Sodium ion cell extruding and stacking operation table

Abstract

The utility model relates to the technical field of battery production equipment, in particular to a sodium ion cell extruding and stacking operation table which comprises an operation platform, and a clamping mechanism is arranged on the operation platform. The clamping mechanism comprises a clamping plate and a push rod correspondingly matched with the clamping plate, and the push rod is arranged on the moving assembly; the moving assembly comprises a horizontally-arranged lead screw, one end of the lead screw is connected with a forward and reverse rotation motor, the lead screw is in threaded fit with a sliding block, the top of the sliding block is fixedly connected with a supporting plate, the push rod is arranged on the supporting plate, and the bottoms of the supporting plates on the two sides of the sliding block are connected with guide blocks through connecting blocks correspondingly. Guide sliding rails are arranged on the operation platform corresponding to the two guide blocks, and the guide blocks are arranged on the corresponding guide sliding rails in a sliding mode. According to the utility model, the battery cell can be efficiently and stably extruded and clamped, the positions of the clamping plate and the push rod in the vertical direction can be flexibly adjusted, and the battery cells with different sizes can be efficiently clamped; and the uniformity and the standard degree of battery cell stacking are improved, and the stacking efficiency of the battery cells is improved.

Description

Technical Field

[0001] This utility model belongs to the technical field of battery production equipment, specifically relating to a sodium-ion cell extrusion and stacking operation table. Background Technology

[0002] Power batteries, such as sodium-ion batteries, require assembly during production. Assembly lines include cell stacking devices. Currently, the stacking and packaging of sodium-ion battery cells is primarily done manually. Manual stacking suffers from problems such as non-standard operation, uneven stacking, which can cause problems for subsequent assembly and has low efficiency. Therefore, a sodium-ion cell extrusion stacking operation table is needed to solve these technical problems. Utility Model Content

[0003] To address the aforementioned deficiencies in the existing technology, this utility model provides a sodium-ion battery cell extrusion and stacking operation table, including an operation platform, on which a clamping mechanism is provided; the clamping mechanism includes a clamping plate and a push rod corresponding to and cooperating with the clamping plate, the push rod being disposed on a moving component;

[0004] The moving component includes a horizontally arranged lead screw, one end of which is connected to a forward and reverse motor. A slider is threaded onto the lead screw, and a support plate is fixedly connected to the top of the slider. A push rod is mounted on the support plate. Guide blocks are connected to the bottom of the support plates on both sides of the slider via connecting blocks. Guide rails are provided on the operating platforms corresponding to the two guide blocks, and the guide blocks are slidably mounted on the corresponding guide rails.

[0005] The operating platform between the clamping plate and the push rod is provided with multiple operating holes and multiple elongated through slots.

[0006] The cells to be stacked are placed on the operating platform, and the push rod moves towards the clamping plate to hold the cells in place, keeping them in a stable state. This facilitates efficient compression and stacking operations, improving the neatness and standardization of the stacking.

[0007] Preferably, the clamping plate is connected to a fixed plate via a horizontal telescopic rod, and the fixed plate is fixedly connected to a mounting base, which is then fixedly connected to the operating platform via fixing bolts. The horizontal telescopic mechanism can be an electric push rod or a hydraulic cylinder.

[0008] Preferably, a mounting plate is fixedly connected to the fixed end of the horizontal telescopic rod. The mounting plate and the fixed plate are detachably connected by positioning bolts. The fixed plate has multiple mounting holes along its length that match the positioning bolts. This design allows for flexible adjustment of the height of the fixed plate as needed, further improving clamping stability.

[0009] Preferably, the support plate has two corresponding guide plates fixedly arranged, each with a vertical guide groove. A lifting plate is located between the two guide plates. The push rod is fixedly connected to the lifting plate. Both sides of the lifting plate are connected to guide rods that mate with the guide grooves on the corresponding guide plates. One end of each guide rod passes through the guide groove and is threaded with a locking nut. Through the interaction between the guide grooves and guide rods on the guide plates, the lifting plate can move up and down, and the locking nut prevents the lifting platform from descending.

[0010] Preferably, the bottom of the lifting platform is connected to a vertical telescopic rod, and the operating platform corresponding to the vertical telescopic rod has a rectangular through hole parallel to the lead screw. The lower end of the vertical telescopic rod is fixedly connected to the support plate and passes through the rectangular through hole. The extension and retraction of the vertical telescopic rod drives the lifting platform to move up and down, making the movement of the lifting platform more stable and efficient. The vertical telescopic rod can be an electric push rod or a hydraulic cylinder. The rectangular through hole allows the vertical telescopic rod to move along the lead screw with the support plate.

