A new energy battery cell buffer pad production device

Abstract

The present invention belongs to the technical field of new energy batteries, and specifically relates to an automation of a new energy battery cell buffer pad, including a conveying device, a first die-cutting mechanism, a first hot pressing mechanism, a second die-cutting mechanism, a glue brushing device, a film pasting mechanism, a second hot pressing mechanism, and a third die-cutting mechanism, wherein the first die-cutting mechanism, the first hot pressing mechanism, the second die-cutting mechanism, the glue brushing device, the film pasting mechanism, the second hot pressing mechanism, and the third die-cutting mechanism are sequentially arranged along the conveying direction of the conveying device, and a plurality of manipulators are arranged on the periphery of the conveying device. The present invention is cleverly designed, and each device and mechanism has a high degree of automation. Moreover, by arranging a conveying device and a manipulator, it can be transported between each device and mechanism, with low safety risks, no need for excessive manual operation, and high work efficiency.

Description

Technical Field

[0001] The invention belongs to the technical field of new energy batteries, and in particular relates to an automation method for buffer pads of new energy battery cells. Background Art

[0002] The production of new energy battery cell cushion pads is currently divided into several steps: 1. Workers put the sheet of raw silicone rubber into the mold and use a high-temperature and high-pressure machine (hot press) to hot-press and form a 1-out-of-4 cushion blank; 2. After hot-pressing, workers take the cushion blank to the die-cutting workshop and die-cut the outer and inner edges of the cushion blank; 3. Workers take the cushion blank with the outer and inner edges die-cut to the glue brushing machine to brush glue and air dry; 4. Workers apply film on both sides of the hot blank after air drying; 4. Workers take the film-applied product to the hot press 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 workers to carry it, which has low production efficiency and high safety risks. Summary of the invention

[0003] In view of the problems of the prior art, the present invention provides a new energy battery cell buffer pad production device with high production efficiency and low safety risk.

[0004] In order to solve the above technical problems, the present invention adopts the following technical solutions:

[0005] A new energy battery cell buffer pad production device comprises a conveying device, a first die-cutting mechanism, a first hot pressing mechanism, a second die-cutting mechanism, a glue brushing device, a film pasting mechanism, a second hot pressing mechanism and a third die-cutting mechanism, wherein the first die-cutting mechanism, the first hot pressing mechanism, the second die-cutting mechanism, the glue brushing device, the film pasting mechanism, the second hot pressing 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 periphery of the conveying device.

[0006] Among them, the first die-cutting mechanism includes a first die-cutting bracket, a first die-cutting device and a conveying mechanism, the first die-cutting device is arranged on the first die-cutting bracket, the conveying mechanism is arranged on the 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, the pressure rollers are arranged above the die-cutting conveyor belt, the bottom of the pressure rollers abuts against the die-cutting conveyor belt, the material rack is located on the outside of the die-cutting conveyor belt, and the motor shaft is arranged on the top of the die-cutting conveyor belt.

[0007] Among them, a die-cutting platform is provided at the bottom of the first die-cutting device, the die-cutting conveyor belt is located at the bottom of the die-cutting platform, a base is provided at the bottom of the die-cutting platform, first rodless cylinders are provided at both ends of the bottom of the first die-cutting device, one end of the first rodless cylinder is connected to the first die-cutting device, and the other end of the first rodless cylinder extends outward from the first die-cutting device, and first sliders are provided on the first rodless cylinders, and the two sides of the base are respectively connected to the two first sliders; a driving guide rail is connected to the top of the first die-cutting device, and the driving guide rail is arranged in a horizontal direction, and a second slider is slidably arranged on the driving guide rail, and a picking assembly is provided at the bottom of the second slider, and a first driving motor is provided on the picking assembly, and the first driving motor drives the picking assembly to move up and down.

[0008] Among them, the first hot pressing mechanism includes a hot pressing device, the conveying device includes a hot pressing conveying assembly, the hot pressing device and the hot pressing conveying assembly are provided in plurality, the hot pressing conveying 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 hot pressing devices are arranged in parallel along the transportation direction of the hot pressing conveying assembly, the manipulator is correspondingly arranged on the periphery of the hot pressing device, the hot pressing conveyor belts are distributed up and down, a gap is arranged between every two adjacent hot pressing conveyor belts, and a stopper is arranged at one end of the hot pressing conveyor belt.

