Lithium (Li) metal, owing to its high specific capacity and low redox potential as a Li+ ion
source in rechargeable lithium batteries, shows impressive prospects for electrochemical …

An intrinsic challenge of Li‐ion batteries is the instability of electrolytes against anode
materials. For anodes with a favorably low operating potential, a solid‐electrolyte interphase …

Rechargeable lithium (Li)-metal batteries (LMBs) offer a great opportunity for applications
needing high-energy-density battery systems. However, rare progress has been …

The low Coulombic efficiency of the lithium metal anode is recognized as the real bottleneck
to practical high‐efficiency lithium metal batteries with limited Li excess. The grain size and …

Commercial deployment of lithium anodes has been severely impeded by the poor battery
safety, unsatisfying cycling lifespan, and efficiency. Recently, building artificial interfacial …

Lithium (Li) metal is regarded as a “Holy Grail” electrode for next‐generation high‐energy‐
density batteries. However, the electrochemical behavior of the Li anode under a practical …

Na metal anode receives increasing attention as a low-cost alternative to Li metal anode for
the application in high energy batteries. Despite extensive research efforts to improve the …

Lithium metal has traditionally been regarded as an ideal anode material for high energy
density batteries owing to its ultra-high theoretical specific capacity (3862 mA hg− 1) …

The energetic chemical reaction between Zn (NO3) 2 and Li is used to create a solid‐state
interface between Li metal and Li6. 4La3Zr1. 4Ta0. 6O12 (LLZTO) electrolyte. This …

Lithium-sulfur battery has received wide interest owing to its high theoretical energy density
and abundant sulfur resources. Sulfurized pyrolyzed poly (acrylonitrile)(S@ pPAN) cathode …