Lithium-sulfur battery production assembly structure

Abstract

The utility model relates to a lithium-sulfur battery production assembly structure. Relates to the technical field of lithium-sulfur battery production. The assembly fixing frame is formed by combining rigid materials and provides stable supporting and fixing effects. The combined installation frame is in threaded connection with the assembly fixing frame, an assembly installation area is provided, and space and position are provided for assembly. The assembly clamping head is connected to the combined mounting frame through a telescopic piece, and the movement direction and position can be controlled. The motor is connected to one end of the telescopic piece and used for driving the telescopic piece to move. And the motor drives the bolt or the screw to move, so that the fastening action on the lithium-sulfur battery shell is completed. The battery assembly table is located below the assembly structure, and necessary working space and support are provided for assembly. And the detection structure is positioned on one side above the battery assembly table and is used for carrying out detection action after assembly. And the assembling and positioning tables are arranged in the circumferential direction of the detection structure at equal angles and used for assembling and limiting the lithium-sulfur battery. After the lithium-sulfur battery assembly to be assembled is placed on the assembly positioning table, it is ensured that the position of the assembly is accurate, and a reference point is provided for assembly.

Description

Technical Field

[0001] The utility model relates to the technical field of lithium-sulfur battery production, in particular to a lithium-sulfur battery production assembly structure. Background Art

[0002] The production assembly structure of lithium-sulfur batteries generally includes the following steps and components: Preparation of positive and negative electrodes, preparation of positive electrodes: coating sulfur materials on conductive materials (such as carbon nanotubes) and stacking them with polymer electrolyte layers. Preparation of negative electrodes: coating materials such as lithium metal or graphite on conductive materials and stacking them with polymer electrolyte layers. Electrolyte injection: injecting polymer electrolyte solution or gel between the positive and negative electrodes to form an electrolyte layer, while ensuring that there is a good conductivity channel between the positive and negative electrodes. Coating and packaging: stacking the positive and negative electrodes together, and then coating them with materials such as polymer films or aluminum foil to form the positive and negative electrode structure of the battery. Use heat sealing or pressing methods to encapsulate the positive and negative electrode coatings of the battery in a soft package or hard shell to form a finished battery. Injection and sealing: inject electrolyte solution into the battery casing to ensure that the ion transmission channel between the positive and negative electrodes is unobstructed, and the battery is sealed to prevent electrolyte leakage.

[0003] Existing lithium-sulfur batteries require assembly of upper and lower shells during production and assembly. During assembly, a conveyor belt is often used and assembly is performed during transportation. In this case, since the conveyor belt stops at a position, the emergency stop stability cannot be well guaranteed, and assembly during transportation cannot well guarantee the positioning performance of the lithium-sulfur battery itself, and the stability and flexibility of the overall assembly cannot be fully guaranteed. Utility Model Content

[0004] Purpose of the utility model: to provide a lithium-sulfur battery production assembly structure to solve the above-mentioned problems.

[0005] In order to achieve the above purpose, the utility model provides the following technical solutions:

[0006] A lithium-sulfur battery production assembly structure comprises: an assembly structure for driving bolts or screws to move toward and tighten the lithium-sulfur battery, a battery assembly table located below the assembly structure and providing a workspace required for assembly, a detection structure located on one side above the battery assembly table and used for performing a post-assembly detection action, a plurality of assembly positioning tables arranged at equal angles along the circumference of the detection structure and used for assembling and limiting the lithium-sulfur battery, a lithium-sulfur battery assembly to be assembled is placed on the assembly positioning table, the assembly structure drives the bolts or screws to assemble the lithium-sulfur battery shell, the battery assembly table is rotated at equal angles after assembly, and finally the post-assembly detection action is performed through the detection structure.

[0007] According to one aspect of an embodiment of the present application, the assembly structure includes: an assembly fixing frame composed of rigid materials, a combined mounting frame screwed to the assembly fixing frame and providing a component mounting area, and an assembly clamping head connected to the combined mounting frame via a telescopic member, wherein a motor is provided at one end of the telescopic member connected to the assembly clamping head, and the telescopic movement of the telescopic member drives the assembly holding head to move toward the lithium-sulfur battery to be assembled, and the rotation of the motor drives the bolt or screw to move to perform a tightening action.

[0008] The assembly structure drives the movement of the assembly clamping head through a motor to achieve the tightening action of the lithium-sulfur battery. This design can ensure the accurate installation position of the components and improve production efficiency and assembly quality.

[0009] According to one aspect of the embodiment of the present application, a plurality of assembly clamping heads are provided, and the telescopic degree and rotation angle of a single assembly clamping head are adjustable.