[0009] Among them, 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 component, the first hot pressing mechanism and the second die-cutting mechanism are respectively arranged at both ends of the die-cutting conveying component, the second die-cutting device is arranged on the second die-cutting bracket, 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, the CCD camera module includes an upper CCD camera module and a 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 bracket, the upper CCD camera module and the lower CCD camera module are arranged relatively, and the manipulator is arranged on the periphery of the second die-cutting bracket.

[0010] Among them, the glue brushing device includes a glue rolling assembly and an air-drying assembly, the glue rolling assembly and the air-drying assembly are arranged in parallel, the glue rolling assembly includes a glue rolling frame, a first conveying assembly is arranged on the top of the glue rolling frame, a glue rolling roller is arranged at one end of the first conveying assembly close to the air-drying assembly, a glue storage box is arranged at the bottom of the glue rolling roller, the air-drying assembly includes an air-drying channel, a second conveying assembly is arranged in the air-drying channel, a plurality of mounting assemblies are arranged on the second conveying assembly, a hook is arranged on the outer side of the mounting assembly, and the manipulator is arranged between the glue rolling assembly and the second die-cutting mechanism.

[0011] Among them, the film pasting mechanism includes a film pasting workbench, a film pasting bracket, a first active roller, a second active roller, a feeding platform and a partition. The film pasting bracket and the feeding platform are both arranged on the workbench, the first active roller and the second active roller are both arranged on the film pasting bracket, the partition is fixed at the top of the rear end of the feeding platform, and a gap is arranged between the feeding platform and the partition. The film pasting bracket is provided with a first driven roller, and the first driven roller is located on the top of the partition. A guide rail is arranged on the top of the feeding platform, and a cutting knife is slidably arranged on the guide rail. The manipulator is arranged between the film pasting mechanism and the glue brushing device.

[0012] Among them, a second driven roller is arranged on the film-sticking bracket, a first driving motor is arranged at the bottom of the film-sticking workbench, a fixed frame is arranged at the output end of the first driving motor, the first driving motor drives the fixed frame to move up and down, and a third driven roller is rotatably arranged in the middle of the third fixed frame, and the third driven roller is arranged at the bottom of the partition.

[0013] Wherein, the conveying device comprises a film pasting conveyor belt, and the film pasting conveyor belt is located between the glue brushing device and the film pasting mechanism.

[0014] Wherein, the second die-cutting mechanism is consistent with the third die-cutting mechanism.

[0015] The beneficial effects of the present invention: the present invention has a novel structure and an ingenious design. When working, a worker puts a sheet of raw silicone rubber into the first die-cutting mechanism for die-cutting, and after die-cutting, uses the first hot pressing mechanism to hot-press and mold it into a mat blank. The mat blank is then sent to the second die-cutting mechanism to punch out the outer and inner edges, and the punched mat blank is transported to the glue brushing device to brush glue and air-dry. After air-drying, the film-laminating mechanism sticks film on both sides of the hot blank, and then it is transported to the second hot pressing mechanism for hot-pressing. Finally, the molded mat blank is transported to the third die-cutting mechanism for cutting and molding. By arranging a conveying device and a manipulator, it can be transported between various devices and mechanisms, with low safety risks, no need for excessive manual operation, and high work efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1It is a structural schematic diagram of the present invention.

[0017] Figure 2 The structure diagram of the first die-cutting mechanism of the present invention is shown in FIG. Figure 1 .

[0018] Figure 3 The structure diagram of the first die-cutting mechanism of the present invention is shown in FIG. Figure 2 .

[0019] Figure 4 It is a side view of the first die-cutting mechanism of the present invention.

[0020] Figure 5 It is a top view of the first hot pressing mechanism of the present invention.

[0021] Figure 6 It is a structural schematic diagram of the first hot pressing mechanism of the present invention.

[0022] Figure 7 It is a side view of the first hot pressing mechanism of the present invention.

[0023] Figure 8 The structure diagram of the second die-cutting mechanism of the present invention is shown in FIG. Figure 1 .

[0024] Fig. 9 The structure diagram of the second die-cutting mechanism of the present invention is shown in FIG. Figure 2 .

