Deactivation of hydroprocessing catalysts

How Do HDS Catalysts Work? New insights in reaction mechanism and active phase using quasi in-situ FTIR

The importance on unbound hydrogen and increased aromatic structure on the friction and wear behaviour of amorphous hydrogenated carbon (a-C:H) coatings

Relationship between catalyst structure and HDS reaction mechanism

The prominent role of hydrogen in liquid phase hydroprocessing by NiMo based catalysts

Deactivation of Mo/AI203 and NiMo/AI203 catalysts during hydrodesulfurization of thiophene

Dynamic behavior of the active phase of hydroprocessing catalysts during the hydrodesulfurization of thiophene

Active sites and activity in HDS catalysis: The effect of H2 and H25 partial pressure

Activity and deactivation of hydrotreating catalysts: Studying the active phase using CO as a probe molecule

Relationship between catalyst structure and HDS reaction mechanism

Active sites and activity in HDS catalysis: The effect of H2 and H2S partial pressure

H2 and H2S partial pressure in HDS catalysis: explaining the apparent zero-order behavior in a trickle flow reactor

The importance of unbound hydrogen and increased aromatic structure on the friction and wear behaviour of amorphous hydrogenerated carbon (a-C-H) coatings

Dynamic behavior of the active phase of Mo and NiMo based hydroprocessing catalysts during the HDS of thiophene

Deactivation of hydrotreating catalysts: thiophene HDS and a characterization of spent catalysts

Deactivation of hydrotreating catalysts: Measurement and modeling of coke deposition

Activity and deactivation of HDS catalysts: studying the active phase using Co as a probe molecule

Deactivation of hydrotreating catalysts: the role of coking during liquid phase operation

The hydroprocessing catalyst extrudate as a chemical reactor with deactivation due to unwanted side reactions.

Applicability of supercritical water as a reation medium for desulfurisation and demetallisation of gasoil