[0010] The assembly process can be controlled more precisely to ensure that the lithium-sulfur battery is installed in the correct position and orientation. This adjustability can improve the adaptability and efficiency of the production line, while also making the equipment more versatile.

[0011] According to one aspect of an embodiment of the present application, the battery assembly station includes: a carrier frame, and a transposition carrier platform connected to the carrier frame via a rotating member to provide an installation position for an assembly positioning platform, wherein the rotation of the transposition carrier platform drives the assembly positioning platform to rotate synchronously, so that the assembly positioning platform moves to the bottom of the assembly structure.

[0012] According to one aspect of an embodiment of the present application, the detection structure includes: an L-shaped extension fixed frame with one end connected to a supporting frame, a displacement sliding frame mounted on an end of the extension fixed frame away from the supporting frame, a height adjustment frame that slides back and forth laterally along the displacement sliding frame, and a scanning camera fixed to one end of the height adjustment frame close to the battery assembly station and used to take pictures of the assembled lithium-sulfur battery.

[0013] The design of the detection structure enables it to accurately scan and detect the assembled lithium-sulfur batteries to ensure that the assembly quality meets the requirements.

[0014] According to one aspect of an embodiment of the present application, the assembly positioning platform includes: a plurality of positioning workbenches arranged at equal angles along the battery assembly platform, a battery placement card rack arranged above the positioning workbench for limiting the lithium-sulfur battery, a telescopic limiting frame located at the edge of the positioning workbench for limiting the special-shaped edge of the lithium-sulfur battery, and an edge limiting frame fixed to the outer edge of the positioning workbench for limiting the edge of the lithium-sulfur battery.

[0015] The assembly positioning table can ensure that the lithium-sulfur battery is accurately positioned and limited during the assembly process, thereby improving the accuracy and efficiency of the assembly.

[0016] Compared with the prior art, the beneficial effects of the utility model are:

[0017] By changing the assembly station during the rotation process, the best assembly effect can be achieved. At the same time, through the combined use of the positioning workbench and multiple limit frames, the lithium-sulfur battery can be accurately positioned, thereby ensuring the accuracy and stability of the assembly process. The design of the telescopic limit frame and the edge limit frame can adapt to lithium-sulfur batteries of different shapes and sizes, thereby improving the flexibility and applicability of the production line. By ensuring that the lithium-sulfur battery maintains the correct position during the assembly process, product quality problems caused by assembly errors can be reduced, the quality and reliability of the product can be improved, and the above-mentioned problems can be solved. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 This is a three-dimensional diagram of the production and assembly structure of the lithium-sulfur battery of the utility model.

[0019] Figure 2 This is a structural schematic diagram of the production and assembly structure of the lithium-sulfur battery of the utility model.

[0020] Figure 3 It is a structural schematic diagram of the assembly positioning platform of the utility model.

[0021] In the figure: assembly structure 1, battery assembly table 2, detection structure 3, assembly positioning table 4, assembly fixing frame 11, combined mounting frame 12, assembly clamping head 13, load-bearing frame 21, transposition load-bearing platform 22, extension fixing frame 31, displacement sliding frame 32, height adjustment frame 33, scanning camera 34, positioning workbench 41, battery placement card frame 42, telescopic limit frame 43, edge limit frame 44. DETAILED DESCRIPTION

[0022] In the following description, a large number of specific details are given to provide a more thorough understanding of the utility model. However, it is obvious to those skilled in the art that the utility model can be implemented without one or more of these details. In other examples, in order to avoid confusion with the utility model, some technical features known in the art are not described.

[0023] The applicant believes that the existing lithium-sulfur batteries need to assemble the upper and lower shells during the production and assembly process. During the assembly work, a conveyor belt is mostly used, and the assembly is carried out during the transportation process. In this case, since the movement stops at a position, the emergency stop stability of the conveyor belt cannot be well guaranteed, and the assembly during the transportation process cannot well guarantee the positioning performance of the lithium-sulfur battery itself, and the stability and flexibility of the overall assembly cannot be fully guaranteed.

[0024] The lithium-sulfur battery production assembly structure 1 involved in the utility model is used in practical applications, such as Figure 1 to Figure 2 As shown, the assembly fixing frame 11 is composed of a combination of rigid materials to provide a stable support and fixing effect. The combined mounting frame 12 is screwed to the assembly fixing frame 11 to provide a component installation area, providing space and position for assembly. The assembly clamping head 13 is connected to the combined mounting frame 12 through a telescopic member, and the movement direction and position can be controlled. The motor is connected to one end of the telescopic member to drive the telescopic member to move. This motor drives the movement of the bolt or screw to complete the tightening action of the lithium-sulfur battery shell. The battery assembly table 2 is located below the assembly structure 1, providing the necessary working space and support for assembly. The detection structure 3 is located on one side above the battery assembly table 2, and is used for post-assembly detection. The assembly positioning table 4 is arranged at equal angles along the circumference of the detection structure 3, and is used to limit the assembly of the lithium-sulfur battery. After the lithium-sulfur battery assembly to be assembled is placed on the assembly positioning table 4, the position of the assembly is ensured to be accurate, and a reference point is provided for assembly.

