The growing range of application areas for lithium ion batteries requires cell chemistry specific developments of aging optimized operational strategies. In this research work, aging effects during the operation of commercially available lithium ion batteries with LFP (LiFePO4) as cathode materials are examined. For this purpose, 200 batteries are tested in four different categories towards their initial, calendar, cyclic and path dependent aging behavior. Based on the findings, an exemplary aging optimized operational strategy is presented for the investigated batteries.
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The growing range of application areas for lithium ion batteries requires cell chemistry specific developments of aging optimized operational strategies. In this research work, aging effects during the operation of commercially available lithium ion batteries with LFP (LiFePO4) as cathode materials are examined. For this purpose, 200 batteries are tested in four different categories towards their initial, calendar, cyclic and path dependent aging behavior. Based on the findings, an exemplary agi...
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