Battery cell pole piece double-sided glue binding device
By designing a double-sided adhesive bonding device for the battery cell, the problem of existing equipment occupying a large area and easily damage the battery cell is solved, and efficient and automated pasting of the two-sided adhesive tape of the battery cell is achieved, reducing the defective rate.
Patent Information
- Application Number
- CN202422611609.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-10-28
- Publication Date
- 2025-08-29
- Estimated Expiration
- 2034-10-28
AI Technical Summary
During the production of existing laminated battery cells, safety films are required to be pasted on both sides of the pole sheet. There are multiple existing equipment, which covers a large area and is prone to damage the battery cells during transportation, resulting in high defect rate.
A double-sided adhesive binding device for the battery cell electrode is designed, including the first and second rubber-release wheel sets, punching and cutting components, horizontal and vertical flip-up rubber-absorbing components and robots to realize the automatic pasting of the tape on both sides of the battery cell electrode.
It improves the adhesion efficiency of the two-sided tape of the battery cell electrode, saves the equipment footprint, reduces the defective yield rate, and realizes fully automated double-sided binding.
Smart Images
Figure CN223280343U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the field of automation, in particular to a double-sided glue binding device for an electric core pole piece. Background Art
[0002] The existing process for producing laminated cells requires applying safety film to both sides of the electrode to avoid safety risks. Existing laminated cell gluing equipment typically applies glue on one side, then uses another machine to apply glue on the other side. Applying glue on a single side requires multiple machines, requiring a larger area to house the gluing line. Furthermore, the laminated cells can be easily damaged during transportation, increasing the defective rate of the laminated cells. Utility Model Content
[0003] The purpose of the utility model is to overcome the shortcomings of the prior art and provide a double-sided adhesive binding device for a battery cell electrode.
[0004] The purpose of this utility model is achieved through the following technical solutions:
[0005] A device for binding adhesive tape to battery cell electrodes, characterized in that it comprises: a first adhesive-releasing wheel group, on which an adhesive roll is placed; a second adhesive-releasing wheel group, on which another adhesive roll is placed; a punching assembly, wherein the punching assembly is used to punch the adhesive tape on the first adhesive-releasing wheel group and the second adhesive-releasing wheel group to form adhesive strips; a horizontally rotating adhesive suction assembly, wherein the horizontally rotating adhesive suction assembly comprises a horizontal adhesive suction part, a horizontal top-holding driving part and a horizontally rotating driving part, wherein the horizontal top-holding driving part and the horizontal rotating driving part are respectively connected to the horizontal adhesive suction part for driving, the horizontal top-holding driving part supports the horizontal adhesive suction part to absorb the adhesive strip on the first adhesive-releasing wheel group, and the horizontal rotating driving part is used to horizontally rotate the horizontal adhesive suction part; a vertically flipping adhesive suction assembly, wherein the vertically flipping adhesive suction assembly comprises a vertical adhesive suction part, a vertical top-holding driving part The vertical holding driving member and the vertical rotating driving member are respectively connected to the vertical glue sucking member, the vertical holding driving member supports the vertical glue sucking member to absorb the glue strip on the second glue-releasing wheel group, and the vertical rotating driving member is used to vertically rotate the vertical glue sucking member; and the robot arm, the glue strip on the horizontal glue sucking member is rotated to be aligned with the glue strip of the vertical glue sucking member, the robot arm is used to grab the battery cell electrode and rotate the horizontal glue sucking member to between the vertical glue sucking member, and the glue strip on the vertical flipping glue sucking assembly and the glue strip on the vertical glue sucking member are closed and pasted toward the battery cell electrode.
[0006] In one embodiment, the first rubber-depositing wheel group includes a first rubber-depositing wheel and a second rubber-depositing wheel, the film roll is set on the first rubber-depositing wheel, the tape on the film roll is wound around the second rubber-depositing wheel, the tape is adhered to the second rubber-depositing wheel through its sticky surface, and the punching assembly punches the tape on the second rubber-depositing wheel at intervals to form a plurality of rubber strips.
