Keywordsplatinum catalyst; nickel catalyst; copper catalyst; glycerol hydrodeoxygenation; ethanol reforming; 1,2-propanediol; aqueous phase; biomass; solid acid; zirconia; glucose; HMF; tungstate; Fischer-Tropsch synthesis; density functional theory; multicomponent catalysts; advanced oxidation technology (AOT); heterogeneous photocatalysis; emerging contaminants (ECs); endocrine disrupting chemicals (EDCs); paracetamol; TiO2; glass spheres; raw glycerol; AuPd; liquid phase oxidation; WGS; cerium oxide; carbon support; OSC; Ni based catalysts; amination; allylic alcohols; palladium; DFT calculations; allylic alkylation; IT-SOFCs; cathode; LSCF; metal promotion; Pt catalysts; methanol electro-oxidation; carbon xerogel; carbon black; molybdenum carbide; Mo2C; biomass; bio-oil; pyrolysis oil; hydroprocessing; acetic acid hydrogenation; heterogeneous catalysis; activated carbon; carbon nanofibers; carbon nanotubes; molybdenum; carbide catalysts; hydrodeoxygenation; guaiacol; bio-oil upgrading; isobutane; methacrylic acid; selective oxidation; characterization by in situ methods; heteropolymolybdates; conjugated polymers; metathesis; ruthenium; molybdenum; defect-free; PFV; cyclohexene; epoxidation; photocatalysis; V-Ti/MCM-41 photocatalyst; real-time Raman spectroscopy; reaction kinetics; thermodynamic consistency; nickel; steam reforming; dry reforming; partial oxidation; microgravity; gravity; cerium oxide; ceria; synthesis of ceria; morphology; particle size; nanorods; Fischer-Tropsch synthesis; solvent-deficient precipitation; iron catalyst; catalyst preparation; catalyst characterization; Fischer-Tropsch catalyst; hydrothermal synthesis; bismuth molybdate; effect of pH; propylene oxidation; acrolein; titanium dioxide; MCM-48; cubic mesoporous materials; cyclohexene; epoxidation; n/a
