Lithium (Li) metal has been considered a promising anode for next‐generation high‐energy‐
density batteries. However, the low reversibility and intricate Li loss hinder the widespread …

Poor fast-charge capabilities limit the usage of rechargeable Li metal anodes.
Understanding the connection between charging rate, electroplating mechanism, and Li …

In the context of the gradual popularity of electric vehicles (EVs), the development of lithium
battery systems with high energy density and power density is regarded as the foremost way …

Abstract Development of high-performance rechargeable batteries is hinged on a clear
mechanistic understanding of the fundamental electrochemical processes. In operando …

Although lithium (Li) is inert to dry oxygen at room temperature, it reacts with dry oxygen at
elevated temperatures, causing thermal runaway and fire hazard in Li metal batteries …

Sodium (Na) metal batteries (SMBs) are potential “beyond lithium (Li)” energy storage
technology. However, uncontrollable Na dendrite growth hinders the practical application of …

Lithium dendrite growth due to uneven electrodeposition usually leads to the potential
hazard of internal short circuit and shorter lifetime of lithium-based batteries. Extensive …

Operando high-resolution light microscopy with extended depth of field is used to observe
large regions of an electrode during electrodeposition of lithium. The analysis of the …

Perovskite SrVO 3 has been investigated as a promising lithium storage anode where the V
cation plays the role of the redox center, combining excellent cycle stability and safe …

The growth of lithium (Li) dendrites, characterized by construction of internal Li substrate and
surface solid electrolyte interphase (SEI), represents a significant hurdle for both liquid‐state …