Positive and negative plate lamination device
By combining the sheet conveying assembly, cluster housing device, clamping and handling assembly and flipping plate assembly, the problem of scattering of partition paper is solved, and the production efficiency and yield of the stacking device are improved.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-03-27
- Publication Date
- 2026-03-27
AI Technical Summary
Existing stacking devices are prone to causing the separator paper to scatter during the production process, resulting in a low yield rate.
The design employs a combination of sheet conveying components, cluster housing devices, clamping and handling components, flipping plate components, and negative electrode plate insertion components. Through the synergistic action of the push block, limiting teeth, and clamping plates, the separator paper is effectively constrained during the stacking process, preventing it from scattering.
This achieves good constraint on the partition paper during the stacking process, improves the stacking effect, and increases the production yield.
Smart Images

Figure CN224053163U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The utility model relates to a kind of pole piece assembling equipment, in particular to a kind of positive and negative plate laminating device. BACKGROUND
[0002] In the current battery production process, one process is to assemble positive pole piece, negative pole piece and separator paper into pole group, and the separator paper is sandwiched between the positive pole piece and the negative pole piece, so it is commonly called "packing piece" or "packing plate" process in the industry. The traditional "packing piece" process is mainly operated by hand. The operator first takes a piece of negative pole piece, sandwiches the positive pole piece with the cut separator paper on both sides and stacks it on the negative pole piece, ensuring that there is separator paper between each set of positive and negative pole pieces. The above operation is repeated to complete the entire packing piece and assembly. Not only is the efficiency low, but the quality of the packed pieces is also not high, and the lead dust falling from the pole pieces can also affect the health of the operators. In order to improve production efficiency, yield and protect the health of workers, existing battery manufacturers have developed packing equipment for sandwiching separator paper and pole pieces, and laminating devices for stacking packed pieces and pole pieces into pole groups. However, the existing laminating device is prone to separator paper scattering during production, resulting in low production yield. SUMMARY
[0003] The utility model provides a kind of positive and negative plate laminating device;Solve the problem that laminating device is prone to separator paper scattering in the prior art during production.
[0004] The above technical problems of the utility model are mainly solved by the following technical scheme: a kind of positive and negative plate laminating device, comprising:
[0005] The packing piece conveying assembly is composed of a packing piece guide rail, a chain belt, and a plurality of push blocks arranged at equal intervals on the chain belt. The packing piece guide rail is composed of a first bottom plate and two first side plates. The first bottom plate is provided with a sliding groove for accommodating the movement of the push blocks.
[0006] The cluster body receiving device is composed of a second bottom plate and two second side plates. The second bottom plate is higher than the first bottom plate and located behind the first bottom plate. The two second side plates and the two first side plates are coplanar, and a transition side plate is connected between them. The front end of the second side plate is also provided with a limiting top plate, and the front end of the second bottom plate is provided with a avoiding slot.
[0007] The clamping and carrying assembly is composed of a first servo sliding table, a second servo sliding table, a front clamping piece, and a rear clamping piece. The two servo sliding tables are fixed horizontally above the cluster body receiving device in the same direction. The front clamping piece is provided with two vertical downward spaced clamping strips. The clamping strips and the rear clamping piece can be moved into the cluster body receiving device.
[0008] The turnover plate assembly is composed of a turnover plate and a turnover cylinder, the turnover plate is provided with a limiting tooth, the turnover plate is provided with a slot, the turnover cylinder can drive the turnover plate to turn over to a horizontal state and butt joint with the rear end of the first bottom plate, and the turnover cylinder can also drive the turnover plate to turn over to a vertical state and make the limiting tooth be clamped into the avoiding slot, the clamping strips on the front clamping piece can pass through the slot;
[0009] The negative plate insertion assembly is composed of a first cylinder, a negative insertion rail, a second cylinder and a negative abutting block, the two cylinders are fixed oppositely to the outer sides of the two second side plates, the negative insertion rail is composed of two third side plates and a third bottom plate, the front end of the negative abutting block is provided with a insertion slot, the front ends of the two second side plates are provided with two insertion entrances which are opposite leftward and rightward, the first cylinder can push the negative insertion rail to insert from the corresponding insertion entrance, and the second cylinder can push the negative abutting block to insert from the corresponding insertion entrance.
