Detection method of extrusion expansion ratio of lithium ion battery slurry
A lithium-ion battery, extrusion expansion technology, applied in the field of lithium-ion batteries, can solve the problems of cumbersome detection of extrusion expansion ratio and high detection cost
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Embodiment 1
[0054] An instrument for detecting the extrusion expansion ratio of lithium-ion battery slurry, comprising a first tank 1 for storing battery slurry and a sloping plate 2 for making the battery slurry flow downward due to gravity, and the top of the sloping plate 2 The first flow channel 21 and the second flow channel 22 perpendicular to each other are arranged on the surface, and the top surface of the sloping plate 2 is located at the lower end of the first flow channel 21. A first groove 23 is provided for simulating the flow form of the battery slurry when it enters the touch head. The top surface of the swash plate 2 is located at the downstream position of the second flow channel 22 and is provided with a second groove 24 and a third groove 25 for preventing the battery slurry in the second flow channel 22 from overflowing; the second groove 24 and the third groove 25; The third groove 25 is respectively located on both sides of the first flow channel 21;
[0055] And th...
Embodiment 2
[0057] A lithium ion battery slurry extrusion expansion ratio detection method, comprising the steps of:
[0058] S21: Provide battery slurry and the extrusion expansion ratio detection instrument of Example 1; wherein, the battery slurry includes equal volumes of the first battery slurry and the second battery slurry.
[0059] S22: First use a rubber plug to block the discharge hole 3 in the extrusion expansion ratio detection instrument, add the above-mentioned first battery slurry into the first trough 1, and then pull out the rubber plug, so that the first battery slurry is discharged When the hole 3 flows down the first flow channel 21 to the intersection of the first flow channel 21 and the second flow channel 22, part of the first battery slurry flows laterally along the second flow channel 22 to form a corresponding first transverse flow length m 1 ; Then the second battery slurry is also repeated this process to form a corresponding second lateral flow length m 2 . ...
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