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

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

Relationship between catalyst structure and HDS reaction mechanism

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

Relationship between catalyst structure and HDS reaction mechanism

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

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

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

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

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

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

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

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

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

Deactivation of hydrotreating catalysts: Measurement and modeling of coke deposition

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