[0010] The working principle of the utility model is as follows: the first cylinder and the second cylinder push the negative insertion rail and the negative abutting block to move towards the inside of the cluster body storage device, then the negative plate is sent into the cluster body storage device along the negative insertion rail under the pushing of the loading equipment and is inserted into the insertion slot, and the width of the negative plate is slightly smaller than the interval between the two second side plates; at the same time, the sheet produced by the sheet clamping equipment is sent into the sheet conveying assembly in a fixed direction, the pushing block moves backward along the sliding groove synchronously with the chain belt, simultaneously pushes the sheet on the first bottom plate backward, until the sheet is pushed onto the turnover plate, then the turnover plate is turned upward under the action of the turnover cylinder, in the turning process, the sheet can not abut against the limiting tooth, but in the turning process, the upper side of the sheet is pushed to abut against the limiting tooth after contacting the limiting top plate, when the turnover plate is completely vertical, the limiting tooth is clamped into the avoiding slot, at this time, the negative insertion rail and the negative abutting block are in the state of intruding into the inner wall of the second side plate, therefore the sheet on the turnover plate is clamped between the turnover plate and the negative insertion rail and the negative abutting block, at this time, the front clamping piece is located at the most front end, and the rear clamping piece is located at the rear of the negative insertion rail and the negative abutting block, then the first servo sliding table drives the front clamping piece to move backward, and the two cylinders also push the negative insertion rail and the negative abutting block to move outward, so that the negative insertion rail and the negative abutting block no longer intrude into the inner wall of the second side plate, after the two clamping strips on the front clamping piece pass through the two slots on the turnover plate, the sheet and the negative plate are pushed to move to the rear clamping piece, and the rear clamping piece also retreats by a distance which is equal to the total thickness of the sheet and the negative plate, when the sheet and the negative plate are clamped by the front clamping piece and the rear clamping piece, the negative insertion rail and the negative abutting block are reset to the intrusion state under the action of the two cylinders, and the turnover plate and the front clamping piece are also reset successively, so the above steps are repeated continuously, when the stacked clusters in the cluster body storage device reach the agreed number, the front clamping piece and the rear clamping piece move backward synchronously, and push the clusters to move backward to the unloading position.
[0011] Therefore, the utility model has the following characteristics compared with prior art: 1. The sheet is well constrained in the process of lamination, and the problem of the spacer paper scattering does not appear, and in the process of lamination, the cluster body is constrained in the cluster body containing device, so that the stacking effect of the cluster body is better. BRIEF DESCRIPTION OF DRAWINGS
[0012] BRIEF DESCRIPTION OF DRAWINGS Figure 1 It is a structural schematic view of the utility model;
[0013] BRIEF DESCRIPTION OF DRAWINGS Figure 2 It is the front view of sheet conveying assembly;
[0014] BRIEF DESCRIPTION OF DRAWINGS Figure 3 It is the structural schematic view of turnover plate;
[0015] BRIEF DESCRIPTION OF DRAWINGS Figure 4 It is the action drawing of negative plate insertion assembly and clamping and carrying assembly;
[0016] BRIEF DESCRIPTION OF DRAWINGS Figure 5 It is the structural schematic view of the rear end of second bottom plate. DETAILED DESCRIPTION
[0017] The technical scheme of the utility model will be further specifically explained below by examples and in connection with the drawings.
[0018] In the description of the utility model, it is understood that the orientation or position relation indicated by the terms "center", "longitudinal", "transverse", "length", "width", "thickness", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", "clockwise", "counterclockwise" and the like is the orientation or position relation shown in the drawings, and is only for the convenience of describing the utility model and simplifying the description, and does not indicate or imply that the indicated device or element must have a particular orientation, be constructed and operated in a particular orientation, and therefore cannot be understood as a limitation on the utility model.
