For nearly a century, the Fischer–Tropsch (FT) reaction has been subject of intense debate.
Various molecular views on the active sites and on the reaction mechanism have been …

The emerging process of CO2 hydrogenation through heterogenous catalysis into important
bulk chemicals provides an alternative strategy for sustainable and low-cost production of …

Transformation of CO2 into precursors for chemicals and fuels by self-contained reducing
gas contaminants (for example, CH4) is attractive from a carbon economy perspective …

Carbon recycling will become a dominant trend toward alleviating extreme climate change
and coping with the increasing energy demand in the coming years. Solar-driven strategies …

Syngas chemistry has been under study since Fischer–Tropsch synthesis (FTS) was
invented in the 1920s. Despite the successful applications of FTS as the core technology of …

The migration of reducible metal oxides (for example, TiO2) to the surface of metal
nanoparticles can inhibit sintering but has a strong negative impact on the catalytic activity …

Although considerable efforts have been made in the selective conversion of syngas [carbon
monoxide (CO) and hydrogen] to olefins through Fischer-Tropsch synthesis (FTS),~ 50% of …

Nanostructured materials of diverse architecture are ubiquitous in industrial catalysis. They
offer exciting prospects to tackle various sustainability challenges faced by society. Since the …

The surface and interfaces of heterogeneous catalysts are essential to their performance as
they are often considered to be active sites for catalytic reactions. With the development of …

Catalytic transformations of syngas (a mixture of H2 and CO), which is one of the most
important C1-chemistry platforms, and CO2, a greenhouse gas released from human …