[0011] Preferably, the surfaces of the clamping plate and the push rod facing each other are covered with circular through holes.

[0012] Working principle: The battery cells to be stacked are placed on the operating platform. The push rod moves towards the clamping plate to hold the battery cells in place, maintaining their stability and facilitating efficient compression stacking operations, thus improving the neatness and standardization of the stacking. During the above operation, the forward and reverse rotation of the motor causes the slider to drive the push rod to move back and forth along the lead screw, flexibly adjusting the distance between the clamping plate and the push rod to ensure stable clamping. The clamping plate and push rod can move up and down, allowing for reasonable adjustment of the clamping center according to the battery cells, making the clamping even more stable.

[0013] This invention also includes other components that enable the sodium-ion battery cell extrusion and stacking operation table to function normally, such as control components for the forward and reverse motors, which are all conventional technologies in the field. Furthermore, devices or components not specified in this invention, such as locking nuts, all employ conventional technologies and equipment in the field.

[0014] The beneficial effects of this utility model are: the clamping plate and push rod can efficiently and stably squeeze and hold the battery cell; the vertical position of the clamping plate and push rod can be flexibly adjusted, the clamping stability is high, and it can efficiently clamp battery cells of different sizes; the stable clamping improves the neatness and standardization of battery cell stacking, and improves the stacking efficiency of battery cells. Attached Figure Description

[0015] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0016] Figure 1 This is a three-dimensional structural diagram of the sodium-ion battery cell extrusion and stacking operation table in an embodiment of this utility model;

[0017] Figure 2 for Figure 1 Top view;

[0018] Figure 3 for Figure 1 Right view of the middle panel.

[0019] In the diagram: 1. Operating platform; 2. Mounting base; 3. Fixing plate; 4. Horizontal telescopic rod; 5. Clamping plate; 6. Push rod; 7. Guide rail; 8. Lead screw; 9. Guide plate; 10. Guide slot; 11. Locking nut; 12. Guide block; 13. Slider; 14. Connecting block; 15. Support plate; 16. Forward and reverse motor; 17. Long strip slot; 18. Operating hole; 19. Rectangular through hole; 20. Lifting plate; 21. Vertical telescopic rod; 22. Circular through hole. Detailed Implementation

[0020] The present invention will now be clearly described with reference to the accompanying drawings and specific embodiments. This description is merely for explaining the present invention and is not intended to limit it. Any modifications, equivalent substitutions, improvements, etc., made by those skilled in the art based on the embodiments of the present invention without inventive effort to obtain all other embodiments should be included within the protection scope of the present invention.

[0021] Example

[0022] like Figure 1-3 As shown, this utility model provides a sodium-ion battery cell extrusion and stacking operation table, including an operation platform 1, on which a clamping mechanism is provided; the clamping mechanism includes a clamping plate 5 and a push rod 6 corresponding to the clamping plate 5, and the push rod 6 is disposed on a moving component;

[0023] The moving component includes a horizontally arranged lead screw 8, one end of which is connected to a forward and reverse motor 16. A slider 13 is threaded onto the lead screw 8. A support plate 15 is fixedly connected to the top of the slider 13. A push rod 6 is mounted on the support plate 15. Guide blocks 12 are connected to the bottom of the support plates on both sides of the slider 13 via connecting blocks 14. Guide rails 7 are provided on the operating platform 1 corresponding to the two guide blocks 12. The guide blocks 12 are slidably mounted on the corresponding guide rails 7.

[0024] The operating platform 1 between the clamping plate 5 and the push rod 6 is provided with multiple operating holes 18 and multiple elongated through slots 17. The battery cell can be plugged in and tested through the operating holes and elongated through slots.

[0025] The cells to be stacked are placed on the operating platform 1, and the push rod 6 moves towards the clamping plate 5 to hold the cells in place. The cells are kept in a stable state, which facilitates efficient compression and stacking operations and improves the neatness and standardization of the stacking.

[0026] The clamping plate 5 is connected to a fixing plate 3 via a horizontal telescopic rod 4. The fixing plate 3 is fixedly connected to a mounting base 2, which is fixedly connected to the operating platform 1 via fixing bolts. The horizontal telescopic mechanism can be an electric push rod 6 or a hydraulic cylinder.

[0027] The fixed end of the horizontal telescopic rod 4 is fixedly connected to a mounting plate. The mounting plate and the fixed plate 3 are detachably connected by positioning bolts. The fixed plate 3 has multiple mounting holes along its length that match the positioning bolts. This design allows for flexible adjustment of the height of the fixed plate 3 as needed, further improving clamping stability.

