CO2 reduction using molecular catalysts is a key area of study for achieving electrical‐to‐
chemical energy storage and feedstock chemical synthesis. Compared to classical metallic …

The conversion of CO2 into multicarbon (C2+) compounds by reductive homocoupling offers
the possibility to transform renewable energy into chemical energy carriers and thereby …

In the past few decades, the advances of CO2 reduction have been mostly focused on the
synthesis of C1 products, such as CO, formic acid, methanol, and methane. However, the …

Molecular catalysts for electrochemical and photochemical CO 2 reduction have developed
rapidly during the past two decades. Using non-noble metal (Ni, Co, Mn, Fe, and Cu) …

Molecular catalysts (metal complexes), with molecularly defined uniform active sites and
atomically precise structural tailorability allowing for regulating catalytic performance …

The catalytic conversion of CO2 into valuable chemicals and fuels has attracted increasing
attention, providing a promising route for mitigating the greenhouse effect of CO2 and also …

Abstract A structurally simple molecular 1, 10‐phenanthroline‐Cu complex on a
mesostructured graphene matrix that can be active and selective toward CO2 reduction over …

In certain metalloenzymes, multimetal centers with appropriate primary/secondary
coordination environments allow carbon–carbon coupling reactions to occur efficiently and …

Ligand non-innocence is ubiquitous in catalysis with ligands in synthetic complexes
contributing as electron reservoirs or co-sites for substrate activation. The latter chemical …

Studies of multinuclear metal complexes are greatly enhanced by resonant diffraction
measurements, which probe X-ray absorption profiles of crystallographically independent …