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 …

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 …

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

Solid electrolytes are considered as an ideal substitution of liquid electrolytes, avoiding the
potential hazards of volatilization, flammability, and explosion for liquid electrolyte–based …

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 …

Ion transport in crystalline fast ionic conductors is a complex physical phenomenon. Certain
ionic species (eg, Ag+, Cu+, Li+, F–, O2–, H+) in a solid crystalline framework can move as …

All-solid-state batteries, employing inorganic ion conductors as electrolytes, can surpass the
current Li-ion technology in terms of energy density, battery safety, specific power, as well as …

In the context of novel solid electrolytes for solid-state batteries, first-principles calculations
are becoming increasingly more popular due to their ability to reproduce and predict …

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

For next-generation all-solid-state metal batteries, the computation can lead to the discovery
of new solid electrolytes with increased ionic conductivity and excellent safety. Based on …