Storage battery top glue adding assembly

Abstract

A storage battery top glue adding assembly comprises a branching module, a forward double-station glue dripping machine, a transition roller conveying line, a reverse double-station glue dripping machine and a doubling module which are sequentially arranged in the battery conveying direction, and further comprises a hot melt glue cooling module which is erected on the transition roller conveying line. The forward double-station glue dripping machine comprises a rack, a roller conveying line and a glue gun; the number of the roller conveying lines is two, the roller conveying lines are hinged into the rack side by side, and the roller conveying lines can turn over along with the turning-over driving device. The glue gun is fixed with the two-axis linear module through the glue gun angle adjusting device; the two transition roller conveying lines are in one-to-one correspondence with the two roller conveying lines of the forward double-station glue dripping machine; the reverse double-station glue dripping machine and the forward double-station glue dripping machine are the same in structure, and the included angle formed after the roller conveying line on the reverse double-station glue dripping machine is overturned is complementary with the included angle formed after the roller conveying line on the forward double-station glue dripping machine is overturned; and the production efficiency of the lead-acid storage battery is obviously improved.

Description

Technical Field

[0001] This utility model relates to the technical field of battery production equipment, specifically to a battery top adhesive assembly. Background Technology

[0002] Most commercial vehicles currently employ a rear-mounted or stacked battery design. The advantage of this arrangement is that it frees up space for other energy-saving and emission-reduction equipment. However, with rear-mounted or stacked batteries, the vibration acceleration during vehicle operation is significantly higher compared to the original battery installation location. For heavy-duty trucks, the rear-end conditions are even more severe. This can lead to battery failure modes such as broken plate lugs, broken grid bars, and broken busbars, reducing the battery's lifespan.

[0003] The main vibration failure symptom of existing commercial vehicle batteries is the breakage of the lug at the junction of the busbar and the lug under the positive and negative terminals. Current effective solutions involve adding hot melt adhesive to the gap between the busbar and the lug. The adhesive application fixture consists of a frame, a linear motion module, a glue gun, and a battery positioning platform. The linear motion module is mounted on the upper part of the frame; the battery positioning platform is hinged to the lower part of the frame via a battery angle adjustment mechanism; and the glue gun is fixed to the linear motion module via a glue gun angle adjustment mechanism. In practice, the positioning platform angle adjustment lever is manually operated to rotate the platform to the required angle according to the battery length. Then, the battery is manually or by a robotic arm to move it to the positioning platform for adhesive application, followed by static cooling and curing. The battery is then rotated 180° by the robotic arm for adhesive application on the other side. During static cooling and rotation, the glue gun is in a waiting state, severely impacting production efficiency. Furthermore, the battery angle adjustment mechanism is complex and requires manual adjustment to adjust the battery positioning platform to the required angle. There is no device to accelerate the cooling of hot melt adhesive, and natural cooling takes too long. If a robot is used to handle the battery, and speed is required by expanding the workstation, one robot cannot meet the requirements of multiple workstations, while multiple robots require a lot of space and the cost of robots is relatively high. Summary of the Invention

[0004] The purpose of this invention is to overcome the shortcomings of the prior art and provide a top-gluing assembly for a battery, which significantly improves the production efficiency of lead-acid batteries.

[0005] A battery top adhesive-coated assembly, mated to a main assembly conveyor line, includes:

[0006] The splitting module is used to split a single row of batteries into two rows on the main assembly conveyor line at the front end of the dispensing process.

[0007] A forward dual-station dispensing machine, comprising a frame, a roller conveyor line, and a glue gun;

[0008] The roller conveyor consists of two lines, which are hinged side by side within the frame, and each roller conveyor can be rotated by the rotation drive device.

[0009] The glue gun is fixed to the two-axis linear module via a glue gun angle adjustment device;

[0010] The transition roller conveyor line consists of two lines, each corresponding one-to-one with one of the two roller conveyor lines of the forward dual-station dispensing machine.

[0011] A reverse dual-station dispensing machine, wherein the reverse dual-station dispensing machine has the same structure as the forward dual-station dispensing machine, and the included angle after the upper roller conveyor line of the reverse dual-station dispensing machine is flipped is complementary to the included angle after the upper roller conveyor line of the forward dual-station dispensing machine is flipped.

[0012] The parallel module is used to transport the double-row batteries after dispensing to the main assembly conveyor line at the rear end.

