Flexible battery pack and manufacturing method thereof
A technology of flexible battery pack and manufacturing method, which is applied in secondary battery manufacturing, battery pack components, and isolation of batteries from their environment, etc., can solve the problems of decreased bonding strength, great difficulty, poor reliability, etc. High strength and fatigue resistance, improved bending ability, and the effect of being conducive to flexibility
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Embodiment 1
[0048] Embodiment 1 (with reference to Figure 1 to Figure 7 setting method)
[0049] Set six punching pits 2 on the aluminum-plastic film 1, the length of the punching pits 2 is 2 mm longer than the length of the battery cell 31, the width of the punching pits 2 is 1.5 mm larger than the width of the battery cell 31, and the thickness of the punching pits 2 is larger than that of the battery cell 31. The thickness of 31 is 0.4 mm smaller; the distance between two adjacent punching pits 2 is 3 cm. Then, the battery cells 31 with a water content of 300 ppm are placed in the flushing pit 2 at intervals. Fold the other side of the aluminum-plastic film 1 in half to this side, leaving a 4cm length of the air bag G, and perform side sealing on each punching pit 2, the side sealing temperature is 195°C, the side sealing time is 20s, and the side sealing The pressure is 1MPa; inject LiPF containing lithium salt 6 and the liquid electrolyte of ethylene carbonate as a solvent for to...
Embodiment 2
[0050] Embodiment 2 (with reference to Figure 1 to Figure 7 setting method)
[0051] Set six punching pits 2 on the aluminum-plastic film 1, the length of the punching pits 2 is 3mm longer than the length of the battery cell 31, the width of the punching pits 2 is 2.5mm larger than the width of the battery cell 31, and the thickness of the punching pits 2 is larger than that of the battery cell 31. The thickness of 31 is 0.5mm smaller; the distance between two adjacent punching pits 2 is 3.5cm. Then, the wound electric cores 31 with a water content of 250 ppm are placed into the flushing pit 2 at intervals. Fold the other side of the aluminum-plastic film 1 in half to this side, leaving a 5cm length of the air bag G, and perform side sealing on each punching pit 2, the side sealing temperature is 165°C, the side sealing time is 2s, and the side sealing The pressure is 0.2MPa; inject LiPF containing lithium salt 6 The top-sealing temperature is 165°C, the top-sealing time i...
Embodiment 3
[0052] Embodiment 3 (with reference to Figure 1 to Figure 7 setting method)
[0053] Six punching pits 2 are set on the aluminum-plastic film 1, the length of the punching pits 2 is 2.5 mm longer than the length of the battery cell 31, the width of the punching pits 2 is 2 mm larger than the width of the battery cell 31, and the thickness of the punching pits 2 is larger than that of the battery core 31. The thickness of 31 is 0.45mm smaller; the distance between two adjacent punching pits 2 is 4cm. Then, the laminated battery cells 31 with a water content of 200 ppm are placed in the flushing pit 2 at intervals. Fold the other side of the aluminum-plastic film 1 to this side, leaving a length of air bag G of 4.5cm, and perform side sealing on each punching pit 2, the side sealing temperature is 180°C, the side sealing time is 10s, and the side sealing time is 10s. The sealing pressure is 0.6MPa; inject LiPF containing lithium salt 6 After the gel electrolyte with solvent ...
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Abstract
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