Solid-state batteries with lithium metal anodes have the potential for higher energy density,
longer lifetime, wider operating temperature, and increased safety. Although the bulk of the …

Solid‐state electrolytes are critical for the development of next‐generation high‐energy and
high‐safety rechargeable batteries. Among all the candidates, sodium (Na) superionic …

Solid electrolytes in rechargeable lithium-metal batteries are susceptible to lithium-metal
short circuiting during plating, and the root cause is under debate. In this work, we …

Metal-dendrite penetration is a mode of electrolyte failure that threatens the viability of metal-
anode-based solid-state batteries. Whether dendrites are driven by mechanical failure or …

Metal batteries have attracted significant interest due to their higher energy density
compared to state-of-the-art metal-ion batteries. However, the combination of a metal anode …

Solid electrolytes hold the promise for enabling high-performance lithium (Li) metal
batteries, but suffer from Li-filament penetration issues. The mechanism of this rate …

The Li metal anode possesses the high specific capacity and the minimum reduction
potential known as the renaissance of high-energy-density battery. However, the security …

Solid-state batteries have great potential for future energy storage because of their high
energy density and enhanced safety. However, uneven Li plating/stripping due to a poor …

All solid-state batteries (ASSBs) with ceramic electrolytes and alkali metal anodes are a
potential future energy storage technology for vehicle electrification and smart grids …

High interfacial impedance is a major obstacle in the application of solid‐state Li metal
batteries (SSLMBs). Understanding the atomic‐scale structure of the interfaces in SSLMBs is …