<p>Research and development of non-aqueous electrolyte solutions are essential for practical advancement towards the production of high-energy lithium metal batteries (LMBs). An ideal LMB electrolyte solution should enable highly efficient, uniform and prolonged lithium metal plating and stripping, preserve the electrodes’ electro(chemo)mechanical properties and ensure compatibility with all cell components. However, despite extensive research efforts, scientists have yet to achieve an electrolyte design that meets these requirements simultaneously. Here, by examining the nanoengineering aspects of various non-aqueous electrolyte solution designs, we elucidate the understanding of the nanoscale physicochemical and electrochemical processes taking place in LMBs, which are mainly governed by the thermodynamic and kinetic properties of the electrolyte system. We also explore emerging research directions and propose an accelerated, iterative framework that integrates nanoengineering principles with machine learning, high-throughput computation and experimentation to facilitate the development of next-generation non-aqueous electrolyte solutions for practical LMBs.</p>

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Nanoengineering of non-aqueous liquid electrolyte solutions for future lithium metal batteries

  • Dominik Weintz,
  • Martin Werres,
  • Birger Horstmann,
  • Rachid Amine,
  • Chi-Cheung Su,
  • Xinlin Li,
  • Yaobin Xu,
  • Ridwan A. Ahmed,
  • Wu Xu,
  • Chongmin Wang,
  • Bastian von Holtum,
  • Simon Wiemers-Meyer,
  • Dongliang Chen,
  • Jianwei Lai,
  • Feifei Shi,
  • Sascha Berg,
  • Egbert Figgemeier,
  • Christian O. Plaza-Rivera,
  • Daniel Wang,
  • Yang Shao-Horn,
  • Aravind Unni,
  • Ulrike Krewer,
  • Stephen Scoggins,
  • Perla B. Balbuena,
  • Jorge M. Seminario,
  • Asia Sarycheva,
  • Ziyuan Lyu,
  • Dominic Bresser,
  • Florian Hausen,
  • Rüdiger-A. Eichel,
  • Khalil Amine,
  • Arnulf Latz,
  • Robert Kostecki,
  • Martin Winter,
  • Isidora Cekic-Laskovic

摘要

Research and development of non-aqueous electrolyte solutions are essential for practical advancement towards the production of high-energy lithium metal batteries (LMBs). An ideal LMB electrolyte solution should enable highly efficient, uniform and prolonged lithium metal plating and stripping, preserve the electrodes’ electro(chemo)mechanical properties and ensure compatibility with all cell components. However, despite extensive research efforts, scientists have yet to achieve an electrolyte design that meets these requirements simultaneously. Here, by examining the nanoengineering aspects of various non-aqueous electrolyte solution designs, we elucidate the understanding of the nanoscale physicochemical and electrochemical processes taking place in LMBs, which are mainly governed by the thermodynamic and kinetic properties of the electrolyte system. We also explore emerging research directions and propose an accelerated, iterative framework that integrates nanoengineering principles with machine learning, high-throughput computation and experimentation to facilitate the development of next-generation non-aqueous electrolyte solutions for practical LMBs.