Zn metal anode inevitably suffers from the dendrite growth, hydrogen evolution reaction, and
surface passivation in aqueous zinc ion batteries (AZIBs), which have significantly …

Li-metal batteries (LMBs) regain research prominence owing to the ever-increasing high-
energy requirements. Commercially available carbonate electrolytes exhibit unfavourable …

Engineering liquid electrolytes for lithium (Li)-metal electrodes has been used to control the
morphology of deposited Li in Li-metal batteries (LMBs). However, the Li corrosion problem …

The cathode materials work as the host framework for both Li+ diffusion and electron
transport in Li‐ion batteries. The Li+ diffusion property is always the research focus, while …

Passivation of the sulfur cathode by insulating lithium sulfide restricts the reversibility and
sulfur utilization of Li− S batteries. 3D nucleation of Li2S enabled by radical conversion may …

LiF‐rich solid‐electrolyte‐interphase (SEI) can suppress the formation of lithium dendrites
and promote the reversible operation of lithium metal batteries. Regulating the composition …

The carbonate electrolyte chemistry is a primary determinant for the development of high‐
voltage lithium metal batteries (LMBs). Unfortunately, their implementation is greatly plagued …

The two major issues confronting the commercialization of rechargeable lithium‐sulfur (Li−
S) batteries are the sluggish kinetics of the sulfur electrochemical reactions on the cathode …

As the core component of solid-state batteries, neither current inorganic solid-state
electrolytes nor solid polymer electrolytes can simultaneously possess satisfactory ionic …

Lithium metal anodes (LMAs) are ideal anode candidates for achieving next-generation high-
energy-density battery systems due to their high theoretical capacity (3680 mA hg− 1) and …