[0013] And a hot melt adhesive cooling module, used to cool the hot melt adhesive in the battery compartment after dispensing by the forward / reverse dual-station dispensing machine;

[0014] The splitting module, forward dual-station dispensing machine, transition roller conveyor line, reverse dual-station dispensing machine, and parallel module are arranged sequentially along the battery conveying direction, and the hot melt adhesive cooling module is mounted on the transition roller conveyor line.

[0015] It also includes a glue box, which is connected to the glue gun via a hot melt glue tube.

[0016] Each roller conveyor line on the forward dual-station dispensing machine and the reverse dual-station dispensing machine is equipped with a front baffle, a fixed side baffle, and a flat push plate for positioning the battery.

[0017] The fixed side baffle is set opposite to the flat push plate to restrict the position of the battery from the left and right sides. The flat push plate is mounted on the telescopic rod of the flat push cylinder. The fixed side baffle is located on the side closer to the two adjacent roller conveyor lines.

[0018] The front baffle is located at the lower end of the roller conveyor after it is flipped, and is used to prevent the battery from slipping off after flipping. The front baffle is installed on the top of the lifting cylinder. When the lifting cylinder is raised to the position, the front baffle protrudes from the upper plane of the roller conveyor. When the lifting cylinder is lowered to the position, the front baffle is lower than the upper plane of the roller conveyor.

[0019] The glue gun angle adjustment device includes a glue gun fixing rod and an adjustment frame. The glue gun fixing rod is angle-adjustable and connected to the lower part of the adjustment frame. The upper end of the adjustment frame is fixed to one end platform of the Z-axis linear module of the two-axis linear module.

[0020] The adjustment frame includes an adjustment horizontal plate, one end of which is fixed with a long vertical rod and the other end with a short vertical rod whose horizontal position is adjustable. The glue gun fixing rod is inclinedly fixed between the long vertical rod and the short vertical rod.

[0021] The tilt angle of the glue gun fixing rod is the same as the tilt angle after the roller conveyor line is flipped.

[0022] The two-axis linear module includes a Y-axis linear module and a Z-axis linear module. The Y-axis linear module spans across the two roller conveyor lines, and the Z-axis linear module is assembled on the moving platform of the Y-axis linear module.

[0023] The glue gun consists of multiple glue guns arranged according to the distribution requirements of the solar panel ears, and is mounted and fixed on the glue gun fixing rod of the glue gun angle adjustment device.

[0024] Both the main assembly conveyor line and the transition roller conveyor line have battery guiding devices. The battery guiding device consists of two guide chains with adjustable relative positions. The two guide chains at the battery inlet end open outward in a trumpet shape.

[0025] The main assembly conveyor line, the branch line module, the transition roller conveyor line and the parallel line module are all equipped with baffles at intervals, and the baffles are mounted on the top of the baffle lifting cylinder.

[0026] The hot melt adhesive cooling module includes a robotic arm and a blower head mounted on the top of the robotic arm;

[0027] The robotic arm is mounted at the top center of the support frame;

[0028] There are multiple blower heads, each corresponding to a glue gun. The multiple blower heads are connected to a compressed cold air source via air tubes.

[0029] The splitting module includes a double-row roller conveyor line and a pushing mechanism for pushing batteries.

[0030] The pushing mechanism includes a battery push plate and a pushing cylinder. The battery push plate is mounted on the front end of the telescopic rod of the pushing cylinder. The upper end of the battery push plate protrudes from the upper end of the double-row roller conveyor line. The battery push plate has a notch for the clearance roller.

[0031] The battery push plate has parallel guide columns at both ends. The guide columns are installed in linear bearings fixed on the battery push plate, and the two ends of the guide columns are fixed to the double-row roller conveyor line.

[0032] The parallel module has the same structure as the split module, but the pushing direction of the pushing mechanism on the parallel module is opposite to that on the split module.

[0033] This utility model adopts production connected to the main assembly line, realizing hot melt adhesive filling of the gap between the battery electrode group plates, effectively solving the problems of complex production process, large workload and long time consumption under the traditional operation method, significantly improving the production efficiency of lead-acid batteries; and it occupies less space than the solution of adding a robot, has a wide range of applications and low cost.