[0007] In one embodiment, the second rubber-laying wheel group includes a third rubber-laying wheel and a fourth rubber-laying wheel, another film roll is set on the third rubber-laying wheel, the tape on the film roll is wound around the fourth rubber-laying wheel, and the punching assembly punches the tape on the fourth rubber-laying wheel at intervals to form a plurality of rubber strips.
[0008] In one embodiment, a plurality of receiving portions are provided at intervals on the outer sides of the second rubber-depositing wheel and the fourth rubber-depositing wheel, a tape is wound around each receiving portion, and the punching assembly punches the tape toward the receiving portion.
[0009] In one embodiment, the first rubber-laying wheel group further includes a rotatable first guide rod and a first rubber-laying driving member, the first rubber-laying driving member is drivingly connected to the second rubber-laying wheel, the first guide rod is arranged between the first rubber-laying wheel and the second rubber-laying wheel, and the adhesive tape is sequentially wound around the first guide rod and the second rubber-laying wheel; the second rubber-laying wheel group further includes a rotatable second guide rod and a second rubber-laying driving member, the second rubber-laying driving member is drivingly connected to the fourth rubber-laying wheel, the second guide rod is arranged between the third rubber-laying wheel and the fourth rubber-laying wheel, and the adhesive tape is sequentially wound around the second guide rod and the fourth rubber-laying wheel.
[0010] In one embodiment, both ends of the first guide rod and the second guide rod are sleeved with limiting rings, and the adhesive tape is passed through the gap between the limiting rings at both ends of the first guide rod or the second guide rod.
[0011] In one embodiment, the glue absorbing surfaces of the vertical glue absorbing member and the horizontal glue absorbing member are flat.
[0012] In one embodiment, a sensor assembly is further included, and the sensor assembly monitors the adhesive tapes in the second adhesive placing wheel and the fourth adhesive placing wheel.
[0013] In one embodiment, the vertical supporting drive member is a cylinder.
[0014] In one embodiment, the vertical rotation drive member is a motor.
[0015] Compared with the prior art, the present invention has at least the following advantages:
[0016] The double-sided glue binding device for the battery cell electrode of the present invention is provided with a first glue-releasing wheel group, a second glue-releasing wheel group, a punching assembly, a horizontally rotating glue-absorbing assembly, a vertically flipping glue-absorbing assembly and a manipulator. The punching assembly punches the tape on the first glue-releasing wheel group and the second glue-releasing wheel group to form a fast glue strip. The horizontally rotating glue-absorbing assembly and the vertically flipping glue-absorbing assembly respectively absorb the glue strips on the first glue-releasing wheel group and the second glue-releasing wheel group and rotate them so that the sticky surfaces of the two glue strips are aligned. The manipulator grabs the battery cell electrode between the two glue strips. The horizontally rotating glue-absorbing assembly and the vertically flipping glue-absorbing assembly respectively drive the glue strips to press and stick to both sides of the battery cell electrode, thereby improving the efficiency of attaching the tape on both sides of the battery cell electrode, saving the floor space occupied by the production line equipment, achieving a good glue binding effect, and realizing full automation. BRIEF DESCRIPTION OF THE DRAWINGS
[0017] In order to more clearly illustrate the technical solutions of the embodiments of the present utility model, the following briefly introduces the drawings required for use in the embodiments.
[0018] Figure 1 This is a front structural diagram of a double-sided adhesive binding device for a battery cell electrode in one embodiment of the present invention;
[0019] Figure 2 This is a schematic diagram of the back structure of the double-sided adhesive binding device for the battery cell electrode in one embodiment of the present invention.
[0020] Reference numerals:
[0021] The first rubber-discharging wheel group 10, the first rubber-discharging wheel 11, the second rubber-discharging wheel 12, the first guide rod 13, the first rubber-discharging driving member 14, the second rubber-discharging wheel group 20, the third rubber-discharging wheel 21, the fourth rubber-discharging wheel 22, the second guide rod 23, the second rubber-discharging driving member 24, the punching assembly 30, the receiving part 31, the horizontally rotating rubber-sucking assembly 40, the horizontal rubber-sucking member 41, the horizontal holding driving member 42, the horizontal rotating driving member 43, the vertically flipping rubber-sucking assembly 50, the vertical rubber-sucking member 51, the vertical holding driving member 52, the vertical rotating driving member 53, and the sensor assembly 60. DETAILED DESCRIPTION
[0022] In order to facilitate understanding of the present invention, the present invention will be described more comprehensively below with reference to the relevant drawings.
