High-weight-percentage silicon (Si) in graphite (Gr) anodes face commercialization hurdles
due to fundamental and interrelated challenges. Nevertheless, using the existing …

Si provides an effective approach to achieving high‐energy batteries owing to its high
energy density and abundance. However, the poor stability of Si requires buffering with …

Huge volume expansion, unstable SEI-film evolution and uncontrollable Li plating remain
challenging issues for achieving high energy-density and fast charging graphite/silicon …

SiO, comprised of silicon and silicon dioxides (SiO2), is one of the most commercially
promising anode materials to mix with current widely used graphite for the high energy …

The reaction processes in Li‐ion batteries can be highly heterogeneous at the electrode
scale, leading to local deviations in the lithium content or local degradation phenomena. To …

Abstract Silicon monoxide (SiO)(silicon [Si] mixed with silicon dioxide [SiO2])/graphite (Gr)
composite material is one of the most commercially promising anode materials for the next …

Alloy‐type materials are desirable for high‐energy sodium‐ion batteries. Different from
nanoengineering with pre‐reserving void space and confined carbon coatings, microsized …

Reaction heterogeneity is a crucial factor that influences the design of composite electrodes.
Silicon–graphite composites exhibit practical use as anodes, but the complex mechanisms …

Silicon anode is endowed with a high theoretical specific capacity. Unfortunately, its
applicability in lithium-ion batteries is hindered by several inevitable problems, which are …

Anodes with blended active materials, containing SiOx as a secondary material in addition
to graphite, gain interest in research and commercial applications to increase the capacity of …