[0025] In actual use, the lithium-sulfur battery assembly to be assembled is placed on the assembly positioning table 4. The assembly structure 1 assembles the lithium-sulfur battery shell by driving bolts or screws through a motor. After assembly, the battery assembly table 2 rotates at equal angles, which may be to facilitate subsequent operations or inspections. Finally, the inspection structure 3 performs a post-assembly inspection to ensure assembly quality and connection performance.

[0026] The lithium-sulfur battery production assembly structure 1 involved in the utility model is used in practical applications, such as Figure 1 As shown, the assembly structure 1 includes: an assembly fixing frame 11, a combined mounting frame 12 and an assembly clamping head 13. The assembly fixing frame 11 is composed of a combination of rigid materials to provide a stable support and fixing effect. The combined mounting frame 12 is screwed to the assembly fixing frame 11 to provide an installation area for the component and ensure that the position of the component is accurately installed. The assembly clamping head 13 is connected to the combined mounting frame 12 through a telescopic member, and its function is to clamp the lithium-sulfur battery to be assembled, keep it stable and provide motion control. The motor is connected to one end of the telescopic member to drive the telescopic member to move. This motor drives the telescopic member to extend and retract, thereby driving the assembly clamping head 13 to move toward the lithium-sulfur battery to be assembled.

[0027] In the above embodiment, further, the assembly holding head is provided in multiple numbers, and a single assembly clamping head 13 has an adjustable telescopic degree and rotation angle. Such a design can increase flexibility and applicability to meet the assembly requirements of lithium-sulfur batteries of different types or specifications.

[0028] The lithium-sulfur battery production assembly structure 1 involved in the utility model is used in practical applications, such as Figure 1 to Figure 2 As shown, the battery assembly station 2 includes: a carrier frame 21 and a transposition carrier platform 22. The carrier frame 21 is used to carry the main frame structure of the entire battery assembly station 2 and provide stable support. The rotating member connects the carrier frame 21 and the transposition carrier platform 22 to realize the rotation function of the transposition carrier platform 22. The transposition carrier platform 22 is located above the carrier frame 21 and is used to provide an installation position for the assembly positioning platform 4. It is connected to the carrier frame 21 through a rotating member to enable it to have a rotation function.

[0029] The lithium-sulfur battery production assembly structure 1 involved in the utility model is used in practical applications, such as Figure 1 to Figure 2 As shown, the detection structure 3 includes: an extension fixed frame 31, a displacement sliding frame 32, a height adjustment frame 33 and a scanning camera 34. The extension fixed frame 31 is L-shaped, and one end is connected to the support frame 21, providing basic support for the detection structure 3. The displacement sliding frame 32 is mounted on the other end of the extension fixed frame 31, away from the support frame 21. The sliding frame can slide back and forth in the horizontal direction to adjust the position of the detection structure 3 relative to the assembly table. The height adjustment frame 33 is located on the displacement sliding frame 32 and is used to adjust the height of the detection structure 3. This height adjustment frame 33 can ensure that the scanning camera 34 is located in an appropriate position to take pictures of the lithium-sulfur battery after assembly. The scanning camera 34 is fixed at one end of the height adjustment frame 33, close to the battery assembly table 2. This camera is used to take pictures of the assembled lithium-sulfur battery, and is used to detect the assembly quality or record the assembly process.

[0030] The lithium-sulfur battery production assembly structure 1 involved in the utility model is used in practical applications, such as Figure 3As shown, the assembly positioning platform 4 includes: a positioning workbench 41, a battery placement bracket 42, a telescopic limit bracket 43 and an edge limit bracket 44, wherein the positioning workbench 41 is the basis of the assembly positioning platform 4, and a plurality of positioning workbenches 41 are arranged on the assembly positioning platform 4, which are arranged at equal angles along the battery assembly platform 2. These positioning workbenches 41 are used to place lithium-sulfur batteries for subsequent assembly operations. The battery placement bracket 42 is located above the positioning workbench 41 and is used to limit the lithium-sulfur battery. The bracket ensures that the battery is in the correct position and can fix the battery for assembly operations. The telescopic limit bracket 43 is located at the edge of the positioning workbench 41 and is used to limit the special-shaped edges of the lithium-sulfur battery. By telescoping, it can adapt to batteries of different shapes and sizes to ensure that they are correctly positioned and limited during the assembly process. The edge limit bracket 44. It is fixed to the outer edge of the positioning workbench 41 and is used to limit the edge of the lithium-sulfur battery. These limit brackets ensure that the battery remains in the correct position during the assembly process and prevents it from moving or misaligning.

