Lithium-rich layered oxides (LRLOs) are regarded as promising candidates for next-
generation cathode materials because of their high energy density derived from anionic …

To explore the possibility of oxygen dimerization─ particularly, the formation of molecular
oxygen-like species─ in the bulk of LiNiO2 lithium ion cathode materials at high states of …

Manganese/nickel-based layered transition metal oxides have caught the attention of
studies as promising cathodes for sodium-ion batteries (SIBs). It is reported that utilizing both …

Due to their stable crystal framework, promising energy density, and structural versatility,
layered 3d transition metal oxides have emerged as the preferred cathodes for lithium‐ion …

Hydrogen titanates (HTOs) form a diverse group of metastable, layered titanium oxides with
an interlayer containing both water molecules and structural protons. We investigated how …

Delithiation of layered oxide electrodes triggers irreversible oxygen loss, one of the primary
degradation modes in lithium-ion batteries. However, the delithiation-dependent …

Despite the potential to increase the energy limit of Li-rich cathodes by using oxygen redox,
its practicality has been limited by the accompanying structural changes and voltage …

Owing to anionic oxygen redox, cathode materials containing lithium-rich oxides (LROs)
exhibit a large discharge capacity exceeding 300 mAh/g. This makes them viable choices for …

The role of dynamically generated vacancies associated with cation migrations in activating
or facilitating the anion redox reaction (ARR) in layered oxides is still unknown. By taking P2 …

The use of lithium‐rich manganese‐based oxides (LRMOs) as the cathode in all‐solid‐state
batteries (ASSBs) holds great potential for realizing high energy density over 600 Wh kg− 1 …