[0034] This utility model's glue application device uses one glue gun to apply glue to two stations. While one station is cooling, the other station is in the glue application state, improving the production rhythm. Furthermore, it eliminates the need to handle batteries that have been rotated 180° during production, effectively increasing production efficiency. The device also includes a hot melt adhesive blowing system. The batteries at the two stations of the forward / reverse dual-station glue application machine are alternately glued and then allowed to settle. A hot melt adhesive cooling module alternately blows air onto the batteries settling at all four stations of the forward / reverse dual-station glue application machine, accelerating cooling and reducing battery settling time from 30 seconds to less than 15 seconds, effectively shortening battery settling time and improving efficiency.

[0035] The roller conveyor of this invention can operate in two positions: horizontal transport and flipping for gluing. The flipping drive device can be a pneumatic cylinder or a hydraulic cylinder. It has a simple structure and high flipping efficiency.

[0036] This invention is adaptable to the production of different battery models. While increasing production output, the cost of the equipment remains relatively low. Attached Figure Description

[0037] Figure 1 This is a top view of the present invention;

[0038] Figure 2 This is the front view of the present invention;

[0039] Figure 3 This is a three-dimensional structural diagram of the present invention;

[0040] Figure 4 This is a schematic diagram of the splitter module.

[0041] Figure 5 This is a structural diagram of the pushing mechanism;

[0042] Figure 6 This is a top view of a forward-facing dual-station dispensing machine;

[0043] Figure 7 The three-dimensional structure of the forward dual-station dispensing machine Figure 1 ;

[0044] Figure 8 The three-dimensional structure of the forward dual-station dispensing machine Figure 2 ;

[0045] Figure 9 This is a schematic diagram of a roller conveyor line.

[0046] Figure 10 This is a schematic diagram of the glue gun angle adjustment device.

[0047] Figure 11 This is a schematic diagram of the transition roller conveyor line;

[0048] Figure 12 This is a top view of the transition roller conveyor line;

[0049] Figure 13 This is a schematic diagram of the hot melt adhesive cooling module.

[0050] Figure 14 This is a structural diagram of the blower head;

[0051] Figure 15 This is a schematic diagram of a dual-station dispensing machine;

[0052] Figure 16 This is a schematic diagram of the parallel module. Detailed Implementation

[0053] To make the objectives, technical solutions, and advantages of the embodiments of this utility model clearer, the technical solutions of the embodiments of this utility model will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some, not all, of the embodiments of this utility model. The components of the embodiments of this utility model described and shown in the accompanying drawings can generally be arranged and designed in various different configurations.

[0054] like Figure 1-3 This invention relates to an embodiment of a lead-acid battery for applying adhesive to the top electrode group lugs. It includes a branching module 3, a forward dual-station dispensing machine 4, a transition roller conveyor line 5, a reverse dual-station dispensing machine 7, and a paralleling module 8, arranged sequentially along the battery conveying direction. It also includes a hot melt adhesive cooling module 6 and an adhesive tank 9. The hot melt adhesive cooling module 6 is mounted on the transition roller conveyor line 5 and is used to cool the hot melt adhesive in the battery compartment after dispensing by the forward / reverse dual-station dispensing machines. The adhesive tank 9 is connected to the glue gun 49 on the forward / reverse dual-station dispensing machines via a dispensing pump and a hot melt adhesive pipe.

[0055] like Figure 1-4 As shown, since the batteries on the main assembly conveyor line 2 are supplied from a single line, in order to match the two forward and reverse dual-station dispensing machines of this application, a dividing module 3 is set up to divide the single row of batteries 1 on the main assembly conveyor line 2 at the dispensing front end into a double row. The dividing module 3 includes a double-row roller conveyor line 32 and a pushing mechanism 31 for pushing the batteries 1.

[0056] like Figure 5As shown, the pushing mechanism 31 includes a battery push plate 311 and a pushing cylinder 312. The battery push plate 311 is mounted on the front end of the telescopic rod of the pushing cylinder 312. The upper end of the battery push plate 311 protrudes from the upper end of the double-row roller conveyor line 32. The battery push plate 311 has a notch for the clearance roller. The battery push plate 311 has parallel guide posts 314 at both ends. The guide posts are inserted into linear bearings fixed on the battery push plate 311. The two ends of the guide posts 314 are fixed to the double-row roller conveyor line 32.