[0025] Fig.10 It is a schematic structural diagram of the second die-cutting device of the present invention.

[0026] Fig.11 It is a structural schematic diagram of the glue brushing device of the present invention.

[0027] Fig.12 It is a schematic structural diagram of the rubber rolling assembly of the present invention.

[0028] Fig.13 It is a top view of the rubber rolling assembly of the present invention.

[0029] Fig.14 It is a schematic structural diagram of the air-drying component of the present invention.

[0030] Fig.15 It is a schematic structural diagram of the second transmission component of the present invention.

[0031] Fig.16 The structure of the film sticking mechanism of the present invention is shown in FIG. Figure 1 .

[0032] Fig.17 The structure of the film sticking mechanism of the present invention is shown in FIG. Figure 2 .

[0033] Fig.18 The structure of the film sticking mechanism of the present invention is shown in FIG. Figure 3 .

[0034] The reference numerals are: 1, conveying device, 2, first die-cutting mechanism, 3, first hot pressing mechanism, 4, second die-cutting mechanism, 5, glue brushing device, 6, film laminating mechanism, 7, second hot pressing mechanism, 8, third die-cutting mechanism, 9, manipulator;

[0035] 201, a first die-cutting bracket, 202, a first die-cutting device, 203, a conveying mechanism, 204, a material rack, 205, a die-cutting conveyor belt, 206, a pressure roller, 207, a motor shaft, 208, a die-cutting platform, 209, a base, 210, a first rodless cylinder, 211, a first slider, 212, a driving guide rail, 213, a second slider, 214, a picking assembly, 215, a first driving motor, 216, an adjustment bracket, 217, a threaded adjustment rod, 218, a positioning block, 219, a positioning hole;

[0036] 301, hot pressing device, 302, hot pressing transmission assembly, 303, hot pressing conveyor belt, 304, stopper, 305, spacer, 306, housing, 307, hot pressing machine;

[0037] 401, second die-cutting bracket, 402, CCD camera module, 403, second die-cutting device, 404, die-cutting transmission assembly, 405, die-cutting base, 406, die-cutting fixing plate, 407, upper CCD camera module, 408, lower CCD camera module, 409, die-cutting drive device, 410, die-cutting guide column, 411, guide plate, 412, die-cutting knife seat, 413, knife die lower bottom plate, 414, second rodless cylinder, 415, scraper slider, 416, scraper plate;

[0038] 501, glue rolling assembly, 502, air drying assembly, 503, glue rolling frame, 504, first transmission assembly, 505, glue rolling roller, 506, glue storage box, 507, air drying channel, 508, second transmission assembly, 509, mounting assembly, 510, stepping motor, 511, first fixed frame, 512, first roller, 513, second roller, 514, round belt, 515, first roller groove, 516, second roller groove, 517, second fixed frame, 518, first rotating shaft, 519, chain, 520, sprocket, 521, positioning member, 522, connecting plate, 523, hook;

[0039] 601, film laminating workbench, 602, film laminating bracket, 603, first active roller, 604, second active roller, 605, feeding platform, 606, partition, 607, first driven roller, 608, guide rail, 609, cutting knife, 610, second driven roller, 611, second driving motor, 612, third fixed frame, 613, third driven roller, 614, film laminating conveyor belt, 615, electric roller, 616, fourth driven roller. DETAILED DESCRIPTION

[0040] In order to facilitate the understanding of those skilled in the art, the present invention is further described below in conjunction with the embodiments and drawings, and the contents mentioned in the embodiments are not intended to limit the present invention. The present invention is described in detail below in conjunction with the drawings.

