Commercial sodium–sulphur or sodium–metal halide batteries typically need an operating
temperature of 300–350° C, and one of the reasons is poor wettability of liquid sodium on …

Sodium-ion batteries (SIBs) have been deemed to be a promising energy storage
technology in terms of cost-effectiveness and sustainability. However, the electrodes often …

Building stable electrolytes is one of the key technologies for sodium (Na)-metal batteries as
the reactive nature and the dendritic growth of Na-metal anodes. Herein, a paradigmatic and …

The high theoretical capacity and earth-abundancy of metallic sodium (Na) endow it with
high potential as the ultimate anode for batteries based on Na-ion chemistry. Nevertheless …

The successful development of post‐lithium technologies depends on two key elements:
performance and economy. Because sodium‐ion batteries (SIBs) can potentially satisfy both …

Sodium (Na) metal is able to directly use as a battery anode but have a highly reductive
ability of unavoidably occurring side reactions with organic electrolytes, resulting in …

Nonaqueous sodium-based batteries are ideal candidates for the next generation of
electrochemical energy storage devices. However, despite the promising performance at …

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 …

Here we report a room-temperature sodium metal battery, where the sodium initially stored
in a Na3V2 (PO4) 3 cathode is plated, upon charging, onto an aluminum current collector …

Although batteries fitted with sodium metal anodes and sulfur cathodes are attractive for their
higher energy density and lower cost, the threat of polysulfide migration in organic liquid …