Lithium metal batteries (LMBs) have the potential to be the next‐generation rechargeable
batteries due to the high theoretical specific capacity and the lowest redox potential of …

The conventional conductive three‐dimensional (3D) host fails to effectively stabilize lithium
metal anodes (LMAs) due to the internal incongruity arising from nonuniform lithium‐ion …

High-energy cryogenic batteries have been pursued throughout the past decades. Anode-
free batteries offer a promising avenue to boost energy density because they comprise …

Li‐metal battery (LMB) suffers from the unexpected Li dendrite growth and unstable solid‐
electrolyte interphase (SEI), especially in the extreme conditions, such as high rates and low …

Lithium (Li) is known for excellent theoretical specific capacity and most negative
electrochemical potential, while still restricted by the irregular lithium dendrites and safety …

High‐temperature (HT) operation and storage performance of Li‐ion batteries (LIBs) are
essential for applications in electric vehicles, grid storage, or defense missions …

Lithium metal batteries have been attracting an abundance of attention recently as a
powerful competitor of the next-generation advanced energy storage technologies …

Lithium metal batteries (LMB) are thought of the most promising candidates for the next
generation of high energy density batteries, but the problems of interface instability and …

Lithium metal anode (LMA) emerges as a promising candidate for lithium (Li)‐based battery
chemistries with high‐energy‐density. However, inhomogeneous charge distribution from …

The interaction between the electrolyte and working electrode surface affects the cascade of
reactions involving Li deposition, N2, and proton carriers and consequently the NH3 …