[0041] A new energy battery cell cushion production device, such as Figure 1-Figure 18 As shown, it includes a conveying device 1, a first die-cutting mechanism 2, a first hot pressing mechanism 3, a second die-cutting mechanism 4, a glue brushing device 5, a film pasting mechanism 6, a second hot pressing mechanism 7 and a third die-cutting mechanism 8. The first die-cutting mechanism 2, the first hot pressing mechanism 3, the second die-cutting mechanism 4, the glue brushing device 5, the film pasting mechanism 6, the second hot pressing mechanism 7 and the third die-cutting mechanism 8 are arranged in sequence along the conveying direction of the conveying device 1, and a plurality of manipulators 9 are arranged on the periphery of the conveying device 1. Specifically, during work, workers put the sheet of raw silicone rubber into the first die-cutting mechanism 2 for die-cutting, and after die-cutting, use the first hot pressing mechanism 3 to hot-press and form a mat blank. Then the mat blank is sent to the second die-cutting mechanism 4 to punch out the outer and inner edges, and the punched mat blank is transported to the glue brushing device 5 for brushing glue and air-drying. After air-drying, the film laminating mechanism 6 laminates the two sides of the hot blank, and then transports it to the second hot pressing mechanism 7 for hot-pressing. Finally, the formed mat blank is transported to the third die-cutting mechanism 8 for cutting and forming. By setting up the conveying device 1 and the manipulator 9, it can be transported between various devices and mechanisms, with low safety risks, no need for excessive manual operation, and high work efficiency.

[0042] In this example, a new energy battery cell buffer pad production device is described, wherein the first die-cutting mechanism 2 includes a first die-cutting bracket 201, a first die-cutting device 202 and a conveying mechanism 203, wherein the first die-cutting device 202 is arranged on the first die-cutting bracket 201, and the conveying mechanism 203 is arranged on the periphery of the first die-cutting device 202, and the conveying mechanism 203 includes a material rack 204, a die-cutting conveyor belt 205, a plurality of pressure rollers 206 and a motor shaft 207, wherein the die-cutting conveyor belt 205 is arranged at the bottom of the first die-cutting device 202, and the pressure rollers 206 are all arranged above the die-cutting conveyor belt 205, and the bottom of the pressure rollers 206 abuts against the die-cutting conveyor belt 205, the material rack 204 is located on the outside of 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 rolled silicone rubber raw material can be rotatably placed on the material rack 204, the silicone rubber raw material is arranged along the die-cutting conveyor belt 205, the pressure 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 upper surface of the die-cutting conveyor belt 205 and is introduced into the first die-cutting device 202. 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 recycled in a rolled form. After each die-cutting is completed, the die-cutting conveyor belt 205 moves to drive 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 and die-cutting, and recycling of waste materials does not require excessive manual operation, and has high processing efficiency and low safety risks.

[0043] In this example, a new energy battery cell cushion production device is described, wherein a die-cutting platform 208 is provided at the bottom of the first die-cutting device 202, the die-cutting conveyor belt 205 is located at the bottom of the die-cutting platform 208, and a base 209 is provided at the bottom of the die-cutting platform 208. Both ends of the bottom of the first die-cutting device 202 are provided with a first rodless cylinder 210, one end of the first rodless cylinder 210 is connected to the first die-cutting device 202, and the other end of the first rodless cylinder 210 extends outward from the first die-cutting device 202. The first rodless cylinder 210 is provided with a first slider 211, and the two sides of the base 209 are respectively connected to the 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 in a horizontal direction. A second slider 213 is slidably arranged on the driving guide rail 212, and a picking assembly 214 is arranged at the bottom of the second slider 213. A first driving motor 215 is arranged on the picking assembly 214, and the first driving motor 215 drives the picking assembly 214 to move up and down. Specifically, the first die-cutting device 202 performs die-cutting directly on the die-cutting platform 208. The above-mentioned arrangement enables the die-cutting platform 208 to move along the first rodless cylinder 210 after the die-cutting is completed. The die-cutting platform 208 can output the die-cut silicone rubber 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 picking assembly 214 moves along the driving guide rail 212 to the die-cutting platform 208, and the picking assembly 214 picks up the die-cut product onto the conveying device 1.

[0044] In the production device of a new energy battery cell cushion pad described in this example, a plurality of adjustment fixing frames 216 are arranged on the top of the die-cutting frame 201, and threaded adjustment rods 217 are arranged at both ends of the pressure roller 206, and the threaded adjustment rods 217 are screwed to the adjustment fixing frames 216. Specifically, when in use, the coil is first unfolded along the die-cutting conveyor belt 205, and then the threaded adjustment rod 217 is adjusted to move the pressure roller 206 downward, and the silicone rubber raw material is pressed on the die-cutting conveyor belt 205. When the silicone rubber raw material needs to be replaced, the threaded adjustment rod 217 is adjusted to move the pressure roller 206 upward.