[0023] The present application proposes a double-sided glue binding device for a battery cell electrode, which is used to bind the two sides of the battery cell electrode with adhesive tape, including: a first glue-dispensing wheel group 10, a second glue-dispensing wheel group 20, a punching assembly 30, a horizontally rotating glue-sucking assembly 40, a vertically flipping glue-sucking assembly 50, a manipulator and a frame. The first glue-dispensing wheel group 10, the second glue-dispensing wheel group 20, the punching assembly 30, the horizontally rotating glue-sucking assembly 40 and the vertically flipping glue-sucking assembly 50 are all arranged on the frame. The first glue-dispensing wheel group 10 and the second glue-dispensing wheel group 20 are arranged at intervals, and the punching assembly 30 is arranged between the first glue-dispensing wheel group 10 and the second glue-dispensing wheel group 20, so that the punching assembly 30 can punch and cut the adhesive tapes on the first glue-dispensing wheel group 10 and the second glue-dispensing wheel group 20 respectively.
[0024] Among them, a film roll is placed on the first glue-dispensing wheel group 10, and another film roll is placed on the second glue-dispensing wheel group 20. The first glue-dispensing wheel group 10 and the second glue-dispensing wheel group 20 will automatically release a certain length of glue strips to match the working efficiency of the horizontally rotating glue-absorbing component 40 and the vertically flipping glue-absorbing component 50, so as to avoid the tape being released too quickly, resulting in the tape being too long and becoming tattered. The robot grabs the battery cell pole piece and processes it to the horizontally rotating glue-absorbing component 40 and the vertically flipping glue-absorbing component 50. The punching component 30 punches the tape on the first glue-dispensing wheel group 10 and the second glue-dispensing wheel group 20 to form small sections of glue strips, so that the horizontally rotating glue-absorbing component 40 and the vertically rotating glue-absorbing component can absorb the glue strips without pulling up the entire tape, or the punching component 30 causing damage to the battery cell pole piece, resulting in a risk of product defects.
[0025] Specifically, see Figure 1 and Figure 2 The horizontally rotating glue sucking assembly 40 includes a horizontal glue sucking member 41, a horizontal holding driving member 42, and a horizontal rotating driving member 43. The horizontal holding driving member 42 is driven and connected to the horizontal glue sucking member 41, so that the horizontal glue sucking member 41 is held forward or retracted, and is used to hold the horizontal glue sucking member 41 to absorb the glue strip on the first glue-releasing wheel group 10. The horizontal rotating driving member 43 is also driven and connected to the horizontal glue sucking member 41, and is used to horizontally rotate the horizontal glue sucking member 41 after absorbing the glue strip, so that the horizontal glue sucking member 41 can rotate in the horizontal direction. Preferably, the horizontal rotating driving member 43 is a motor, and the horizontal holding driving member 42 is a cylinder.
[0026] Wherein, the vertical flip glue suction assembly 50 comprises a vertical glue suction part 51, a vertical supporting driving member 52 and a vertical rotating driving member 53. The vertical supporting driving member 52 and the vertical rotating driving member 53 are respectively driven and connected with the vertical glue suction part 51, and the vertical supporting driving member 52 is driven and connected with the vertical glue suction part 51 so that the vertical glue suction part 51 is supported or retracted forward, and is used to support the vertical glue suction part 51 to absorb the adhesive strip on the second glue-releasing wheel group 20. The vertical rotating driving member 53 is also driven and connected with the vertical glue suction part 51 so that the vertical glue suction part 51 can be rotated in the vertical direction, and is used for the horizontal glue suction part 41 after the vertical rotation adsorption adhesive strip, so that the single adhesive surface of the adhesive strip on the horizontal glue suction part 41 and the vertical glue suction part 51 is relatively arranged. Preferably, the vertical rotating driving member 53 is a motor, and the vertical supporting driving member 52 is a cylinder.
