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 …

Iron carbides are of burgeoning interest in both fundamental scientific research and fuel
technology due to their electronic, magnetic, and catalytic properties. They are arguably …

In situ-formed iron carbides (FeC x) are the key components responsible for Fischer–
Tropsch synthesis (FTS, CO+ H2→ long-chain hydrocarbons) on Fe-based catalysts in …

Considerable progress has been made in the conversion of carbon dioxide (CO2), which is
highly thermodynamically stable, into liquid hydrocarbons using metal oxide/zeolite …

Noble metals have been extensively employed in a variety of hydrotreating catalyst systems
for their featured functionality of hydrogen activation but may also bring side reactions such …

Iron-based catalysts are considered active for the hydrogenation of CO2 toward high-order
hydrocarbons. Here, we address the structural and chemical evolution of oxide-supported …

At present, the catalytic conversion of carbon-containing resources remains a major
challenge faced during the economic growth and energy mix adjustment around the world …

Carbide formation on iron-based catalysts is an integral and, arguably, the most important
part of the Fischer–Tropsch synthesis process, converting CO and H2 into synthetic fuels …

Direct production of light olefins from synthesis gas through the Fischer–Tropsch to Olefins
(FTO) process over iron carbide catalysts is promising. Several mechanisms have been …

Elucidation of intrinsic working principle of single-phase iron carbide and its facet-
dependent catalytic behavior remains a substantial challenge in iron-catalyzed Fischer …