Whether attempting to eliminate parasitic Li metal plating on graphite (and other Li‐ion
anodes) or enabling stable, uniform Li metal formation in 'anode‐free'Li battery …

Lithium, the lightest metal with the lowest standard reduction potential, has been long
considered as the ultimate anode material for next‐generation high‐energy‐density …

Practical use of lithium (Li) metal for high–energy density lithium metal batteries has been
prevented by the continuous formation of Li dendrites, electrochemically isolated Li metal …

Lithium-ion (Li-ion) batteries are the most popular energy storage technology in consumer
electronics and electric vehicles and are increasingly applied in stationary storage systems …

The lifetime of Li-ion batteries (LIBs) is highly dependent on the imperceptible
physical/chemical changes/reactions that occur on/between the electrodes and electrolyte …

The sluggish progress of battery technologies has drastically hindered the rapid
development of electric vehicles and next-generation portable electronics. The lithium (Li) …

Inhomogeneous lithium deposition or dendrite formation and occurrence of" dead lithium"
fractions are challenging issues, hampering the commercial application of lithium metal …

With the increasing demand for high energy density, traditional lithium-ion batteries with
graphite anodes can no longer meet the requirements. Accordingly, due to its extremely high …

One of the most promising means to increase the energy density of state-of-the-art lithium Li-
ion batteries is to replace the graphite anode with a Li metal anode. While the direct use of Li …

Efficient Li utilization is generally considered to be a prerequisite for developing next-
generation energy storage systems (ESSs). However, uncontrolled growth of Li …