Automatic feeding device for lithium battery explosion-proof sheet
Patent Information
- Application Number
- CN202522256719.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-10-24
- Publication Date
- 2026-09-15
- Estimated Expiration
- 2035-10-24
AI Technical Summary
[0002]在锂电池的生产过程中,需要将防爆片与锂电池的顶盖进行激光焊接,而此时就需要对防爆片进行上料,由于目前对于中小型企业来说,防爆片与锂电池顶盖焊接大多采用人工手动操作的方式,故对于防爆片的上料工序,大多是人工手动从料仓内拿取防爆片,再将其组装至电池顶盖相应的槽位中,工作效率低、劳动强度大,人工成本较高,因此,需要对其进行改进
本实用新型能够快速、准确地将防爆片移载至预定位置,自动化程度高,大大提高了上料速度,满足大规模生产的需要,减少了人工操作环节,降低了人力成本,实用性强。
Smart Images

Figure CN224753686U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of automation technology, and in particular to an automatic feeding device for lithium battery explosion-proof sheets. Background Technology
[0002] In the production process of lithium batteries, explosion-proof sheets need to be laser-welded to the top cover of the lithium battery. At this time, the explosion-proof sheets need to be loaded. Currently, for small and medium-sized enterprises, the welding of explosion-proof sheets to the top cover of lithium batteries is mostly done manually. Therefore, the loading process of explosion-proof sheets is mostly done by manually taking the explosion-proof sheets from the hopper and assembling them into the corresponding slots in the top cover of the battery. This process is inefficient, labor-intensive, and has high labor costs. Therefore, it needs to be improved. Utility Model Content
[0003] The purpose of this invention is to provide an automatic feeding device for lithium battery explosion-proof sheets, which can quickly and accurately transfer the explosion-proof sheets to a predetermined position. It has a high degree of automation, greatly improves the feeding speed, meets the needs of large-scale production, reduces manual operation, lowers labor costs, and is highly practical.
[0004] To achieve the above objectives, the following technical solution is adopted: An automatic feeding device for explosion-proof lithium battery sheets includes a central transfer mechanism, a first hopper mechanism disposed at one end of the central transfer mechanism, and a feeding and transfer device disposed on one side of the central transfer mechanism. The first hopper mechanism includes a hopper mounting frame, a tray plate slidably connected to the top of the hopper mounting frame, and a first carrier box mounted on the top of the tray plate. The top of the first carrier box has a first carrier groove for carrying the explosion-proof sheets. One end of the tray plate is connected to a first panel, and a first handle is provided on one side of the first panel. A first positioning cylinder is installed vertically at the bottom end of the hopper mounting frame away from the first panel, and the first positioning cylinder is also driven by a first positioning rod. A positioning insertion hole is also provided at the top end of the tray plate corresponding to the first positioning rod. A first stop block is also connected at the top end of the hopper mounting frame away from the first panel, and a first limit block is also connected at the bottom end of the tray plate away from the first panel corresponding to the first stop block.
[0005] Furthermore, both the first stop block and the first limit block are L-shaped, with the vertical end of the L-shape of the first stop block facing upwards and the vertical end of the L-shape of the first limit block facing downwards.
[0006] Furthermore, a first groove is formed at each of the top two ends of the material tray along the length of the material tray, and a second groove is formed on each of the top two sides of the material tray along the width of the material tray; the first hopper mechanism also includes two end limiting seats and two side limiting seats; the end limiting seats are L-shaped, and a first guide block extends downward from the bottom of the L-shaped horizontal end of the end limiting seat; the L-shaped vertical ends of the two end limiting seats are arranged opposite each other, and the first guide blocks of the two end limiting seats are slidably arranged in a first groove; a first oval hole is also formed on the L-shaped horizontal end of the end limiting seat; the side limiting seats are L-shaped, and a second guide block extends downward from the bottom of the L-shaped horizontal end of the side limiting seat; the L-shaped vertical ends of the two side limiting seats are arranged opposite each other, and the second guide blocks of the two side limiting seats are slidably arranged in a second groove; a second oval hole is also formed on the L-shaped horizontal end of the side limiting seat.
