APL Materials (Oct 2021)

Perspectives for next generation lithium-ion battery cathode materials

  • Samuel G. Booth,
  • Alisyn J. Nedoma,
  • Nirmalesh N. Anthonisamy,
  • Peter J. Baker,
  • Rebecca Boston,
  • Hugo Bronstein,
  • Simon J. Clarke,
  • Edmund J. Cussen,
  • Venkateswarlu Daramalla,
  • Michael De Volder,
  • Siân E. Dutton,
  • Viktoria Falkowski,
  • Norman A. Fleck,
  • Harry S. Geddes,
  • Naresh Gollapally,
  • Andrew L. Goodwin,
  • John M. Griffin,
  • Abby R. Haworth,
  • Michael A. Hayward,
  • Stephen Hull,
  • Beverley J. Inkson,
  • Beth J. Johnston,
  • Ziheng Lu,
  • Judith L. MacManus-Driscoll,
  • Xabier Martínez De Irujo Labalde,
  • Innes McClelland,
  • Kirstie McCombie,
  • Beth Murdock,
  • Debasis Nayak,
  • Seungkyu Park,
  • Gabriel E. Pérez,
  • Chris J. Pickard,
  • Louis F. J. Piper,
  • Helen Y. Playford,
  • Simon Price,
  • David O. Scanlon,
  • Joe C. Stallard,
  • Nuria Tapia-Ruiz,
  • Anthony R. West,
  • Laura Wheatcroft,
  • Megan Wilson,
  • Li Zhang,
  • Xuan Zhi,
  • Bonan Zhu,
  • Serena A. Cussen

DOI
https://doi.org/10.1063/5.0051092
Journal volume & issue
Vol. 9, no. 10
pp. 109201 – 109201-38

Abstract

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Transitioning to electrified transport requires improvements in sustainability, energy density, power density, lifetime, and approved the cost of lithium-ion batteries, with significant opportunities remaining in the development of next-generation cathodes. This presents a highly complex, multiparameter optimization challenge, where developments in cathode chemical design and discovery, theoretical and experimental understanding, structural and morphological control, synthetic approaches, and cost reduction strategies can deliver performance enhancements required in the near- and longer-term. This multifaceted challenge requires an interdisciplinary approach to solve, which has seen the establishment of numerous academic and industrial consortia around the world to focus on cathode development. One such example is the Next Generation Lithium-ion Cathode Materials project, FutureCat, established by the UK’s Faraday Institution for electrochemical energy storage research in 2019, aimed at developing our understanding of existing and newly discovered cathode chemistries. Here, we present our perspective on persistent fundamental challenges, including protective coatings and additives to extend lifetime and improve interfacial ion transport, the design of existing and the discovery of new cathode materials where cation and cation-plus-anion redox-activity can be exploited to increase energy density, the application of earth-abundant elements that could ultimately reduce costs, and the delivery of new electrode topologies resistant to fracture which can extend battery lifetime.