Rechargeable aqueous Zn-ion batteries (ZIBs) featuring the advantages of high safety, low
cost, environmental friendliness, and satisfactory energy density have been considered as …

Because of their high capacity and appropriate structure, vanadium (V)-based materials
make up a large proportion of the research on cathodes for rechargeable aqueous zinc–ion …

Aqueous zinc‐ion batteries have drawn increasing attention due to the intrinsic safety, cost‐
effectiveness and high energy density. However, parasitic reactions and non‐uniform …

Routine electrolyte additives are not effective enough for uniform zinc (Zn) deposition,
because they are hard to proactively guide atomic‐level Zn deposition. Here, based on …

The unstable Zn interface caused by undesired dendrites and parasitic side reactions
greatly impedes the deployment of aqueous Zn metal batteries. Herein, an efficient …

Rechargeable aqueous zinc batteries are finding their niche in stationary storage
applications where safety, cost, scalability and carbon footprint matter most. However …

Uncontrolled dendrites growth and serious parasitic reactions in aqueous electrolytes,
greatly hinder the practical application of aqueous zinc‐ion battery. On the basis of in situ …

In situ formation of a stable interphase layer on zinc surface is an effective solution to
suppress dendrite growth. However, the fast transport of bivalent Zn-ions within the solid …

Despite their cost-effectiveness and intrinsic safety, aqueous zinc-ion batteries have faced
challenges with poor reversibility originating from various active water-induced side …

Aqueous rechargeable zinc‐ion batteries (ARZBs) are impeded by the mutual problems of
unstable cathode, electrolyte parasitic reactions, and dendritic growth of zinc (Zn) anode …