Solid‐state energy storage devices (SSESDs) are believed to significantly improve safety,
long‐term electrochemical/thermal stability, and energy/power density as well as reduce …

Abstract Lithium-oxygen (Li-O 2) batteries are considered as the next generation for energy
storages systems due to the higher theoretical energy density than that of Li-ion batteries …

Photothermal catalysis effectively increases catalytic activity by using the photothermal effect
of metal nanomaterials; however, the combination of strong light absorption and high …

Abstract Nonaqueous Li‐O2 battery (LOB) represents one of the promising next‐gen energy
storage solutions owing to its ultrahigh energy density but suffers from problems such as …

The large charge overpotential and poor cycling stability triggered by sluggish Li2O2
oxidation kinetics and severe superoxide‐related side reactions greatly restrict the …

Free radicals can improve the reaction rate, but most of them are unstable due to unpaired
electrons. Simultaneously maintaining their stability and activity is challenging. Herein …

A prepared p-type PdO/n-type TiO 2 junction was prepared as the catalyst for photocatalytic
hydrogen evolution from formic acid (FA). It was found that PdO/TiO 2 exhibited 1298-fold …

Glymes are the most widely used electrolyte solvents in lithium–oxygen batteries (LOBs) due
to their relatively high stability. However, their associated LOBs have long been plagued by …

Ether-based electrolytes with relatively high stability are widely used in Li-O 2 batteries
(LOBs) with high energy density. However, they are still prone to be attacked by reactive …

Side reactions caused by reactive oxygen species (eg, superoxide and singlet oxygen) are
limiting factors in the lithium–oxygen batteries (LOBs). Superoxide dismutase mimetics …