[0027] The robot arm grabs the cell electrode and places it between the horizontal adhesive suction component and the vertical adhesive suction component 51, that is, the robot arm grabs the cell electrode between the two adhesive strips. The adhesive strip on the vertically flipped adhesive suction component 50 and the adhesive strip on the vertical adhesive suction component 51 are closed toward the cell electrode, so that the two opposite sides of the cell electrode are pressed together and attached with adhesive tape strips, thereby ensuring the insulation of both sides of the cell electrode, improving the efficiency of attaching adhesive tape to both sides of the cell electrode, saving the floor space of the production line equipment, and achieving good adhesive binding effect, realizing full automation.
[0028] In one embodiment, please refer again to Figure 1 The first rubber-depositing wheel assembly 10 includes a first rubber-depositing wheel 11 and a second rubber-depositing wheel 12. The first rubber-depositing wheel 11 and the second rubber-depositing wheel 12 are rotatably mounted on a frame. A film roll is mounted on the first rubber-depositing wheel 11. The adhesive tape on the film roll is wound around the second rubber-depositing wheel 12. The adhesive tape adheres to the outer surface of the second rubber-depositing wheel 12 through its adhesive surface. The punching assembly 30 punches the adhesive tape on the second rubber-depositing wheel 12 at intervals to form a plurality of rubber strips.
[0029] Furthermore, the second rubber-depositing wheel assembly 20 includes a third rubber-depositing wheel 21 and a fourth rubber-depositing wheel 22. The third and fourth rubber-depositing wheels 21 and 22 are rotatably mounted on a frame. Another film roll is mounted on the third rubber-depositing wheel 21. The adhesive tape on the film roll is passed through the fourth rubber-depositing wheel 22 and adheres to the outer surface of the fourth rubber-depositing wheel 22 via its adhesive surface. The punching assembly 30 punches the adhesive tape on the fourth rubber-depositing wheel 22 at intervals to form a plurality of adhesive strips.
[0030] It should be noted that the film is an electrical tape. After the battery cell electrodes are pasted with the film, the insulation of the battery cell electrodes can be ensured.
[0031] Furthermore, receiving portions 31 are spaced apart on the outer sides of the second and fourth rubber-depositing wheels 12, 22. Each receiving portion 31 is inserted into the outer sides of the second and fourth rubber-depositing wheels 12, 22 along its length, with the length of the receiving portion 31 being parallel to the axis of the second and fourth rubber-depositing wheels 12, 22. Adhesive tape is wound around each receiving portion 31, and each receiving portion 31 is provided with a groove. The punching assembly 30 punches the tape toward the groove on each receiving portion 31, forming segments of adhesive strips, such that each segment of adhesive strip is adhered to both ends of the receiving portion 31. Preferably, the receiving portion is a plurality of support bars, each of which is inserted into the second and fourth rubber-depositing wheels 12, 22 in parallel.
[0032] In one embodiment, please refer again to Figure 1 and Figure 2 The first rubber-laying roller assembly 10 further includes a first guide rod 13 and a first rubber-laying drive 14. The first guide rod 13 is rotatably mounted on the frame, wherein the first guide rod 13 is disposed between the first rubber-laying roller 11 and the second rubber-laying roller 12. The adhesive tape is sequentially wound around the first guide rod 13 and the second rubber-laying roller 12. The first rubber-laying drive 14 is drivably connected to the second rubber-laying roller 12. The first rubber-laying drive 14 drives the second rubber-laying roller 12 to rotate on the frame, allowing the second rubber-laying roller 12 to transfer the adhesive tape wrapped around its side. Simultaneously, the adhesive tape from the first rubber-laying roller 11 is continuously transferred to the second rubber-laying roller 12. The punching assembly 30 reciprocally cuts the adhesive tape transferred from the second rubber-laying roller 12. Similarly, the second rubber-laying roller assembly 20 further includes a rotatable second guide rod 23 and a second rubber-laying drive 24. The adhesive tape is sequentially wound around the second guide rod 23 and the fourth rubber-laying roller 22. The second adhesive dispensing drive 24 is drivably connected to the fourth adhesive dispensing wheel 22. The second adhesive dispensing drive 24 drives the fourth adhesive dispensing wheel 22 to rotate on the frame. The second guide rod 23 is disposed between the third adhesive dispensing wheel 21 and the fourth adhesive dispensing wheel 22, allowing the fourth adhesive dispensing wheel 22 to convey the adhesive tape wrapped around its side. Simultaneously, the adhesive tape from the third adhesive dispensing wheel 21 is continuously conveyed to the fourth adhesive dispensing wheel 22 via the second guide rod 23. The punching assembly 30 reciprocates to cut the adhesive tape conveyed by the fourth adhesive dispensing wheel 22. The first adhesive dispensing drive 14 and the second adhesive dispensing drive 24 are motors.
