The sodium metal anode exhibits great potential in next-generation high-energy-density
batteries due to its high theoretical capacity (1165 mA hg− 1) at low redox potential (− 2.71 V …

Because of the high abundance, cost-effectiveness and low redox potential of Na,
rechargeable Na metal batteries (NMBs) are considered an ideal alternative and …

Abstract Sodium/Potassium (Na/K) metal anodes have been considered as the promising
anodes for next-generation Na/K secondary batteries owing to their ultrahigh specific …

Severe issues including volume change and dendrite growth on sodium metal anodes
hinder the pursuit of applicable high‐energy‐density sodium metal batteries. Herein, an in …

Zinc metal anode has serious dendrites and corrosion issues in the mild electrolyte, which
greatly hinder the commercialization of aqueous zinc-ion batteries. Herein, zinc-amalgam …

Sodium-ion batteries (SIBs) are developed to address the serious concern about the limited
resources of lithium. To achieve high energy density, anode materials with a large specific …

Abstract Development of high‐performance sodium metal batteries (SMBs) with a wide
operating temperature range (from− 40 to 55° C) is highly challenging. Herein, an artificial …

The propensity of sodium anode to form uniform electrodeposit is bound up with the nature
of electrode surface and regulation of Na‐ion flux, as well as distribution of electronic field …

Lithium (Li) metal is regarded as the most promising anode material for next-generation
secondary batteries due to its high theoretical specific capacity and low potential. However …

Electrolyte additives have an important impact on the cycling stability of sodium metal
batteries, but their applications are severely impeded by the poor compatibility with different …