[0045] 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 coil are rotatably connected to the positioning holes 219.

[0046] In this example, a new energy battery cell buffer pad production device is described, wherein the first hot pressing mechanism 3 includes a hot pressing device 301, and the conveying device 1 includes a hot pressing conveying component 302. There are multiple hot pressing devices 301 and hot pressing conveying components 302, and the hot pressing conveying components 302 each include a hot pressing conveyor belt 303. The number of the hot pressing devices 301 is consistent with the number of the hot pressing conveyor belts 303. The hot pressing devices 301 are arranged in parallel along the transportation direction of the hot pressing conveying components 302, and the manipulator 9 is correspondingly arranged on the outer periphery of the hot pressing device 301. The hot pressing conveyor belts 303 are distributed up and down, and a gap is arranged between every two adjacent hot pressing conveyor belts 303. A stopper 304 is arranged at one end of the hot pressing conveyor belt 303. Specifically, when in use, the products to be processed are placed on each hot pressing conveyor belt 303, and a gap is set between every two adjacent hot pressing conveyor belts 303, so that the products to be processed can be transported smoothly. Each hot pressing conveyor belt 303 transports the products to be processed to the block 304. At this time, the products to be processed no longer move. The robot 9 transports the products 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 robot 9 is used to take out the products after hot pressing, which has high work efficiency and high safety.

[0047] Further, a spacer 305 is provided at the edge between each two adjacent hot pressing conveyor belts 303. Specifically, the spacer 305 separates the two adjacent hot pressing conveyor belts 303 to form a gap for the product to pass through.

[0048] Furthermore, the hot pressing device 301 includes a housing 306 and two hot presses 307, and the two hot presses 307 are both arranged in the housing 306, and the two hot presses 307 are arranged in parallel. Specifically, the above arrangement enables the hot pressing device 301 to have a double station, and when one hot press 307 is working, the other hot press 307 completes the steps of taking and placing the product, which greatly improves the work efficiency.

[0049] The present example describes a new energy battery cell buffer pad production device, wherein 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 conveying component 404, the first hot pressing mechanism 3 and the second die-cutting mechanism 4 are respectively arranged at both ends of the die-cutting conveying component 404, the second die-cutting device 403 is arranged on the second die-cutting bracket 401, a die-cutting base 405 is arranged at the bottom of the second die-cutting device 403, and a die-cutting fixing plate 406 is arranged at the top of the second die-cutting device 403, the CCD camera module 402 includes an upper CCD camera module 407 and a lower CCD camera module 408, 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 bracket 401, the upper CCD camera module 407 and the lower CCD camera module 408 are arranged relatively, and the manipulator 9 is arranged on the periphery of the second die-cutting bracket 401. Specifically, when in use, the blank to be die-cut is grabbed by the manipulator 9 and placed in the CCD camera module 402 for photographing and alignment correction, and then placed in the second die-cutting device 403 to die-cut the blank into shape, thereby solving 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 photographing and positioning by the CCD camera module 402 belongs to the prior art and will not be described in detail here.

[0050] Furthermore, the second die-cutting device 403 includes a guide plate 411 and a die-cutting drive device 409, a plurality of die-cutting guide columns 410 are arranged at the edge of the die-cutting base 405, the die-cutting fixing plate 406 is arranged on the top of the die-cutting guide columns 410, the die-cutting drive device 409 is arranged on the die-cutting fixing plate 406, and the output end of the die-cutting drive device 409 is passed through the die-cutting fixing plate 406 and connected to the top of the guide plate 411. A plurality of guide holes are arranged at the edge of the guide plate 411, the die-cutting guide columns 410 are passed through the guide holes one by one, a die-cutting knife seat 412 is arranged at the bottom of the guide plate 411, and a die-cutting die lower bottom plate 413 is arranged on the die-cutting base 405. Specifically, the robot 9 moves the product to be die-cut to the lower base plate 413 of the die cutter, and the die-cutting drive device 409 works so that the guide plate 411 is pressed down along the die-cutting guide column 410 to die-cut the product. After the die-cutting is completed, the die-cutting drive device 409 works to lift the guide plate 411 to achieve die-cutting.

