Ultrafast crystallization and sintering of Li1.3Al0.3Ti1.7(PO4)3 glass through flash sinter‐crystallization

Author:

Campos João V.123ORCID,Lavagnini Isabela R.45ORCID,Zallocco Vinicius M.123,Jesus Lilian M.6ORCID,Rodrigues Ana C. M.23ORCID

Affiliation:

1. Graduate Program in Materials Science and Engineering Federal University of Sao Carlos Sao Carlos São Paulo Brazil

2. Department of Materials Engineering Federal University of Sao Carlos Sao Carlos São Paulo Brazil

3. Center for Research Technology and Education of Vitreous Materials Sao Carlos São Paulo Brazil

4. Department of Biosystem Engineering University of São Paulo Pirassununga São Paulo Brazil

5. Postgraduate Programme in Materials Science and Engineering University of São Paulo Pirassununga São Paulo Brazil

6. Group of Advanced Functional Materials (MAFA) Department of Physics Federal University of Sao Carlos (UFSCar) Sao Carlos São Paulo Brazil

Abstract

AbstractFlash sinter‐crystallization (FSC) is a new technique for concurrently crystallizing and sintering glasses, derived from flash sintering. In this study, we explore, for the first time, the use of FSC as a processing method for producing Li1.3Al0.3Ti1.7(PO4)3 (LATP) glass ceramics. Using FSC, LATP with NaSICON structure is produced at a furnace temperature as low as 460°C and a processing time of 5 min. The FSC‐processed samples with different current density limits were compared with those conventionally sinter‐crystallized (CSC) at 950°C for 1 h. We show that FSC can significantly improve the densification of LATP glass ceramics due to the volumetric high heating rate. Furthermore, the LATP samples processed by FSC exhibit superior total ionic conductivity than those processed by CSC, also surpassing the reported results for LATP with similar levels of densification. Therefore, our results suggest that FSC is a promising method for processing glass ceramics, particularly for materials with high crystallization kinetics like LATP, opening up new possibilities for the production of solid electrolytes.

Publisher

Wiley

Subject

Materials Chemistry,Ceramics and Composites

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