[0007] Furthermore, the transfer loading mechanism includes a first linear module, one end of which extends to the lower part of the hopper mounting frame; the first linear module is also connected to a transfer platform, and a first limiting groove is opened at each of the top two ends of the transfer platform; a first mounting hole is also opened in the first limiting groove, and a positioning suction cup is also installed in the first mounting hole; a first air source connector communicating with the positioning suction cup is also installed at one end of the transfer platform.
[0008] Furthermore, the loading and transfer device includes a transfer fixing frame arranged on one side of the transfer mechanism, and a double-moving linear module installed on the transfer fixing frame; the double-moving linear module is arranged along the length direction of the transfer mechanism, and the two moving parts of the double-moving linear module are respectively connected to a loading and transfer mechanism.
[0009] Furthermore, the loading and transfer mechanism includes a transfer sliding frame connected to the double-acting linear module, a second linear module mounted on the transfer sliding frame perpendicular to the length direction of the double-acting linear module, and a first Z-axis lifting module connected to the second linear module; the first Z-axis lifting module is also driven and connected to a Z-axis lifting vertical plate, and the bottom of the Z-axis lifting vertical plate is also connected to a Z-axis lifting horizontal plate; a loading and transfer component is also installed on the Z-axis lifting horizontal plate.
[0010] Furthermore, the loading and transfer assembly includes an R-axis rotary motor mounted vertically on the Z-axis lifting plate, with both ends of the motor shaft of the R-axis rotary motor passing through the top and bottom of the R-axis rotary motor respectively; the motor shaft of the R-axis rotary motor has an axially hollow structure, and a first transfer suction cup is installed at the bottom of the motor shaft, and a second air source connector is installed at the top of the motor shaft.
[0011] Furthermore, a rotating disk is installed on the upper part of the motor shaft of the R-axis rotary motor, and an R-axis sensing plate is connected to the top of the rotating disk; a sensing fixing plate is also connected to one side of the Z-axis lifting vertical plate, and a U-shaped photoelectric sensor that works in conjunction with the R-axis sensing plate is installed at the bottom of the sensing fixing plate.
[0012] By adopting the above solution, the beneficial effects of this utility model are: This invention can quickly and accurately transfer explosion-proof sheets to predetermined positions. It has a high degree of automation, greatly improves the feeding speed, meets the needs of large-scale production, reduces manual operation links, lowers labor costs, and is highly practical. Attached Figure Description
[0013] Figure 1 This is a schematic diagram of the structure of this utility model; Figure 2 This is a schematic diagram of the structure of the first hopper mechanism of this utility model; Figure 3 This is a schematic diagram of the transfer mechanism of this utility model; Figure 4 This is a schematic diagram of the material loading and transfer device of this utility model; The following are explanations of the labels in the attached diagram: 1. Transfer mechanism; 2. First hopper mechanism; 3. Loading and transfer device; 11. First linear module; 12. Transfer platform; 13. Positioning suction cup; 21. Hopper mounting frame; 22. Tray support plate; 23. First carrier box; 24. First panel; 25. First positioning cylinder; 26. First stop block; 27. First limit block; 28. End limit seat; 29. Side limit seat; 31. Transfer fixing frame; 32. Double-acting linear module; 33. Transfer sliding frame; 34. Second linear module; 35. First Z-axis lifting module; 36. Z-axis lifting vertical plate; 37. Z-axis lifting horizontal plate; 38. Loading and transfer assembly; 381. R-axis rotary motor; 382. First transfer suction cup; 383. Second air source connector; 384. Rotary disk; 385. R-axis sensing plate; 386. Sensing fixing plate; 387. U-shaped photoelectric sensor. Detailed Implementation
[0014] The present invention will be described in detail below with reference to the accompanying drawings and specific embodiments.