[0033] Furthermore, both ends of the first guide rod 13 and the second guide rod 23 are provided with limiting rings, and the space between the limiting rings at both ends is used to wrap the tape so that the tape can be limited on the first guide rod 13 and the second guide rod 23 to prevent the tape from falling off the first guide rod 13 and the second guide rod 23.
[0034] Furthermore, the adhesive absorption surfaces of the vertical adhesive absorption component 51 and the horizontal adhesive absorption component 41 are flat, so that the adhesive tape strips on the vertical adhesive absorption component 51 and the horizontal adhesive absorption component 41 can be more firmly attached to the battery cell electrode.
[0035] It should be noted that the vertical glue absorbing component 51 and the horizontal glue absorbing component 41 are provided with adsorption holes on their adhesive surfaces, which are connected to the external air valve device so that the non-sticky side of the adhesive strip is attached to the adhesive surfaces of the vertical glue absorbing component 51 and the horizontal glue absorbing component 41.
[0036] In one embodiment, the double-sided glue binding device for the battery cell electrode further includes a sensor assembly 60, which monitors whether the tape in the second glue-releasing wheel 12 and the fourth glue-releasing wheel 22 is transmitted normally to avoid incorrect transmission of the tape or the lack of glue, in which case the equipment needs to brake and stop working.
[0037] Furthermore, a slide rail is provided below the frame, and the frame is slidably mounted on the slide rail, allowing the double-sided glue binding device for the battery cell electrode sheet to move on the slide rail, coordinating with the production line to operate the battery cell electrode sheet. The frame is also provided with a reset switch and a power switch. The power switch is used to turn power on and off the double-sided glue binding device for the battery cell electrode sheet, and the reset switch resets the double-sided glue binding device to its initial state.
[0038] In addition, multiple groups of the first glue-releasing wheel group 10, the second glue-releasing wheel group 20, the punching assembly 30, the horizontal rotating glue-absorbing assembly 40 and the vertical flipping glue-absorbing assembly 50 can be set on the frame, so that the double-sided glue binding device of the battery cell electrode can further improve the working efficiency.
[0039] The above-described embodiments merely represent several implementation methods of the present invention. While the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the utility model patent. It should be noted that a person of ordinary skill in the art would be able to make various modifications and improvements without departing from the concept of the present invention, and these modifications and improvements fall within the scope of protection of the present invention. Therefore, the scope of protection of the present utility model patent shall be determined by the appended claims.