[0019] Example 1: see Figure 1 A positive and negative plate lamination device, comprising:
[0020] see Figure 2 Sheet conveying assembly 100 is composed of sheet guide rail 110, chain belt 120 and propulsion block 130 arranged at equal intervals on the chain belt, and mounting seat 121 is fixed on the chain belt at equal intervals, two propulsion blocks are fixed on the mounting seat, the sheet guide rail is composed of first bottom plate 111 and two first side plates 112, and the first bottom plate is provided with sliding groove 113 for accommodating the movement of the propulsion block;
[0021] The cluster body receiving device 200 is composed of a second bottom plate 210 and two second side plates 220. The second bottom plate is higher than the first bottom plate and located behind the first bottom plate. The two second side plates are coplanar with the two first side plates, and a transition side plate 230 is connected between them. A limiting top plate 240 is arranged on the upper side of the front end of the two second side plates, and an avoidance slot 211 is arranged at the front end of the second bottom plate.
[0022] The clamping and carrying assembly 300 is composed of a first servo sliding table 310, a second servo sliding table 320, a front clamping piece 330, and a rear clamping piece 340. The two servo sliding tables are fixed horizontally in the same direction above the cluster body receiving device. The front clamping piece is provided with two vertically downward spaced clamping strips 331. The clamping strips and the rear clamping piece can be moved into the cluster body receiving device.
[0023] See Figure 3 The turnover plate assembly 400 is composed of a turnover plate 410 and a turnover cylinder 420. The turnover plate is provided with a limiting tooth 411 and a slotted hole 412. The turnover cylinder can drive the turnover plate to turn to a horizontal state and butt against the rear end of the first bottom plate, and also can drive the turnover plate to turn to a vertical state and make the limiting tooth enter the avoidance slot. The clamping strips on the front clamping piece can pass through the slotted hole.
[0024] The negative plate insertion assembly 500 is composed of a first cylinder 510, a negative insertion rail 520, a second cylinder 530, and a negative abutting block 540. The two cylinders are fixed oppositely outside the two second side plates. The negative insertion rail is composed of two third side plates 521 and a third bottom plate 522. The front end of the negative abutting block is provided with an insertion slot 541. The front end of the two second side plates is provided with two left-right opposite insertion openings 221. The first cylinder can push the negative insertion rail to insert from the corresponding insertion opening, and the second cylinder can push the negative abutting block to insert from the corresponding insertion opening.
[0025] See Figure 4The working principle of the embodiment is as follows: the first cylinder and the second cylinder drive the negative electrode insertion rail and the negative electrode abutting block to move towards the inside of the cluster storage device, then the negative plate 1 is sent into the cluster storage device along the negative electrode insertion rail under the pushing of the feeding equipment, and is inserted into the insertion slot, and the width of the negative plate is slightly smaller than the interval between the two second side plates; at the same time, the jelly piece 2 produced by the jelly piece packaging equipment is sent into the jelly piece conveying assembly in a fixed direction, the pushing block moves backward along the sliding groove synchronously with the chain belt, and pushes the jelly piece on the first bottom plate backward, until the jelly piece is pushed onto the turnover plate, then the turnover plate is turned upward under the action of the turnover cylinder, in the process of turning over, the jelly piece may not abut against the limiting tooth, but in the process of turning over, the upper side of the jelly piece is pushed to abut against the limiting tooth after contacting the limiting top plate, when the turnover plate is completely vertical, the limiting tooth is clamped into the avoiding slot, at this time, the negative electrode insertion rail and the negative electrode abutting block are in the state of intruding into the inner wall of the second side plate, so that the jelly piece on the turnover plate is clamped between the turnover plate and the negative electrode insertion rail and the negative electrode abutting block, at this time, the front clamping piece is located at the front end, and the rear clamping piece is located behind the negative electrode insertion rail and the negative electrode abutting block, then the first servo sliding table drives the front clamping piece to move backward, and the two cylinders also drive the negative electrode insertion rail and the negative electrode abutting block to move outward, so that the negative electrode insertion rail and the negative electrode abutting block no longer intrude into the inner wall of the second side plate, after the two clamping strips on the front clamping piece pass through the two slots on the turnover plate, the clamping strips push the jelly piece and the negative plate to move to the rear clamping piece, and the rear clamping piece also retreats by a distance, and the distance is approximately equal to the total thickness of the jelly piece and the negative plate, when the jelly piece and the negative plate are clamped by the front clamping piece and the rear clamping piece, the negative electrode insertion rail and the negative electrode abutting block are reset to the intrusion state under the action of the two cylinders, and the turnover plate and the front clamping piece are also reset in turn, so the above process is repeated continuously. When the number of the stacked clusters 3 in the cluster storage device reaches the predetermined number, the front clamping piece and the rear clamping piece move backward synchronously, and push the clusters to move backward to the unloading position.