[0015] Reference Figures 1 to 4As shown, this utility model provides an automatic feeding device for lithium battery explosion-proof sheets. In one embodiment, it includes a central transfer mechanism 1, a first hopper mechanism 2 arranged at one end of the central transfer mechanism 1, and a feeding and transfer device 3 arranged on one side of the central transfer mechanism 1. The first hopper mechanism 2 includes a hopper mounting frame 21, a tray plate 22 slidably connected to the top of the hopper mounting frame 21, and a first carrier box 23 installed on the top of the tray plate 22. The top of the first carrier box 23 is provided with a first carrier groove for carrying the explosion-proof sheet. One end of the tray plate 22 is connected to the first carrier box 23. A panel 24 is provided, and a first handle is provided on one side of the first panel 24; a first positioning cylinder 25 is installed vertically at the bottom end of the hopper mounting frame 21 away from the first panel 24, and the first positioning cylinder 25 is also driven and connected to a first positioning rod; a positioning insertion hole is also provided at the top end of the material tray 22 corresponding to the first positioning rod; a first stop block 26 is also connected to the top end of the hopper mounting frame 21 away from the first panel 24, and a first limit block 27 is also connected to the bottom end of the material tray 22 away from the first panel 24 corresponding to the first stop block 26.
[0016] In this implementation, the first hopper mechanism 2 is used to store and provide explosion-proof sheets. The tray 22 is slidably connected to the top of the hopper mounting frame 21 to support the first carrier box 23. The first carrier groove on the top of the first carrier box 23 is used to place the explosion-proof sheets. The first handle on the first panel 24 allows the operator to pull the tray 22 to clean or replenish the explosion-proof sheets. After replenishing the explosion-proof sheets, it is pushed to the predetermined position. At this time, the first positioning cylinder 25 drives the first positioning rod to rise and insert into the positioning hole to lock it, preventing it from shaking when the loading and transfer device 3 transfers the explosion-proof sheets. The first stop block 26 and the first limit block 27 cooperate to limit the movement of the tray 22. During operation, the loading and transfer device 3 first transfers the explosion-proof sheets to the intermediate transfer mechanism 1, which then transfers them to the loading position. Then, the loading and transfer device 3 transfers the explosion-proof sheets to the corresponding slots on the battery top cover.
[0017] Preferably, in this embodiment, both the first stop block 26 and the first limiting block 27 are L-shaped, with the vertical L-shaped end of the first stop block 26 facing upwards and the vertical L-shaped end of the first limiting block 27 facing downwards; a first sliding groove is formed at each of the top two ends of the material tray 22 along the length of the material tray 22, and a second sliding groove is formed on each of the top two sides of the material tray 22 along the width of the material tray 22; the first hopper mechanism 2 also includes two end limiting seats 28 and two side limiting seats 29; the end limiting seats 28 are L-shaped, and the bottom of the L-shaped horizontal end of the end limiting seat 28 is also... A first guide block extends downward; the L-shaped vertical ends of the two end limiting seats 28 are arranged opposite each other, and the first guide blocks of the two end limiting seats 28 are respectively slidably arranged in a first slide groove; a first oval hole is also provided on the L-shaped horizontal end of the end limiting seat 28; the side limiting seat 29 has an L-shaped structure, and a second guide block extends downward from the bottom of the L-shaped horizontal end of the side limiting seat 29; the L-shaped vertical ends of the two side limiting seats 29 are arranged opposite each other, and the second guide blocks of the two side limiting seats 29 are respectively slidably arranged in a second slide groove; a second oval hole is also provided on the L-shaped horizontal end of the side limiting seat 29. The first carrier box 23 can be fixed by the end limiting seat 28 and the side limiting seat 29 to ensure its stability when transferring the explosion-proof sheet. At the same time, the end limiting seat 28 and the side limiting seat 29 can slide relative to the material tray plate 22, so that the position of the first carrier box 23 can be adjusted according to the actual use environment. Then, screws can be locked into the oval hole to lock it in place.
