Fundamental issues relevant to the oxygen reduction reaction (ORR) mechanism and
reaction interface are ambiguous in Li–O2 batteries. Herein, we utilized highly sensitive …

This work systematically studies the product self-catalysis of in situ electrochemical cobalt
doping of Li2O2 and reveals its potential mechanism for improving the performance of …

The performance of Li–O2 batteries (LOBs), such as capacity and overpotential, is closely
related to the morphology of the discharge product. Here, the relationship between the …

Li-air batteries (LABs) have drawn growing interest to replace Li-ion batteries due to their
extremely high theoretical energy density. However, the development of LABs is restricted …

The modeling study plays a critical role in understanding the reaction mechanisms and
predicting the performance of lithium-oxygen (Li-O 2) batteries. Although several models …

The recent growing attention towards non-aqueous Li–air batteries (LABs) stems from their
high energy density, positioning them as a key solution to the surging demand for electrical …

Unraveling the catalytic potential of nitrogen-doped carbon nanotubes (NCNTs) for the
electrochemical reaction in a Li–O2 battery (LOB) is of great significance for the preparation …

Abstract Lithium-oxygen (Li-O 2) batteries are considered one of the most promising energy
storage devices for the next generation due to their high theoretical energy density …

In this study, we propose a “checkerboard” adsorption model for Ionic liquids (ILs) on lithium
metal electrode surfaces. We selected several classical ILs featuring pyrrolidinium cations …

Li–air batteries are a promising alternative to Li-ion batteries as they theoretically provide
the highest possible specific energy density. Mainly, Li2O2 (lithium peroxide) and to a lesser …