As an electrochemical energy‐storage technology with the highest theoretical capacity,
lithium–oxygen batteries face critical challenges in terms of poor stabilities and low …

Electro-oxidation desulfurization uses reactive oxygen species (ROSs) from water
electrolysis to strengthen the transition of sulfur-containing phase, enhancing the separation …

Although dimethyl sulfoxide (DMSO) has emerged as a promising solvent for Li–air
batteries, enabling reversible oxygen reduction and evolution (2Li+ O2⇔ Li2O2), DMSO is …

Understanding and controlling the kinetics of O2 reduction in the presence of Li+‐containing
aprotic solvents, to either Li+‐O2− by one‐electron reduction or Li2O2 by two‐electron …

In situ infrared subtractive normalized Fourier transform infrared spectroscopy (SNIFTIRS)
experiments performed simultaneously with the electroreduction of oxygen on gold and …

Fundamental understanding of growth mechanisms of Li2O2 in Li–O2 cells is critical for
implementing batteries with high gravimetric energies. Li2O2 growth can occur first by 1e …

The use of high-concentration electrolytes in lithium metal batteries enables the effective
suppression of lithium dendrite growth at the lithium anode. The issue of the solvation …

A fundamental understanding of the mechanisms of both the oxygen reduction reaction
(ORR) and the oxygen evolution reaction (OER) in nonaqueous lithium–oxygen (Li–O2) …

The oxygen reduction reaction (ORR) on Au electrodes has been studied in DMSO at
different Li+ concentrations. In‐operando fluorescence decay of 9, 10‐dimethyl anthracene …

In the present paper the role of the electrode material in oxygen reduction in DMSO based
electrolytes is elucidated using DEMS. We have found, employing platinum, gold, ruthenium …