Solid-state lithium metal batteries (SSLBs) using inorganic solid-state electrolytes (SSEs)
have attracted extensive scientific and commercial interest owing to their potential to provide …

Solid-state batteries can be built based on thiophosphate electrolytes such as β-Li3PS4. For
the preparation of these solid electrolytes, various solvent-based routes have been reported …

The influence of the microstructure on the ionic conductivity and cell performance is a topic
of broad scientific interest in solid-state batteries. The current understanding is that …

Halide solid electrolytes (SEs) have been highlighted for their high-voltage stability. Among
the halide SEs, the ionic conductivity has been improved by aliovalent metal substitutions or …

If all‐solid‐state fluoride‐ion batteries want to compete with existing battery technologies,
significant improvements in terms of cyclic stability are necessary to fully access the high …

With the rapid development of electronic devices and electric vehicles, people have higher
requirements for lithium-ion batteries (LIBs). Fast-charging ability has become one of the key …

The structure family of perovskites and related phases contains a large variety of
compounds with versatile properties and applications. While perovskite structures of the AIB …

The understanding of transport in Li+ solid ionic conductors is critical for the development of
solid-state batteries. The influence of activation volumes on ion transport in solid electrolytes …

Cathode degradation of Li-ion batteries (Li+) continues to be a crucial issue for higher
energy density. A main cause of this degradation is strain due to stress induced by structural …

For all-solid-state batteries, the particle size distribution of the solid electrolyte is a critical
factor. Small particles are preferred to obtain a high active mass loading of cathode active …