Single-atom alloys (SAAs) play an increasingly significant role in the field of single-site
catalysis and are typically composed of catalytically active elements atomically dispersed in …

The activation of O2 on metal surfaces is a critical process for heterogeneous catalysis and
materials oxidation. Fundamental studies of well-defined metal surfaces using a variety of …

The direct synthesis of hydrogen peroxide (H2+ O2→ H2O2) may enable low-cost H2O2
production and reduce environmental impacts of chemical oxidations. Here, we synthesize a …

Direct synthesis (H2+ O2→ H2O2) is a promising reaction for producing H2O2, which can
replace chlorinated oxidants in industrial processes. The mechanism of this reaction and the …

Catalytic reactions that utilize H2O2 as a terminal oxidant possess high selectivities for
industrially relevant oxidations that rival Cl2 mediated chemistry and reactions with organic …

We examine relationships between H2O2 and H2O formation on metal nanoparticles by the
electrochemical oxygen reduction reaction (ORR) and the thermochemical direct synthesis …

Abstract Direct synthesis (H 2+ O 2→ H 2 O 2) could produce H 2 O 2 (an environmentally
benign oxidant) more cost-effectively and sustainably than anthraquinone oxidation …

Many natural oxidations are relevant to the origin and running of life but usually proceeded
under mild conditions using molecular oxygen (O2) in the air as the sole oxidant and …

Hydrogen peroxide production by direct synthesis (H2+ O2→ H2O2) is a promising
alternative to the commercialized indirect process involving sequential hydrogenation and …

The introduction of small quantities of tertiary base metals into supported AuPd
nanoparticles results in improved catalytic performance towards the direct synthesis of …