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Dendrite nucleation in lithium-conductive ceramics.

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Dendrite formation in solid-state lithium batteries is linked to interfacial pressure exceeding a critical value in ceramics like LLZO. This study provides a chemomechanical model to predict and prevent dendrite growth for improved battery performance.

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Area of Science:

  • Materials Science
  • Electrochemistry
  • Solid-State Physics

Background:

  • Solid-state lithium batteries offer safety advantages but are limited by dendrite formation, hindering power density.
  • The precise mechanisms driving dendrite nucleation in solid electrolytes remain poorly understood.

Purpose of the Study:

  • To investigate the critical current density for dendrite formation in lithium-conductive ceramics using chemomechanics.
  • To establish a predictive model for dendrite nucleation based on material properties and interfacial phenomena.

Main Methods:

  • Application of chemomechanics principles to analyze stress-induced dendrite nucleation.
  • Experimental validation using the garnet-oxide material Li7La3Zr2O12 (LLZO).
  • Correlation of critical pressure with surface energy changes during lithium plating at grain boundaries.

Main Results:

  • Dendrite nucleation in LLZO occurs when interfacial pressure surpasses a critical threshold.
  • A quantitative formula was derived and experimentally validated, predicting critical current based on interfacial impedance, bulk permittivity, and grain size.
  • The study rationalizes bulk lithium plating and the transition to dendrite nucleation at higher currents in LLZO.

Conclusions:

  • Chemomechanics provides a framework to understand and mitigate dendrite formation in solid electrolytes.
  • The findings offer strategies for designing more resilient ion-conductive ceramics for solid-state batteries.
  • The proposed mechanism explains the electrically activated transition from stable cycling to dendrite nucleation in LLZO.