Claims
1. A double-sided adhesive bonding device for a battery cell electrode, characterized in that: include: a first rubber-laying wheel assembly, on which a film roll is placed; a second rubber-laying wheel assembly, on which another film roll is placed; A punching assembly, configured to punch and cut the adhesive tapes on the first and second adhesive roller groups to form adhesive strips; A horizontally rotating glue sucking assembly, comprising a horizontal glue sucking part, a horizontal holding driving part, and a horizontal rotating driving part, wherein the horizontal holding driving part is drivingly connected to the horizontal glue sucking part, the horizontal rotating driving part is drivingly connected to the horizontal glue sucking part, the horizontal holding driving part supports the horizontal glue sucking part to absorb the glue strip on the first glue-releasing wheel assembly, and the horizontal rotating driving part is used to horizontally rotate the horizontal glue sucking part; A vertical flip glue sucking assembly, the vertical flip glue sucking assembly includes a vertical glue sucking part, a vertical holding driving part and a vertical rotating driving part, the vertical holding driving part is drivingly connected to the vertical glue sucking part, the vertical rotating driving part is drivingly connected to the vertical glue sucking part; the vertical holding driving part supports the vertical glue sucking part to absorb the glue strip on the second glue-releasing wheel group, and the vertical rotating driving part is used to vertically rotate the vertical glue sucking part; and The robot arm rotates the horizontal glue-absorbing part to be aligned with the vertical glue-absorbing part. The robot arm is used to grab the battery cell electrode piece between the horizontal glue-absorbing part and the vertical glue-absorbing part. The adhesive strip of the horizontal glue-absorbing part and the adhesive strip of the vertical glue-absorbing part are combined and pasted on the battery cell electrode piece.
2. The double-sided adhesive bonding device for a battery cell electrode according to claim 1, characterized in that: The first rubber-laying wheel group includes a first rubber-laying wheel and a second rubber-laying wheel. The film roll is set on the first rubber-laying wheel, and the tape on the film roll is wound around the second rubber-laying wheel. The tape adheres to the second rubber-laying wheel through its sticky surface. The punching assembly punches the tape on the second rubber-laying wheel at intervals to form a plurality of rubber strips.
3. The double-sided adhesive bonding device for a battery cell electrode according to claim 2, characterized in that: The second rubber-laying wheel group includes a third rubber-laying wheel and a fourth rubber-laying wheel. Another film roll is set on the third rubber-laying wheel. The tape on the film roll is wound around the fourth rubber-laying wheel. The punching assembly punches the tape on the fourth rubber-laying wheel at intervals to form a plurality of rubber strips.
4. The double-sided adhesive bonding device for a battery cell electrode according to claim 3, characterized in that: A plurality of receiving portions are arranged at intervals on the outer sides of the second rubber-discharging wheel and the fourth rubber-discharging wheel, and a tape is wound around each receiving portion. The punching assembly punches the tape toward the receiving portion.
5. The double-sided adhesive bonding device for a battery cell electrode according to claim 3, characterized in that: The first rubber-laying wheel group further includes a rotatable first guide rod and a first rubber-laying driving member, the first rubber-laying driving member is drivingly connected to the second rubber-laying wheel, the first guide rod is arranged between the first rubber-laying wheel and the second rubber-laying wheel, and the adhesive tape is sequentially wound around the first guide rod and the second rubber-laying wheel; the second rubber-laying wheel group further includes a rotatable second guide rod and a second rubber-laying driving member, the second rubber-laying driving member is drivingly connected to the fourth rubber-laying wheel, the second guide rod is arranged between the third rubber-laying wheel and the fourth rubber-laying wheel, and the adhesive tape is sequentially wound around the second guide rod and the fourth rubber-laying wheel.
6. The double-sided adhesive bonding device for a battery cell electrode according to claim 5, characterized in that: Both ends of the first guide rod and the second guide rod are sleeved with limiting rings, and the adhesive tape is passed around the gap between the limiting rings at both ends of the first guide rod or the second guide rod.
7. The double-sided adhesive bonding device for a battery cell electrode according to claim 1, characterized in that: The glue absorbing surfaces of the vertical glue absorbing member and the horizontal glue absorbing member are flat.
8. The double-sided adhesive bonding device for a battery cell electrode according to claim 3, characterized in that: The double-sided adhesive tape device for the battery cell electrode further includes a sensor assembly, which monitors whether the adhesive tape is on the second adhesive-laying wheel and the fourth adhesive-laying wheel.
9. The double-sided adhesive bonding device for a battery cell electrode according to claim 1, characterized in that: The vertical supporting driving member is a cylinder.
10. The double-sided adhesive bonding device for a battery cell electrode according to claim 1, characterized in that: The vertical rotation driving member is a motor.