Solar energy can be utilized in photocatalysis technology to realize light‐driven hydrogen
peroxide (H2O2) production, a green chemical synthesis route. Designing high …

Controlling the electronic structure of transition-metal single-atom heterogeneous catalysts
(SACs) is crucial to unlocking their full potential. The ability to do this with increasing …

Photocatalytic two-electron oxygen reduction to produce high-value hydrogen peroxide
(H2O2) is gaining popularity as a promising avenue of research. However, structural …

Direct hydrogen peroxide (H2O2) electrosynthesis via the two-electron oxygen reduction
reaction is a sustainable alternative to the traditional energy-intensive anthraquinone …

The modulation effect manifests an encouraging potential to enhance the performance of
single‐atom catalysts; however, the in‐depth study about this effect for the isolated diatomic …

The long-term stability of single-atom catalysts is a major factor affecting their large-scale
commercial application. How to evaluate the dynamic stability of single-atom catalysts under …

Various metal-based electrocatalysts from nanocrystals, to clusters and single-atoms, have
been well-discovered towards high-efficient power devices and electrocatalytic conversion …

Currently, more than 86% of global energy consumption is still mainly dependent on
traditional fossil fuels, which causes resource scarcity and even emission of high amounts of …

Oxygen reduction reaction via the two‐electron route (2e− ORR) provides a green method
for the direct production of hydrogen peroxide (H2O2) along with in situ utilization. The …

Metal single‐atoms implanted on nitrogen‐doped carbon matrices (M‐NxCs) can effectively
adjust local surface electrons and polarization relaxation through coordination structures to …