Owing to their dazzling physicochemical properties, metal–organic frameworks (MOFs) have
been extensively studied in the arena of the energy industry. Nevertheless, the intrinsically …

Compared with conventional positive electrode materials in Li‐ion batteries, Li‐rich
materials have a huge advantage of large specific capacities of> 300 mAh g− 1. Anionic …

The rapid elimination of volatile organic compounds and the intermediate analysis with
efficient photothermal catalysis are of great significance to the environment. Oxygen …

Redox from the holes at the O2p orbitals is a well‐known phenomenon in Li‐rich Mn‐based
batteries. However, such an anionic redox process results in the formation of O2, leading to …

Lithium-rich layered oxides have emerged as a new model for designing the next generation
of cathode materials for batteries to assist the transition to a greener energy system. The …

Huge active Li+ loss in the initial cycle owing to the formation of solid electrolyte interface
(SEI) layer of anode restrict the enhancement of high-energy–density lithium-ion batteries …

TiNb2O7 has attracted extensive attention from lithium-ion battery researchers due to its
superior specific capacity and safety. However, its poor ion conductivity and electron …

Abstract High‐capacity Li‐rich Mn‐based oxide cathodes show a great potential in next
generation Li‐ion batteries but suffer from some critical issues, such as, lattice oxygen …

Li-rich Mn-based layered oxides (LLOs) exhibiting ultrahigh specific capacity larger than 250
mAh g− 1 have become the most promising cathode candidate for high energy density …

Lithium-rich manganese-based oxides (LRMOs) have been considered as one of the most
promising cathode materials owing to their superior specific capacity and high operating …