Nonaqueous lithium–air batteries have garnered considerable research interest over the
past decade due to their extremely high theoretical energy densities and potentially low cost …

Superoxide ion (O2•–) is of great significance as a radical species implicated in diverse
chemical and biological systems. However, the chemistry knowledge of O2•–is rather …

Non-aqueous metal–oxygen batteries depend critically on the reversible formation/
decomposition of metal oxides on cycling. Irreversible parasitic reactions cause poor …

Given their high theoretical specific energy, lithium–oxygen batteries have received
enormous attention as possible alternatives to current state-of-the-art rechargeable Li–ion …

Lithium‐air batteries have become a focus of research on future battery technologies.
Technical issues associated with lithium‐air batteries, however, are rather complex. Apart …

The catalytic union of amides, sulfonamides, anilines, imines, or N-heterocycles with a broad
spectrum of electronically and sterically diverse alkyl bromides has been achieved via a …

The reduction of molecular oxygen is the counter reaction of most photocatalytic reactions
proceeding oxidatively on titanium dioxide particles. We have quantitatively analyzed the …

Most biogerontologists agree that oxygen (and nitrogen) free radicals play a major role in
the process of aging. The evidence strongly suggests that the electron transport chain …

Aprotic sodium–O2 batteries require the reversible formation/dissolution of sodium
superoxide (NaO2) on cycling. Poor cycle life has been associated with parasitic chemistry …

Lithium iodide has been studied extensively as a redox-mediator to reduce the charging
overpotential of Li–oxygen (Li–O2) batteries. Ambiguities exist regarding the influence of …