[0028] Two corresponding guide plates 9 are fixed on the support plate 15. Each guide plate 9 has a vertical guide groove 10. A lifting plate 20 is located between the two guide plates 9. The push rod 6 is fixedly connected to the lifting plate 20. Guide rods that mate with the guide grooves 10 on the corresponding guide plates 9 are connected to both sides of the lifting plate 20. One end of each guide rod passes through the guide groove 10 and is threaded with a locking nut 11. Through the interaction between the guide grooves 10 and the guide rods on the guide plates 9, the lifting plate 20 can move up and down, and is locked in place by the locking nut 11 to prevent the lifting platform from descending.

[0029] The bottom of the lifting platform 20 is connected to a vertical telescopic rod 21. The operating platform 1 corresponding to the vertical telescopic rod 21 has a rectangular through hole 19 parallel to the lead screw 8. The lower end of the vertical telescopic rod 21 is fixedly connected to the support plate 15 and passes through the rectangular through hole 19. The extension and retraction of the vertical telescopic rod 21 drives the lifting platform to move up and down, making the movement of the lifting platform more stable and efficient. The vertical extension and retraction can be an electric push rod 6 or a hydraulic cylinder.

[0030] The clamping plate 5 and the push rod 6 face each other with circular through holes 22. The circular through holes facilitate the inspection of the battery cells in the clamping part and also help with heat dissipation.

[0031] During operation, the battery cells to be stacked are placed on the operating platform 1. The push rod 6 moves towards the clamping plate 5 to hold the battery cells in place, maintaining their stability and facilitating efficient compression and stacking operations, thus improving the neatness and standardization of the stacking. During this process, the forward and reverse rotation of the reversible motor 16 causes the slider 13 to drive the push rod 6 to reciprocate along the lead screw 8, flexibly adjusting the distance between the clamping plate 5 and the push rod 6 to ensure stable clamping. The clamping plate 5 and the push rod 6 can move up and down, allowing for reasonable adjustment of the clamping center according to the battery cells, resulting in more stable clamping.

[0032] The embodiments of this utility model have been described above. These descriptions are exemplary and not exhaustive, nor are they limited to the disclosed embodiments. Many modifications and variations will be apparent to those skilled in the art without departing from the scope and spirit of the described embodiments. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of this utility model should be included within the protection scope of this utility model.

Claims

1. A sodium-ion battery cell extrusion stack operation platform, comprising an operation platform, a clamping mechanism is arranged on the operation platform; characterized in that: The clamping mechanism comprises a clamping plate and a push rod matched with the clamping plate, and the push rod is arranged on a moving assembly; The moving assembly comprises a horizontally arranged lead screw, one end of the lead screw is connected with a forward-reverse motor, a sliding block is threadedly matched with the lead screw, a support plate is fixedly connected to the top of the sliding block, the push rod is arranged on the support plate, the bottom of the support plate on both sides of the sliding block is connected with a guide block through a connecting block, a guide slide rail is arranged on the operation platform corresponding to the guide block, and the guide block is slidingly arranged on the corresponding guide slide rail. A plurality of operation holes and a plurality of long strip-shaped through grooves are arranged on the operation platform between the clamping plate and the push rod.

2. The sodium-ion electric cell extrusion stack operation station of claim 1, wherein: The clamping plate is connected with a fixing plate through a horizontal telescopic rod, the fixing plate is fixedly connected with a mounting seat, and the mounting seat is connected with the operation platform through fixing bolts.

3. The sodium-ion electric cell extrusion stack operation station of claim 2, wherein: The fixed end of the horizontal telescopic rod is fixedly connected with a mounting plate, the mounting plate is detachably connected with the fixing plate through positioning bolts, and a plurality of mounting holes matched with the positioning bolts are arranged on the fixing plate along the length direction.

4. The sodium-ion electric cell extrusion stack operation station of claim 3, wherein: Two correspondingly arranged guide plates are fixedly arranged on the support plate, a vertical guide through groove is arranged on each of the two guide plates, a lifting plate is arranged between the two guide plates, the push rod is fixedly connected with the lifting plate, guide rods matched with the guide through grooves on the corresponding guide plates are fixedly connected to both sides of the lifting plate, and one end of each guide rod is threadedly matched with a locking nut after penetrating through the guide through groove.

5. The sodium-ion electric cell extrusion stack operation station of claim 4, wherein: A vertical telescopic rod is connected to the bottom of the lifting plate, a rectangular through hole parallel to the lead screw is arranged on the operation platform corresponding to the vertical telescopic rod, and the lower end of the vertical telescopic rod is fixedly connected with the support plate and penetrates through the rectangular through hole.

6. The sodium-ion electric cell extrusion stack operation station of claim 1, wherein: The surface of the clamping plate and the push rod facing each other is covered with circular through holes.

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