[0051] In the new energy battery cell cushion production device described in this example, a second rodless cylinder 414 is provided at the rear end of the lower bottom plate 413 of the die cutter, a scraper slider 415 is provided on the second rodless cylinder 414, a scraper plate 416 is provided on the scraper slider 415, and one end of the scraper plate 416 extends toward the lower bottom plate 413 of the die cutter. Specifically, the scraper slider 415 moves along the second rodless cylinder 414, and the scraper plate 416 scrapes away the waste material after die cutting on the lower bottom plate 413 of the die cutter, without affecting the die cutting of subsequent products.

[0052] The present example describes a new energy battery cell buffer pad production device, wherein the glue brushing device 5 includes a glue rolling component 501 and an air-drying component 502, wherein the glue rolling component 501 and the air-drying component 502 are arranged in parallel, wherein the glue rolling component 501 includes a glue rolling frame 503, wherein a first conveying component 504 is arranged on the top of the glue rolling frame 503, wherein a glue rolling roller 505 is arranged on one end of the first conveying component 504 close to the air-drying component 502, wherein a glue storage box 506 is arranged on the bottom of the glue rolling roller 505, wherein the air-drying component 502 includes an air-drying channel 507, wherein a second conveying component 508 is arranged in the air-drying channel 507, wherein a plurality of mounting components 509 are arranged on the second conveying component 508, wherein a hook 523 is arranged on the outer side of the mounting component 509, and the manipulator 9 is arranged between the glue rolling component 501 and the second die-cutting mechanism 4. Specifically, when in use, the product to be brushed with glue is first placed on the first conveying component 504, and the first conveying component 504 transports the product to be brushed with glue to the top of the glue roller 505. The glue roller 505 applies glue to the product and extends out from one end of the product through the first conveying component 504. The hook 523 moves along the second conveying component 508. The product has a through groove, and the hook 523 extends into the through groove to hook up the product after brushing with glue, and continues to move in the air-drying channel 507 through the second conveying component 508 to achieve air-drying. The air-dried product is removed by staff or a unloading device. The present invention has a high degree of automation, stable glue brushing quality, and improved processing efficiency.

[0053] In the present example, a new energy battery cell cushion production device is described, wherein the first transmission component 504 includes a stepper motor 510, a first fixed frame 511, a first roller 512, a second roller 513 and a round belt 514, wherein the first roller 512 and the second roller 513 are respectively arranged at the two ends of the first fixed frame 511, and the first roller 512 and the second roller 513 are respectively provided with a first roller groove 515 and a second roller groove 516, wherein the round belt 514, the first roller groove 515 and the second roller groove 516 are each provided with a plurality of them, and the round belt 514 is engaged with the first roller groove 515 and the second roller groove 516 one by one, and the stepper motor 510 is connected to the first roller 512 in transmission. Specifically, the above-mentioned arrangement is stable in transmission, and the stepper motor 510 is arranged so that the product after the glue is applied is extended out of the first transmission component 504 and then stops, and the stepper motor 510 starts to work again after the hook 510 hooks the product after the glue is applied.

[0054] In this example, a new energy battery cell buffer pad production device is described, wherein the second conveying component 508 includes a second fixed frame 517, a first rotating shaft 518, a second rotating shaft (not shown) and a chain 519. Sprockets 520 are provided on both sides of the first rotating shaft 518 and both sides of the second rotating shaft. The first rotating shaft 518 and the second rotating shaft are rotatably connected to the second fixed frame 517. Two chains 519 are provided, and the two chains 519 are respectively connected to the sprockets 520 on both sides. The mounting component 509 is connected to the chain 519, and the first rotating shaft 518 is connected to the first driving motor 215.

[0055] The present example describes a roller glue air-drying device, wherein the mounting assembly 509 includes two positioning members 521 and a connecting plate 522 , wherein the two positioning members 521 are respectively arranged on the inner sides of the two chains 519 , and the two ends of the connecting plate 522 are correspondingly connected to the two positioning members 521 , and the hook 510 is arranged on the connecting plate 522 .

[0056] Specifically, the above arrangement has high stability, and the hook 510 moves in a circular shape. When hooking the product, it extends into the through groove of the product from top to bottom. After hooking the product, it moves back to the horizontal plane along a circular trajectory and is air-dried in the air-drying channel 507.

