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 …

The widespread utilization of fossil fuels has caused an associated increase in CO 2
emissions over the past few decades, which has resulted in global warming and ocean …

The influence of different iron carbides on the activity and selectivity of iron-based Fischer–
Tropsch catalysts has been studied. Different iron carbide phases are obtained by the …

The stability and reactivity of ϵ, χ, and θ iron carbide phases in Fischer− Tropsch synthesis
(FTS) catalysts as a function of relevant reaction conditions was investigated by a synergistic …

Fischer-Tropsch to olefins (FTO) with controllable iron carbide phase and high carbon
utilization efficiency for Fe-based nanocatalyst attracts great interest but remains challenge …

The production of hydrocarbons or oxygenates via the hydrogenation–polymerisation of
either CO (Fischer–Tropsch) or CO2 as carbon sources has significant similarities from a …

Carbonaceous surface species and bulk iron carbides formed under realistic Fischer−
Tropsch synthesis (FTS) conditions on moderately dispersed, active silica-supported iron …

The Mössbauer spectroscopy of iron carbides (α-Fe, γ'-FeC, η-Fe2C, ζ-Fe2C, χ-Fe5C2, h-
Fe7C3, θ-Fe3C, o-Fe7C3, γ'-Fe4C, γ''-Fe4C, and α'-Fe16C2) is predicted utilizing the all …

A Na–S promoted Fe-based Fischer–Tropsch synthesis (FTS) catalyst converts a H2/CO gas
mixture into hydrocarbons with enriched C2–C4 olefin content. Above 300° C, the carbon …

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 …