[0057] like Figure 6-8 As shown, the forward dual-station dispensing mechanism 4 includes a frame 45, roller conveyor lines 46, and glue guns 49. There are two roller conveyor lines 46, which are hinged side by side in the frame 45. The frame 45 has a flipping drive device 43 for driving the roller conveyor lines 46 to flip. The glue guns 49 are multiple glue guns set according to the distribution requirements of the battery panel ears. The multiple glue guns are fixed to the two-axis linear module via a glue gun angle adjustment device 410. The two-axis linear module includes a Y-axis linear module 48 and a Z-axis linear module 411. The Y-axis linear module 48 spans across the two roller conveyor lines 46. The Z-axis linear module 411 is mounted on the moving platform of the Y-axis linear module 48. The Z-axis linear module 411 can translate with the Y-axis linear module 48 in a direction perpendicular to the battery conveying direction.

[0058] like Figure 9 As shown, each roller conveyor line on the forward dual-station dispensing mechanism 4 is equipped with a front baffle 461, a fixed side baffle 462, and a flat push plate 463 for positioning the battery 1. The front baffle 461 is located on the side with the lower horizontal height after the roller conveyor line is flipped, to prevent the battery 1 from slipping after flipping. The front baffle 461 is mounted on the top of the lifting cylinder 465. When the lifting cylinder 465 is raised to the position, the front baffle 461 protrudes from the upper plane of the roller of the roller conveyor line. When the lifting cylinder 465 is lowered to the position, the front baffle 461 is lower than the upper plane of the roller of the roller conveyor line. The fixed side baffle 462 is located on the side closer to the two adjacent roller conveyor lines. The fixed side baffle 462 is set opposite to the flat push plate 463 to restrict the position of the battery 1 from the left and right sides. The flat push plate 463 is mounted on the telescopic rod of the flat push cylinder 464.

[0059] like Figure 10As shown, the glue gun angle adjustment device 410 includes a glue gun fixing rod 414 for mounting the glue gun 49 and an adjustment frame. The glue gun fixing rod 414 is angle-adjustable and connected to the adjustment frame. The upper end of the adjustment frame is fixed to one end platform of the Z-axis linear module 411 of the two-axis linear module. The adjustment frame can be vertically raised and lowered with the Z-axis linear module 411. The adjustment frame includes an adjustment horizontal plate 415. A long vertical rod 416 is fixed to one end of the adjustment horizontal plate 415, and an elongated hole is provided on the other end. A short vertical rod 417 is installed at the elongated hole, which can be moved along the elongated hole to adjust the assembly position. The distance between the long vertical rod 416 and the short vertical rod 417 can be adjusted according to the length of the battery. The glue gun fixing rod 414 is inclined and fixed between the long vertical rod 416 and the short vertical rod 417. The inclination angle of the glue gun fixing rod 414 is the same as the inclination angle after the roller conveyor line is flipped.

[0060] like Figure 11 , 12 As shown, there are two transition roller conveyor lines 5, which correspond one-to-one with the two roller conveyor lines 46 of the forward dual-station dispensing mechanism 4.

[0061] like Figure 13-14 As shown, the hot melt adhesive cooling module 6 includes a robotic arm 61 and blowers 62 mounted on the lower end of the robotic arm. There are multiple blowers 62, each corresponding to a glue gun 49. The multiple blowers 62 are connected to a compressed cold air source via air pipes. The upper end of the robotic arm 61 is mounted on the top center of the support frame 63. The robotic arm 61 is supported by the support frame 63 above the transition roller conveyor line 5. It can blow air to the four stations of the forward dual-station dispensing machine 4 and the reverse dual-station dispensing machine 7 to accelerate the cooling of the hot melt adhesive in the battery compartment.

[0062] like Figure 15 As shown, the reverse dual-station dispensing mechanism 7 has the same structure as the forward dual-station dispensing mechanism 4. The included angle of the roller conveyor line on the reverse dual-station dispensing mechanism 7 after flipping is complementary to the included angle of the roller conveyor line 46 on the forward dual-station dispensing mechanism 4 after flipping.

[0063] like Figure 16 As shown, after the dispensing is completed, the batteries of the two lines need to be connected in parallel before being sent to the main assembly conveyor line 2 at the rear end. Therefore, a paralleling module 8 is set up. The structure of the paralleling module 8 is the same as that of the splitting module 3. The pushing direction of the pushing mechanism on the paralleling module 8 is opposite to that of the pushing direction of the pushing mechanism on the splitting module 3.

