The growth of lithium dendrites hinders the commercial applications of lithium‐metal
batteries. Electrolytes play a crucial role in influencing electrode/electrolyte interfacial …

In battery electrolyte design principles, tuning Li+ solvation structure is an effective way to
connect electrolyte chemistry with interfacial chemistry. Although recent proposed solvation …

As the promising next‐generation energy storage solution, lithium metal battery (LMB) has
gained great attention but still suffers from troubles associated with the highly active metallic …

Lithium metal batteries (LMBs) with nickel‐rich cathodes are promising candidates for next‐
generation high‐energy‐density batteries, but the lack of sufficiently protective …

The electrochemical instability of the polar solvents in electrolytes often causes
reduction/oxidation at the surface of both Li anodes and nickel-rich cathodes in high-voltage …

Lithium metal batteries operating under extreme conditions are limited by the sluggish
desolvation process and poor stability of the electrode–electrolyte interphase. However …

The advent of fast charging technologies has revolutionized the field of energy storage,
promising shorter charging times for lithium metal batteries. However, the pursuit of rapid …

Fluorinated ethers have become promising electrolyte solvent candidates for lithium metal
batteries (LMBs) because they are endowed with high oxidative stability and high …

To address the challenges associated with applying high-voltage cathodes in lithium metal
batteries (LMBs) there is a need for new electrolytes enabling stable interphases at both …

Na metal anode is one of most promising anode materials for next-generation secondary
batteries. However, the practical application of Na anode is limited by dendritic growth, rapid …