[0057] The present example describes a new energy battery cell buffer pad production device, wherein the film pasting mechanism 6 includes a film pasting workbench 601, a film pasting bracket 602, a first active roller 603, a second active roller 604, a feeding platform 605 and a partition 606, wherein the film pasting bracket 602 and the feeding platform 605 are both arranged on the workbench, the first active roller 603 and the second active roller 604 are both arranged on the film pasting bracket 602, the partition 606 is fixed to the top of the rear end of the feeding platform 605, a gap is arranged between the feeding platform 605 and the partition 606, a first driven roller 607 is arranged on the film pasting bracket 602, the first driven roller 607 is located on the top of the partition 606, a guide rail 608 is arranged on the top of the feeding platform 605, a cutting knife 609 is slidably arranged on the guide rail 608, and the manipulator 9 is arranged between the film pasting mechanism 6 and the glue brushing device 5. Specifically, the first active roller 603 places the roll material, and the second active roller 604 recycles the release paper. The roll material and the release paper are peeled off at the rear end of the partition 606, and the release paper is rolled around the first driven roller 607 and then rolled up to the second active roller 604. The peeled film is transported to the feeding platform 605 along the gap, and the cutting knife 609 moves along the slide rail to cut the peeled film. The second active roller 604 rotates to recycle the release paper and when the release paper moves toward the first driven roller 607, because the first driven roller 607 is located on the top of the partition 606, the release paper can drive the peeled film to continue to move toward the feeding platform 605 when it moves. The robot 9 transports the heating pad to be pasted to the feeding platform 605 for film pasting. The present invention does not require too much manual operation and has high work efficiency.

[0058] In the present example, a new energy battery cell buffer pad production device is provided with a second driven roller 610 on the film-sticking support 602, a second drive motor 611 is provided at the bottom of the film-sticking workbench 601, a third fixed frame 612 is provided at the output end of the second drive motor 611, the second drive motor 611 drives the third fixed frame 612 to move up and down, a third driven roller 613 is provided in the middle of the third fixed frame 612, and the third driven roller 613 is provided at the bottom of the partition 606. Specifically, the above arrangement enables the peeled film to be closely attached to the bottom of the partition 606, so that the peeled film can be stably transported from the gap to the feeding platform 605.

[0059] In the embodiment of the present invention, the conveying device 1 comprises a film pasting conveyor belt 614, and the film pasting conveyor belt 614 is located between the glue brushing device 5 and the film pasting mechanism 6. Specifically, the above arrangement facilitates the conveying of the hot blanks that have been dried by glue brushing to the periphery of the film pasting mechanism 6.

[0060] Furthermore, the film-sticking bracket 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 in parallel at the top and bottom, and the motorized roller 615 and the fourth driven roller 616 are both located below the second active roller 604. Specifically, after the release paper passes between the motorized roller 615 and the fourth driven roller 616, it is recovered by the second active roller 604.

[0061] In the new energy battery cell buffer pad production device described in this example, the second die-cutting mechanism 4 is consistent with the third die-cutting mechanism 8.

[0062] The above description 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 a preferred embodiment as above, it is not used to limit the present invention. Any technician familiar with the profession can make some changes or modifications to equivalent embodiments of equivalent changes by using the technical contents disclosed above without departing from the scope of the technical solution of the present invention. However, any simple modification, equivalent changes and modifications made to the above embodiments according to the technology of the present invention are within the scope of the technical solution of the present invention without departing from the content of the technical solution of the present invention.

