Tremendous interest in solid-state devices has prompted the development of descriptors that
can be utilized to develop better materials. Previous work mostly focused on the static …

As an indispensable component in solid-state devices, superionic conductors can exhibit
liquid-like and exceptionally high alkali cation conductivity in their crystalline lattices. A …

We report on a family of lithium fast ion conductors, Li3+ x [Si x P1–x] S4, that exhibit an
entropically stabilized structure type in a solid solution regime (0.15< x< 0.33) with …

A basic understanding of the driving forces of ion conduction in solids is critical to the
development of new solid-state ion conductors. The physical understanding of ion …

Super-ionic conductor materials have great potential to enable novel technologies in energy
storage and conversion. However, it is not yet understood why only a few materials can …

The Li7P3S11 glass-ceramic is a promising superionic conductor electrolyte (SCE) with an
extremely high Li+ conductivity that exceeds that of even traditional organic electrolytes. In …

Single-ion conducting solid electrolytes are gaining tremendous attention as essential
materials for solid-state batteries, but a comprehensive understanding of the factors that …

The attractive safety and long-term stability of all solid-state batteries has added a new
impetus to the discovery and development of solid electrolytes for lithium batteries. Recently …

The correlation between lattice chemistry and cation migration in high‐entropy Li+
conductors is not fully understood due to challenges in characterizing anion disorder. To …

Solid-state materials with high ionic conduction are necessary for many technologies,
including all-solid-state lithium (Li)-ion batteries. Understanding how crystal structure …