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 …

The burgeoning field of energy storage battery innovation has sparked a relentless pursuit of
high‐capacity anode materials to meet the escalating demand for improved energy density …

In the quest for high-capacity Li-ion batteries, moving from classical intercalation reactions
such as those occurring at graphite-based electrodes to alloying reactions is a promising …

The manipulation of stress in high‐capacity microscale alloying anode materials, which
undergo significant volumetric variation during cycling, is crucial prerequisite for improved …

Germanium (Ge) has aroused great attention due to its high theoretical capacity, benign
lithium diffusion, and low working potential. However, application of the Ge anode is …

Germanium based nanomaterials are very promising as the anodes for the lithium ion
batteries since their large specific capacity, excellent lithium diffusivity and high conductivity …

Li-and Mn-rich layered oxides (LMLOs) are promising cathode materials for Li-ion batteries
(LIBs) owing to their high discharge capacity of above 250 mA hg–1. A high voltage plateau …

Si 1-x Ge x alloys present interesting cycling performance as Li-ion anodes, owing to the
synergetic effect from silicon's high capacity and germanium's electrical conductivity and Li+ …

To realize high-capacity Ge anodes for next-generation Li+-ion batteries, a multilayer anode
with a C (top)/Ge (middle)/C (bottom) structure was developed, where nanostructured …

As fossil fuels are burned more and more for energy, the world's environmental problems get
worsen. Therefore, the research and development of renewable, clean energy sources is an …