Claims

1. A new energy battery cell cushion production device, characterized in that: It includes a conveying 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 die-cutting mechanism, wherein 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 are sequentially arranged along the conveying direction of the conveying device, and a plurality of manipulators are arranged on the periphery of the conveying device; The first die-cutting mechanism comprises a first die-cutting bracket, a first die-cutting device and a conveying mechanism, wherein the first die-cutting device is arranged on the first die-cutting bracket, the conveying mechanism is arranged on the periphery of the first die-cutting device, the conveying mechanism comprises 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, the pressure rollers are arranged above the die-cutting conveyor belt, the bottom of the pressure rollers abuts against the die-cutting conveyor belt, the material rack is located on the outside of the die-cutting conveyor belt, and the motor shaft is arranged on the top of the die-cutting conveyor belt; A die-cutting platform is provided at the bottom of the first die-cutting device, the die-cutting conveyor belt is located at the bottom of the die-cutting platform, a base is provided at the bottom of the die-cutting platform, first rodless cylinders are provided at both ends of the bottom of the first die-cutting device, one end of the first rodless cylinder is connected to the first die-cutting device, and the other end of the first rodless cylinder extends outward from the first die-cutting device, and first sliders are provided on the first rodless cylinders, and the two sides of the base are respectively connected to the two first sliders; a driving guide rail is connected to the top of the first die-cutting device, and the driving guide rail is arranged in a horizontal direction, and a second slider is slidably arranged on the driving guide rail, and a picking assembly is provided at the bottom of the second slider, and a first driving motor is provided on the picking assembly, and the first driving motor drives the picking assembly to move up and down; The glue brushing device includes a glue rolling assembly and an air-drying assembly, the glue rolling assembly and the air-drying assembly are arranged in parallel, the glue rolling assembly includes a glue rolling frame, a first conveying assembly is arranged on the top of the glue rolling frame, a glue rolling roller is arranged at one end of the first conveying assembly close to the air-drying assembly, a glue storage box is arranged at the bottom of the glue rolling roller, the air-drying assembly includes an air-drying channel, a second conveying assembly is arranged in the air-drying channel, a plurality of mounting assemblies are arranged on the second conveying assembly, a hook is arranged on the outer side of the mounting assembly, and the manipulator is arranged between the glue rolling assembly and the second die-cutting mechanism.

2. A new energy battery cell cushion production device according to claim 1, characterized in that: The first hot pressing mechanism includes a hot pressing device, and the conveying device includes a hot pressing conveying assembly. There are multiple hot pressing devices and hot pressing conveying assemblies, and the hot pressing conveying assemblies each include a hot pressing conveyor belt. The number of the hot pressing devices is consistent with the number of the hot pressing conveyor belts. The hot pressing devices are arranged in parallel along the transportation direction of the hot pressing conveying assemblies. The manipulator is correspondingly arranged on the periphery of the hot pressing devices. The hot pressing conveyor belts are distributed up and down, and a gap is arranged between every two adjacent hot pressing conveyor belts. A stopper is arranged at one end of each hot pressing conveyor belt.

3. 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 hot pressing mechanism and the second die-cutting mechanism are respectively arranged at both ends of the die-cutting conveying assembly, the second die-cutting device is arranged on the second die-cutting bracket, a die-cutting base is arranged at the bottom of the second die-cutting device, and a die-cutting fixing plate is arranged at the top of the second die-cutting device. The CCD camera module includes an upper CCD camera module and a 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 bracket, the upper CCD camera module and the lower CCD camera module are arranged relatively to each other, and the manipulator is arranged on the periphery of the second die-cutting bracket.

4. A new energy battery cell buffer pad production device according to claim 1, characterized in that: The film pasting mechanism includes a film pasting workbench, a film pasting bracket, a first active roller, a second active roller, a feeding platform and a partition. The film pasting bracket and the feeding platform are both arranged on the workbench, the first active roller and the second active roller are both arranged on the film pasting bracket, the partition is fixed to the top of the rear end of the feeding platform, a gap is arranged between the feeding platform and the partition, a first driven roller is arranged on the film pasting bracket, the first driven roller is located on the top of the partition, a guide rail is arranged on the top of the feeding platform, a cutting knife is slidably arranged on the guide rail, and the manipulator is arranged between the film pasting mechanism and the glue brushing device.

5. A new energy battery cell buffer pad production device according to claim 4, characterized in that: A second driven roller is arranged on the film-sticking bracket, a first driving motor is arranged at the bottom of the film-sticking workbench, a fixed frame is arranged at the output end of the first driving motor, the first driving motor drives the fixed frame to move up and down, a third driven roller is rotatably arranged in the middle of the fixed frame, and the third driven roller is arranged at the bottom of the partition.

6. The new energy battery cell buffer pad production device according to claim 1, characterized in that: The conveying device comprises a film pasting conveyor belt, and the film pasting conveyor belt is located between the glue brushing device and the film pasting mechanism.

7. The new energy battery cell buffer pad production device according to claim 1 is characterized in that: The second die-cutting mechanism is consistent with the third die-cutting mechanism.

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