[0026] Specifically, the outer end of the two third side plates is provided with an expanded port. The structure of the expanded port has a guiding effect, which reduces the precision requirement of the feeding equipment for feeding the negative plate.
[0027] Specifically, the distance between the turnover plate and the limiting tooth is not longer than the length of the positive plate.
[0028] Specifically, see Figure 5 The second bottom plate is provided with a rear extension, one side of the rear end of the second bottom plate is provided with an unloading slot 600, and the other side of the rear end of the second bottom plate is provided with a pushing cylinder 610 and a pushing plate 620. When the cluster to be unloaded is carried by the clamping and carrying assembly to the rear end of the second bottom plate, the pushing cylinder can push the pushing plate to push the cluster into the unloading slot.
[0029] It will be apparent to those skilled in the art that modifications can be made to the embodiments described above without departing from the scope of the present application. All such modifications are intended to be included within the scope of the present application.
Claims
1. A positive and negative electrode plate lamination device characterized by comprising: include: The sheet conveying assembly consists of a sheet guide rail, a chain belt, and push blocks evenly spaced on the chain belt. The sheet guide rail is composed of a first base plate and two first side plates. The first base plate is provided with a groove to accommodate the movement of the push blocks. The cluster containment device consists of a second base plate and two second side plates. The second base plate is higher than the first base plate and located behind the first base plate. The two second side plates and the two first side plates are coplanar and connected by a transition side plate. A limiting top plate is also provided on the upper front side of the two second side plates, and an avoidance groove is provided on the front front of the second base plate. The clamping and transporting assembly consists of a first servo slide, a second servo slide, a front clamping plate, and a rear clamping plate. The two servo slides are fixed horizontally in the same direction above the cluster housing device. The front clamping plate is provided with two vertically downward-facing clamping bars spaced apart. Both the clamping bars and the rear clamping plate can be moved into the cluster housing device. The flip plate assembly consists of a flip plate and a flip cylinder. The flip plate is provided with limiting teeth and a slot. The flip plate can drive the flip plate to flip to a horizontal state and dock with the rear end of the first base plate. It can also drive the flip plate to flip to a vertical state and make the limiting teeth engage with the clearance slot. The clamping strip on the front clamping piece can pass through the slot. The negative electrode plate insertion assembly consists of a first cylinder, a negative electrode insertion rail, a second cylinder, and a negative electrode abutment block. The two cylinders are fixed to the outer sides of the two second side plates. The negative electrode insertion rail consists of two third side plates and a third bottom plate. The front end of the negative electrode abutment block is provided with a slot. The front ends of the two second side plates are provided with two insertion ports facing each other. The first cylinder can push the negative electrode insertion rail to be inserted from the corresponding insertion port, and the second cylinder can push the negative electrode abutment block to be inserted from the corresponding insertion port.
2. The positive and negative electrode plate lamination device according to claim 1, characterized by: The outermost end of the third side plate described above is flared.
3. The positive and negative plate lamination device according to claim 1, characterized by: The distance between the flip plate and the limiting tooth is no longer than the length of the positive electrode plate.
4. The positive and negative plate lamination device according to claim 1, characterized by: The second base plate extends rearward, with a material feeding trough on one side of the rear end of the second base plate and a material pushing cylinder and a material pushing plate on the other side of the rear end of the second base plate.