| Literature DB >> 31476102 |
Angelina Gigante1, Léo Duchêne1,2, Romain Moury1,3, Marion Pupier4, Arndt Remhof2, Hans Hagemann1.
Abstract
All-solid-state batteries (ASSBs) promise higher power and energy density than batteries based on liquid electrolytes. Recently, a stable 3 V ASSB based on the super ionic conductor (1 mS cm-1 near room temperature) Na4 (B12 H12 )(B10 H10 ) has demonstrated excellent cycling stability. This study concerns the development of a five-step, scalable, and solution-based synthesis of Na4 (B12 H12 )(B10 H10 ). The use of a wet chemistry approach allows solution processing with high throughput and addresses the main drawbacks for this technology, specifically, the limited electrode-electrolyte contact and high cost. Moreover, a cost-efficient synthesis of the expensive precursors Na2 B10 H10 and Na2 B12 H12 is also achieved through the same process. The mechanism of the reactions is investigated and two key parameters to tune the kinetics and selectivity are highlighted: the choice of counter cation (tetraethylammonium) and solvent.Entities:
Keywords: batteries; boron; energy storage; solid electrolytes; solid-state structures
Year: 2019 PMID: 31476102 DOI: 10.1002/cssc.201902152
Source DB: PubMed Journal: ChemSusChem ISSN: 1864-5631 Impact factor: 8.928