solution of the present invention.

Claims (10)

1. A new energy battery cell cushion pad production device, characterized in that it includes a transmission device, a first die-cutting mechanism, a first hot-pressing mechanism, a second die-cutting mechanism, a glue brushing device, a film sticking mechanism, a second heat press Pressing mechanism and the third die-cutting mechanism, the first die-cutting mechanism, the first hot-pressing mechanism, the second die-cutting mechanism, the glue brushing device, the film sticking mechanism, the second hot-pressing mechanism The mechanism and the third die-cutting mechanism are arranged in sequence along the conveying direction of the conveying device, and a plurality of manipulators are arranged on the outer periphery of the conveying device. 2. A new energy battery cell cushion production device according to claim 1, characterized in that: the first die-cutting mechanism includes a first die-cutting bracket, a first die-cutting device and a conveying mechanism, the The first die-cutting device is arranged on the first die-cutting support, and the conveying mechanism is arranged on the outer periphery of the first die-cutting device, and the conveying mechanism includes a rack, a die-cutting conveyor belt, a plurality of pressing rollers and a motor shaft, the die-cutting conveyor belt is arranged at the bottom of the first die-cutting device, the pressure rollers are all arranged above the die-cutting conveyor belt, and the bottom of the pressure rollers abuts against the die-cutting conveyor belt, so The material rack is located outside the die-cutting conveyor belt, and the motor shaft is arranged on the top of the die-cutting conveyor belt. 3. A new energy battery cell buffer pad production device according to claim 2, characterized in that: a die-cutting platform is provided at the bottom of the first die-cutting device, and the die-cutting conveyor belt is located on the die-cutting The bottom of the platform, the bottom of the die-cutting platform is provided with a base, and both ends of the bottom of the first die-cutting device are provided with a first rodless cylinder, and one end of the first rodless cylinder is connected to the first mold connected with the cutting device, the other end of the first rodless cylinder protrudes outward from the first die cutting device, the first rodless cylinder is provided with a first slider, and the two sides of the base are respectively connected to the The two first sliders are correspondingly connected; the top of the first die-cutting device is connected with a driving guide rail, and the driving guide rail is arranged along the horizontal direction, and a second slider is slidably arranged on the driving guide rail, and the second slider A pick-up assembly is arranged at the bottom of the block, and a first driving motor is arranged on the pick-up assembly, and the first drive motor drives the pick-up assembly to move up and down. 4. A new energy battery cell cushion pad production device according to claim 1, characterized in that: the first heat-pressing mechanism includes a heat-pressing device, the transfer device includes a heat-pressing transfer assembly, and the heat-pressing mechanism includes a heat-pressing device. There are multiple pressing devices and the hot-pressing transfer assembly, and the hot-pressing transfer assembly includes a hot-pressing conveyor belt. The number of the hot-pressing devices is consistent with the number of the hot-pressing conveyor belts. The transportation direction of the hot-pressing conveying components is arranged side by side, the manipulator is correspondingly arranged on the outer periphery of the hot-pressing device, the hot-pressing conveyor belts are distributed up and down, and there is a gap between every two adjacent hot-pressing conveyor belts, so One end of the hot-pressing conveyor belt is provided with a stopper. 5. A new energy battery cell cushion production device according to claim 1, characterized in that: the second die-cutting mechanism includes a second die-cutting bracket, a CCD camera module and a second die-cutting device, The conveying device includes a die-cutting conveying assembly, the first heat press mechanism and the second die-cutting mechanism are respectively arranged at both ends of the die-cutting conveying assembly, and the second die-cutting device is arranged at the first On the two die-cutting supports, the bottom of the second die-cutting device is provided with a die-cutting base, and the top of the second die-cutting device is provided with a die-cutting fixing plate, and the CCD camera module includes an upper CCD camera module and The lower CCD camera module, the upper CCD camera module and the lower CCD camera module are respectively arranged on the die-cutting fixing plate and the second die-cutting support, the upper CCD camera module and the The lower CCD camera module is arranged oppositely, and the manipulator is arranged on the outer periphery of the second die-cutting bracket. 6. A new energy battery cell buffer pad production device according to claim 1, characterized in that: the glue brushing device includes a rubber rolling assembly and an air-drying assembly, and the rubber rolling assembly and the air-drying assembly are arranged side by side , the rubber rolling assembly includes a rubber rolling frame body, the top of the rubber rolling frame body is provided with a first conveying assembly, and one end of the first conveying assembly close to the air-drying assembly is provided with a rubber rolling roller, the rubber rolling roller The bottom is provided with a glue storage box, and the air-drying assembly includes an air-drying passage, and a second transmission assembly is arranged in the air-drying passage, and a plurality of mounting assemblies are arranged on the second conveying assembly, and the outside of the mounting assembly is arranged There is a hook, and the manipulator is arranged between the rubber rolling assembly and the second die-cutting mechanism. 7. A new energy battery cell cushion pad production device according to claim 1, characterized in that: the film sticking mechanism includes a film sticking workbench, a film sticking stand, a first driving roller, a second driving roller, a feeding The platform and the partition, the film sticking support and the feeding platform are all arranged on the workbench, the first driving roller and the second driving roller are all arranged on the film sticking support, and the dividing plate It is fixed on the top of the rear end of the feeding platform, the feeding platform is provided with a gap between the partitions, the film sticking support is provided with a first driven roller, and the first driven roller is located on the The top of the partition, the top of the feeding platform is provided with a guide rail, a cutting knife is slidably provided on the guide rail, and the manipulator is provided between the film sticking mechanism and the glue brushing device. 8. A new energy battery cell buffer pad production device according to claim 7, characterized in that: a second driven roller is set on the film sticking support, and a first driving roller is set at the bottom of the film sticking workbench. Motor, the output end of the first drive motor is provided with a fixed frame, the first drive motor drives the fixed frame to move up and down, the middle part of the third fixed frame rotates and is provided with a third driven roller, and the third driven roller The moving roller is arranged at the bottom of the separator. 9. A new energy battery cell cushion pad production device according to claim 1, characterized in that: the conveying device includes a film-sticking conveyor belt, and the film-sticking conveyor belt is located between the glue brushing device and the film-sticking mechanism . 10. A new energy battery cell cushion production device according to claim 1, characterized in that: the second die-cutting mechanism is consistent with the third die-cutting mechanism.

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