Advancing energy storage: The future trajectory of lithium-ion battery
This review sheds light on the exciting prospects and potential breakthroughs in lithium-ion battery technology by examining emerging trends in materials, cell designs,
Most battery chemistries appear capable of meeting short-term (10–15 years) availability goals, but in the case of long-term (40–50 years) EV targets, significant production expansion should be taken into consideration, as stated by Egbue, Long, and Kim . Figure 12 illustrates the cell prices of LIBs from 1991 to 2021.
Advanced Battery Technologies: Lithium-Sulfur (LSBs), Lithium-Air, and Alternatives to Lithium-Ion Given the various drawbacks of LIBs, it is crucial to explore next-generation battery chemistries that can exceed the current standards in performance, energy density, and safety.
Liu et al. introduced a thermoregulating separator for LIBs that incorporates a PCM to absorb heat during abuse conditions. Ping et al. recommended enhancing the thermal management structure of a battery pack by adding fins to the outer surface of the PCM to boost its thermal conductivity.
By integrating advanced characterization techniques with sophisticated modeling, we can optimize battery system performance and reliability, extending the operational life of these critical energy storage technologies [343, 344]. 5. Challenges and Limitations 5.1. Issues Related to Cost, Resource Availability, and Scalability
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