[0018] In one embodiment, the transfer loading mechanism 1 includes a first linear module 11, one end of which extends below the hopper mounting frame 21. The first linear module 11 is also connected to a transfer platform 12, and a first limiting groove is provided at each of the top two ends of the transfer platform 12. A first mounting hole is also provided in the first limiting groove, and a positioning suction cup 13 is installed in the first mounting hole. A first air source connector communicating with the positioning suction cup 13 is also installed at one end of the transfer platform 12. The positioning suction cup 13 on the transfer platform 12 is used to hold the explosion-proof sheet to ensure its stability during the transfer process. The first linear module 11 can drive the transfer platform 12 to move so as to move it horizontally to the predetermined loading position, waiting for the loading and transfer device 3 to transfer and load the material.
[0019] In one embodiment, the loading and transfer device 3 includes a transfer fixing frame 31 arranged on one side of the transfer mechanism 1, and a dual-moving linear module 32 mounted on the transfer fixing frame 31. The dual-moving linear module 32 is arranged along the length direction of the transfer mechanism 1, and the two moving parts of the dual-moving linear module 32 are respectively connected to a loading and transfer mechanism. The two moving parts of the dual-moving linear module 32 are respectively connected to a loading and transfer mechanism, and the two loading and transfer mechanisms can move independently. One loading and transfer mechanism is used to transfer the explosion-proof sheet in the first carrier box 23 to the first limiting groove of the transfer platform 12. Subsequently, the transfer platform 12 moves to the predetermined loading position, and the other loading and transfer mechanism transfers the explosion-proof sheet in the first limiting groove to the corresponding groove of the battery top cover.
[0020] Preferably, the loading and transfer mechanism includes a transfer sliding frame 33 connected to the double-acting linear module 32, a second linear module 34 mounted on the transfer sliding frame 33 perpendicular to the length of the double-acting linear module 32, and a first Z-axis lifting module 35 connected to the second linear module 34; the first Z-axis lifting module 35 is also driven and connected to a Z-axis lifting vertical plate 36, and the bottom of the Z-axis lifting vertical plate 36 is also connected to a Z-axis lifting horizontal plate 37; a loading and transfer assembly 38 is also installed on the Z-axis lifting horizontal plate 37. The first Z-axis lifting module 35 has two sets, that is, it can transfer two explosion-proof plates at one time, improving work efficiency.
[0021] Furthermore, the loading and transfer assembly 38 includes an R-axis rotary motor 381 mounted vertically on the Z-axis lifting plate 37, with both ends of the motor shaft of the R-axis rotary motor 381 passing through its top and bottom, respectively. The motor shaft of the R-axis rotary motor 381 has an axially hollow structure, with a first transfer suction cup 382 installed at the bottom and a second air source connector 383 installed at the top. The axially hollow structure of the motor shaft and the second air source connector 383 at the top of the motor shaft are used to connect to an external air source, allowing the suction cup at the bottom of the motor shaft to pick up the explosion-proof sheet. The R-axis rotary motor 381 can drive the motor shaft to rotate the explosion-proof sheet, thereby adjusting the angle of the explosion-proof sheet to adapt to different welding requirements. Furthermore, preferably, a rotating disk 384 is mounted on the upper part of the motor shaft of the R-axis rotary motor 381, and an R-axis sensing plate 385 is connected to the top of the rotating disk 384; a sensing fixing plate 386 is also connected to one side of the Z-axis lifting vertical plate 36, and a U-shaped photoelectric sensor 387 that works in conjunction with the R-axis sensing plate 385 is mounted on the bottom of the sensing fixing plate 386. Through the cooperation of the R-axis sensing plate 385 and the U-shaped photoelectric sensor 387, the position of the rotating disk 384 can be detected, thereby facilitating the control of the R-axis rotary motor 381.
[0022] The above are merely preferred embodiments of the present utility model and are not intended to limit the present utility model. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.
Claims
1. An automatic feeding device for lithium battery explosion-proof sheets, characterized in that, The device includes a transfer mechanism, a first hopper mechanism disposed at one end of the transfer mechanism, and a loading and transferring device disposed on one side of the transfer mechanism. The first hopper mechanism includes a hopper mounting frame, a tray plate slidably connected to the top of the hopper mounting frame, and a first bearing box mounted on the top of the tray plate. The top of the first bearing box has a first bearing groove for bearing explosion-proof discs. One end of the tray plate is connected to a first panel, and one side of the first panel has a first handle. A first positioning cylinder is installed vertically at the bottom end of the hopper mounting frame away from the first panel, and the first positioning cylinder is also driven by a first positioning rod. A positioning insertion hole is also provided at the top end of the tray plate corresponding to the first positioning rod. A first stop block is also connected at the top end of the hopper mounting frame away from the first panel, and a first limit block is also connected at the bottom end of the tray plate away from the first panel corresponding to the first stop block.