[0031] During actual use, the required lithium-sulfur battery assembly materials are prepared, and the lithium-sulfur battery cells are placed on the battery placement bracket 42 on the positioning workbench 41. The battery placement bracket 42 ensures that the battery is in the correct position and is fixed for subsequent assembly operations. Use the telescopic limit frame 43 and the edge limit frame 44 to limit the lithium-sulfur battery. The telescopic limit frame 43 is used to limit the special-shaped edges of the battery, while the edge limit frame 44 is used to limit the edge of the battery to ensure that the battery remains in the correct position during the assembly process. Then position the bolts or screws through the assembly holding head, and then drive them to move toward the lithium-sulfur battery for assembly.

[0032] It is obvious to those skilled in the art that the present invention is not limited to the details of the exemplary embodiments described above, and that the present invention can be implemented in other specific forms without departing from the spirit or essential features of the present invention. Therefore, the embodiments should be regarded as exemplary and non-restrictive from any point of view, and the scope of the present invention is defined by the appended claims rather than the above description, and it is intended that all changes falling within the meaning and scope of the equivalent elements of the claims be included in the present invention. Any reference numeral in a claim should not be regarded as limiting the claim to which it relates.

Claims

1. Lithium-sulfur battery production assembly structure, characterized in that: include: An assembly structure is used to drive the bolts or screws to move toward the lithium-sulfur battery and tighten the battery; A battery assembly table, located below the assembly structure and providing a working space required for assembly; A detection structure, located on one side above the battery assembly station, for performing a detection action after assembly; An assembly positioning platform is provided with a plurality of equal angles along the circumference of the detection structure, and is used to limit the assembly of the lithium-sulfur battery; The lithium-sulfur battery assembly to be assembled is placed on the assembly positioning table, and the assembly structure drives bolts or screws to assemble the lithium-sulfur battery shell. After assembly, the battery assembly table rotates at equal angles, and finally the detection structure performs a post-assembly detection action.

2. The lithium-sulfur battery production assembly structure according to claim 1, characterized in that: The assembly structure comprises: Assembling a fixed frame, which is composed of rigid materials; A combined mounting frame, screwed to the assembly fixing frame, providing a component mounting area; Assembling the clamping head, connected to the combined mounting frame via a telescopic member; A motor is provided at one end of the telescopic member connected to the assembly clamping head; The extension and retraction of the telescopic member drives the assembly holding head to move toward the lithium-sulfur battery to be assembled, and the rotation of the motor drives the bolt or screw to move for tightening.

3. The lithium-sulfur battery production assembly structure according to claim 2, characterized in that: The assembly clamping heads are provided in plurality, and the telescopic degree and rotation angle of a single assembly clamping head are adjustable.

4. The lithium-sulfur battery production assembly structure according to claim 1, characterized in that: The battery assembly station comprises: Carrying frame; A transposition bearing platform, connected to the bearing frame via a rotating member, for providing an installation position for the assembly positioning platform; The rotation of the transposition bearing platform drives the assembly positioning platform to rotate synchronously, so that the assembly positioning platform moves to the bottom of the assembly structure.

5. The lithium-sulfur battery production assembly structure according to claim 1, characterized in that: The detection structure comprises: The extension fixing frame is L-shaped and one end is connected to the bearing frame; A displacement sliding frame, mounted on an end of the extension fixing frame away from the bearing frame; A height adjustment frame, which slides back and forth laterally along the displacement sliding frame; A scanning camera is fixed to one end of the height adjustment frame close to the battery assembly table and is used to photograph the assembled lithium-sulfur battery.

6. The lithium-sulfur battery production assembly structure according to claim 1, characterized in that: The assembly positioning platform comprises: A positioning workbench is provided with a plurality of them and arranged at equal angles along the battery assembly table; A battery placement bracket is arranged above the positioning workbench and is used to limit the lithium-sulfur battery; A telescopic limiting frame, located at the edge of the positioning workbench, used to limit the special-shaped edge of the lithium-sulfur battery; The edge limiting frame is fixed to the outer edge of the positioning workbench and is used to limit the edge of the lithium-sulfur battery.

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