Traditional Li ion batteries based on intercalation-type anodes have been approaching their
theoretical limitations in energy density. Replacing the traditional anode with metallic Li has …

Uniform lithium plating/strip** during charging/discharging in 3D lithiophilic current
collectors (3DLCC) is essential to suppress growth of lithium dendrites and to mitigate …

High-voltage lithium metal battery (LMB) with LiCoO 2 (> 4.5 V) as the cathode shows great
prospect in achieving high energy density, yet its performance is far below expectation …

Lithium metal has been considered as the ultimate anode for rechargeable batteries due to
its lowest redox potential and ultra-high theoretical capacity. Nevertheless, uneven Li …

The high reactivity of Li metal and the inhomogeneous Li deposition leads to the formation of
Li dendrites and “dead” Li, which impedes the performance of Li metal batteries (LMBs) with …

Develo** low cost, yet high-voltage electrolyte is significant to improve the energy density
and practicability of lithium metal batteries (LMBs). Low concentration electrolyte has …

Lithium metal anode (LMA) has been regarded as the “Holy grail” among next-generation
anode materials, which are severely enslaved to its poor cycling stability. Many problems …

Abstract Although three‐dimensional (3D) lithium metal electrode is effective in restricting
the Li dendrite growth upon cycling, problems associated with the unstable …

Metallic lithium (Li) is considered as the “Holy Grail” anode material for next-generation
energy storage systems due to its extremely high theoretical capacity and low …

Lithium metal battery (LMB) is regarded as a rising star for next generation high energy
density batteries. However, there is still a great challenge to achieve stable cycling of high …