Polymer electrolyte having multi-layer structure, and all-solid battery comprising same
An all-solid battery, multi-layer structure technology, applied in non-aqueous electrolyte batteries, electrolytes, non-aqueous electrolytes, etc., can solve problems such as being unsuitable for manufacturing high-power and high-capacity batteries, reducing interface resistance, and improving output characteristics. and the effect of energy density, interface resistance reduction, and sufficient discharge capacity
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preparation example 1
[0076] 1. Mix PEO (Mw≒4,000,000) and LiFSI in acetonitrile (AN) at a molar ratio of EO:Li=5:1.
[0077] 2. Using the above solution to prepare a 3 μm polymer electrolyte membrane, namely PEO, by solution casting method 5 -LiFSI film.
preparation example 2
[0079] 1. Mix PEO (Mw≒4,000,000) and LiFSI in acetonitrile (AN) at a molar ratio of EO:Li=20:1.
[0080] 2. Using the above solution to prepare a 20 μm polymer electrolyte membrane, namely PEO, by solution casting method 20 - LiFSI film.
preparation example 3
[0082] 1. Mix PEO (Mw≒4,000,000) and LiFSI in acetonitrile (AN) at a molar ratio of EO:Li=20:1.
[0083] 2. To the solution to become PEO 20 - An amount of 10% by weight of LiFSI was mixed into PEGDA (n=10) and initiator BPO (benzoyl peroxide), then stirred until a homogeneous solution was obtained. At this time, BPO was mixed so as to be 1% by weight of PEGDA.
[0084] 3. Using the above mixed solution to prepare a 20 μm polymer electrolyte membrane, namely PEO, by solution casting method 20 - LiFSI-X film.
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