[0064] In another embodiment, such as Figure 1 , 2As shown in Figures 10 and 11, both the main assembly conveyor line 2 and the transition roller conveyor line 5 are equipped with battery guiding devices 12. Each battery guiding device 12 consists of two guide chains with adjustable relative positions. The two guide chains at the battery inlet end open outward in a trumpet shape. The opposite sides of the two guide chains are composed of parallel rollers made of rubber to avoid damaging the battery. The guide chains are mounted on the top of the crossbar, and the rear end of the crossbar passes through the top of the vertical plate. The lower end of the vertical plate is fixed to the conveyor frame. The vertical plate is provided with a threaded countersunk hole, which communicates with the through hole through the crossbar. A screw is installed in the threaded countersunk hole to hold the top of the crossbar against it and prevent the crossbar from shifting.

[0065] In another embodiment, a PLC controller is also included, such as Figure 1 , 2 As shown, each row of roller conveyors 32 in the main assembly conveyor line 2, each row of roller conveyors 5 in the branching module 3, and each row of roller conveyors in the paralleling module 8 are divided into multiple battery positions by baffle plates 11. The baffle plates 11 are mounted on the top of the baffle lifting cylinder. When the baffle lifting cylinder extends to its position, the baffle plate 11 protrudes above the upper surface of the roller conveyor line; when the baffle lifting cylinder retracts to its position, the baffle plate 11 is below the upper surface of the roller conveyor line. Each battery position has a photoelectric switch for sensing the battery. The PLC controller controls the baffle lifting cylinder to operate after detecting the photoelectric switch, preventing batteries from colliding. The forward / reverse dual-station dispensing machine has photoelectric switches for sensing batteries. After determining the battery position based on these photoelectric switches, the PLC controller controls the motors, cylinders, robotic arms, and linear modules on the branching module 3, the forward dual-station dispensing machine 4, the transition roller conveyor line 5, the hot melt adhesive cooling module 6, the reverse dual-station dispensing machine 7, and the parallel module 8. It also controls the dispensing pump to dispense adhesive and opens the solenoid valve on the air pipe to blow air. Controlling the cylinders, motors, robotic arms, solenoid valves, linear modules, and pumps via signals collected by the PLC controller is existing technology and not the inventive point of this application; therefore, this embodiment will not elaborate further.

[0066] The above description is only a preferred embodiment of the present utility model and is not intended to limit the present utility model. Any modifications, equivalent substitutions, improvements, etc., 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. A battery top adhesive-coated assembly, connected to the main assembly conveyor line (2), characterized in that: include: The splitting module (3) is used to split the single row of batteries (1) on the dispensing front end main assembly conveyor line (2) into two rows; A forward dual-station dispensing machine (4) includes a frame (45), a roller conveyor line (46), and a glue gun (49); The roller conveyor lines (46) are two in number and are hinged side by side in the frame (45). Each roller conveyor line (46) can be flipped by the flipping drive device (43). The glue gun (49) is fixed to the two-axis linear module via the glue gun angle adjustment device (410); Transition roller conveyor (5), there are two transition roller conveyor lines (5) and they correspond one-to-one with the two roller conveyor lines (46) of the forward dual-station dispensing machine (4); The reverse dual-station dispensing machine (7) has the same structure as the forward dual-station dispensing machine (4). The included angle of the roller conveyor line on the reverse dual-station dispensing machine (7) after flipping is complementary to the included angle of the roller conveyor line (46) on the forward dual-station dispensing machine (4). The parallel module (8) is used to parallelize the double-row batteries (1) after dispensing and transport them to the rear main assembly conveyor line (2). And a hot melt adhesive cooling module (6) for cooling the hot melt adhesive in the battery compartment after dispensing by the forward / reverse dual-station dispensing machine; The splitting module (3), the forward dual-station dispensing machine (4), the transition roller conveyor line (5), the reverse dual-station dispensing machine (7), and the parallel module (8) are arranged sequentially along the battery conveying direction, and the hot melt adhesive cooling module (6) is mounted on the transition roller conveyor line (5).

2. The battery top adhesive-coated assembly according to claim 1, characterized in that: It also includes a glue box (9), which is connected to a glue gun (49) via a hot melt glue tube.

