Hydrogen binding of molecules on solid surfaces is an attractive interaction that can be used
as the driving force for bond activation, material‐directed assembly, protein protection, etc …

The development of catalytic systems capable of oxygenating unactivated C–H bonds with
excellent site-selectivity and functional group tolerance under mild conditions remains a …

Hydrogenase enzymes use Ni and Fe to oxidize H2 at high turnover frequencies (TOF)(up to
10 000 s− 1) and low overpotentials (< 100 mV). In comparison, the fastest reported …

Controlled, selective oxidations of unactivated CÀH bonds are among the most desired
transformations in catalysis.[1] Limitations to chemical oxidation catalysts include low …

Hydrogenolysis of C–O bonds is becoming more and more important for the production of
biomass-derived chemicals. Since substrates originated from biomass usually have high …

The development of catalysts with high activity, selectivity, and stability is critical for biomass
upgrading coupled with hydrogen evolution. In this study, we present a simple method for …

Spontaneous migration of atomic hydrogen species from metal particles to the surface of
their support, known as hydrogen spillover, has been claimed to play a major role in catalytic …

Although catalytic reductions, cross‐couplings, metathesis, and oxidation of C C double
bonds are well established, the corresponding catalytic hydroxylations of C H bonds in …

Hydroxyl radical (• OH)-induced oxidations are of great importance in chemical
transformations. Carbon-supported late transition-metal single-atom catalysts (SACs) with …

Directly using water as a hydrogen source for hydrogenation of nitroarenes to anilines
(HNA) without using H2 is an ideal reduction reaction route but is limited by unfavorable …