Lithium (Li) metal, a promising anode for high‐energy‐density rechargeable batteries,
typically grows along the low‐surface energy (110) plane in the plating process, resulting in …

Lithium (Li) metal with high theoretical capacity is considered as one of the important anode
materials for the next-generation high-energy density batteries. However, the further …

Lithium metal anodes having significantly high specific capacity and low potential are
considered as the most promising candidates for high-energy-density batteries. However …

Rechargeable lithium-metal batteries (LMBs) are actively developed as a next generation
electric storage technology due to its superior high energy densities. However …

Highlights A facile method is adopted to obtain cucumber-like lithiophilic composite
skeleton. Massive lithiophilic sites in cucumber-like lithiophilic composite skeleton can …

Lithium metal has long been recognized as the ultimate anode due to its low density,
ultrahigh theoretical specific capacity, and lowest electrochemical potential. However, a …

The rechargeable lithium metal anode is of utmost importance for high‐energy‐density
batteries. Regulating the deposition/dissolution characteristics of Li metal is critical in both …

Lithium metal anodes hold great promise for enabling high-energy density devices
compared with the commercialized graphite electrode. However, huge pressure changes …

Lithium (Li) metal anode is among the most promising anodes due to its high energy density.
However, the long-standing issue of Li dendrites growth hinders the practical application of …

As the most promising anode material for lithium batteries, lithium metal faces rigorous
challenges such as uncontrollable Li dendrite growth and safety risks, which hinder its …