3. A battery top adhesive-coated assembly according to claim 1 or 2, characterized in that: Each roller conveyor line on the forward dual-station dispensing machine (4) and the reverse dual-station dispensing machine (7) is equipped with a front baffle (461), a fixed side baffle (462) and a flat push plate (463) for positioning the battery (1); The fixed side baffle (462) is arranged opposite to the flat push plate (463) to limit the position of the battery (1) from the left and right sides. The flat push plate (463) is mounted on the telescopic rod of the flat push cylinder (464). The fixed side baffle (462) is located on the side closer to the two adjacent roller conveyor lines. The front baffle (461) is located at the lower end of the roller conveyor after it is flipped, and is used to prevent the battery (1) from slipping after flipping. The front baffle (461) is mounted on the top of the lifting cylinder (465). When the lifting cylinder (465) is raised to the position, the front baffle (461) protrudes from the upper plane of the roller conveyor. When the lifting cylinder (465) is lowered to the position, the front baffle (461) is lower than the upper plane of the roller conveyor.

4. A battery top adhesive-coated assembly according to claim 1 or 2, characterized in that: The glue gun angle adjustment device (410) includes a glue gun fixing rod (414) and an adjustment frame. The glue gun fixing rod (414) is angle-adjustable and connected to the lower part of the adjustment frame. The upper end of the adjustment frame is fixed to one end platform of the Z-axis linear module (411) of the two-axis linear module. The adjustment frame includes an adjustment horizontal plate (415), one end of which is fixed with a long vertical rod (416) and the other end has a short vertical rod (417) with an adjustable horizontal position. The glue gun fixing rod (414) is inclinedly fixed between the long vertical rod (416) and the short vertical rod (417). The tilt angle of the glue gun fixing rod (414) is the same as the tilt angle after the roller conveyor line is flipped.

5. The battery top adhesive-coated assembly according to claim 4, characterized in that: The two-axis linear module includes a Y-axis linear module (48) and a Z-axis linear module (411). The Y-axis linear module (48) spans across two roller conveyor lines (46), and the Z-axis linear module (411) is mounted on the moving platform of the Y-axis linear module (48).

6. A battery top adhesive-coated assembly according to any one of claims 1, 2, and 5, characterized in that: The glue gun (49) consists of multiple glue guns arranged according to the distribution requirements of the battery panel ears, and is installed and fixed on the glue gun fixing rod (414) of the glue gun angle adjustment device (410).

7. The battery top adhesive assembly according to claim 1, characterized in that: Both the main assembly conveyor line (2) and the transition roller conveyor line (5) have battery guiding devices (12). The battery guiding device (12) consists of two guide chains with adjustable relative positions. The two guide chains at the battery inlet end open outward in a trumpet shape. The main assembly conveyor line (2), the branch line module (3), the transition roller conveyor line (5) and the parallel line module (8) are all equipped with baffle plates (11) at intervals. The baffle plates (11) are installed on the top of the baffle lifting cylinder.

8. The battery top adhesive-coated assembly according to claim 1, characterized in that: The hot melt adhesive cooling module (6) includes a robotic arm (61) and a blower head (62) mounted on the top of the robotic arm; The robotic arm (61) is mounted at the top center of the support frame (63); There are multiple blower heads (62), each corresponding to a glue gun (49). The multiple blower heads (62) are connected to a compressed cold air source via air pipes.

9. The battery top adhesive-coated assembly according to claim 1, characterized in that: The splitting module (3) includes a double-row roller conveyor line (32) and a pushing mechanism (31) for pushing the battery (1); The pushing mechanism (31) includes a battery push plate (311) and a pushing cylinder (312). The battery push plate (311) is mounted on the front end of the telescopic rod of the pushing cylinder (312). The upper end of the battery push plate (311) protrudes from the upper end of the double-row roller conveyor line (32). The battery push plate (311) has a notch (313) for the clearance roller. The battery push plate (311) has parallel guide posts (314) at both ends. The guide posts are installed in linear bearings fixed on the battery push plate (311). The two ends of the guide posts (314) are fixed to the double-row roller conveyor line (32).

10. A battery top adhesive-coated assembly according to claim 1 or 9, characterized in that: The structure of the parallel module (8) is the same as that of the split module (3), but the pushing direction of the pushing mechanism on the parallel module (8) is opposite to that of the pushing direction of the pushing mechanism on the split module (3).

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