To trace the origin of catalyst deactivation is in many cases difficult. It is usually a complex
problem where several mechanisms contribute to the loss of activity/selectivity. Low …

Deactivation of commercially relevant cobalt catalysts for Low Temperature Fischer-Tropsch
(LTFT) synthesis is discussed with a focus on the two main long-term deactivation …

Graphene is considered as one of the most promising materials in a wide range of
applications because of its outstanding electronic, optical, thermal, and mechanical …

Slurry-phase hydrocracking employing a dispersed catalyst is an efficient technology for the
upgrading of residue to clean fuels. The green synthesis of 2D nanosheet hierarchical …

A novel N-doped porous carbon (NC) adsorbent with uniformly distributed Cobalt
nanoparticles (Co/NC) for vapor elemental mercury removal was synthesized by direct …

The basic bonding mechanisms of graphene on transition-metal surfaces leading to
chemisorption and physisorption are identified and studied in the example of graphene …

Resonance tunneling spectroscopy and density functional theory calculations are employed
to explore local variations in the electronic surface potential of a single graphene layer …

Strong interest in the Fischer–Tropsch reaction that converts synthesis gas into
hydrocarbons is reappearing because it is basic to one of the major routes that convert …

The deactivation of a 20wt% Co/γ-Al2O3 catalyst during Fischer–Tropsch Synthesis (FTS) at
240° C, 20bar, and a H2: CO ratio of 2 was studied in a fixed-bed micro-reactor. The CO …

Rational design and tailoring of the structural features of Co—N—C catalysts are urgently
required to construct highly efficient bifunctional non-noble metal electrocatalysts for both …