2. The automatic feeding device for lithium battery explosion-proof sheets according to claim 1, characterized in that, Both the first stop block and the first limit block are L-shaped, with the vertical end of the L-shape of the first stop block facing upwards and the vertical end of the L-shape of the first limit block facing downwards.
3. The automatic feeding device for lithium battery explosion-proof sheets according to claim 2, characterized in that, The material tray has a first groove at each of its two top ends along its length, and a second groove on each of its two top sides along its width. The first hopper mechanism also includes two end limiting seats and two side limiting seats. The end limiting seats are L-shaped, with a first guide block extending downwards from the bottom of the L-shaped horizontal end. The two end limiting seats have their L-shaped vertical ends facing each other, and the first guide blocks of each end limiting seat are slidably arranged within a first groove. A first oval hole is also provided on the L-shaped horizontal end of the end limiting seat. The side limiting seats are L-shaped, with a second guide block extending downwards from the bottom of the L-shaped horizontal end. The two side limiting seats have their L-shaped vertical ends facing each other, and the second guide blocks of each side limiting seat are slidably arranged within a second groove. A second oval hole is also provided on the L-shaped horizontal end of the side limiting seat.
4. The automatic feeding device for lithium battery explosion-proof sheets according to claim 1, characterized in that, The transfer mechanism includes a first linear module, one end of which extends to the lower part of the hopper mounting frame; the first linear module is also connected to a transfer platform, and a first limiting groove is opened at each of the top two ends of the transfer platform; a first mounting hole is also opened in the first limiting groove, and a positioning suction cup is also installed in the first mounting hole; a first air source connector communicating with the positioning suction cup is also installed at one end of the transfer platform.
5. The automatic feeding device for lithium battery explosion-proof sheets according to claim 1, characterized in that, The loading and transfer device includes a transfer fixing frame arranged on one side of the transfer mechanism, and a double-moving linear module installed on the transfer fixing frame; the double-moving linear module is arranged along the length direction of the transfer mechanism, and the two moving parts of the double-moving linear module are respectively connected to a loading and transfer mechanism.
6. The automatic feeding device for lithium battery explosion-proof sheets according to claim 5, characterized in that, The loading and transfer mechanism includes a transfer sliding frame connected to the double-acting linear module, a second linear module mounted on the transfer sliding frame perpendicular to the length direction of the double-acting linear module, and a first Z-axis lifting module connected to the second linear module; the first Z-axis lifting module is also driven and connected to a Z-axis lifting vertical plate, and the bottom of the Z-axis lifting vertical plate is also connected to a Z-axis lifting horizontal plate; the loading and transfer components are also installed on the Z-axis lifting horizontal plate.
7. The automatic feeding device for lithium battery explosion-proof sheets according to claim 6, characterized in that, The loading and transfer assembly includes an R-axis rotary motor mounted vertically on the Z-axis lifting plate, with both ends of the motor shaft passing through the top and bottom of the R-axis rotary motor, respectively; the motor shaft of the R-axis rotary motor has an axially hollow structure, and a first transfer suction cup is installed at the bottom of the motor shaft, while a second air source connector is installed at the top of the motor shaft.
8. The automatic feeding device for lithium battery explosion-proof sheets according to claim 7, characterized in that, The upper part of the motor shaft of the R-axis rotary motor is also equipped with a rotating disk, and the top of the rotating disk is connected to an R-axis sensing plate; one side of the Z-axis lifting vertical plate is also connected to a sensing fixing plate, and the bottom of the sensing fixing plate is also equipped with a U-shaped photoelectric sensor that works in conjunction with the R-axis sensing plate.