Energy Sources Part A Recovery Utilization and Environmental Effects · 2010 · 27 citations · 10 references
Natural SciencesChemical EngineeringChemistryCatalysisInorganic ChemistryReaction EngineeringBiomass ConversionCatalytic MaterialsBiomass CharacterizationBiomass Conversion CatalysisCatalytic Biomass ConversionCatalytic Energy ConversionMicrowave-assisted CatalysisPyrolysisRenewable Biomass ConversionThermochemical Conversion
Abstract The effect of the following catalysts: MS (Molecular sieve) 4A, Fe2O3/MS 4A, CoO/MS 4A, NiO/MS 4A, MgO/MS 4A, PtO/MS 4A, Al2O3/MS 4A, La2O3/MS 4A, Cl−/MS 3A, SO2− 4/MS 3A, Na2O/MS 3A, CaO/MS 3A, K2O/MS 3A, CoO/ZrO2, NiO/ZrO2, La2O3/ZrO2, NiO/CaO-ZrO2, Cl−/ZrO2, SO2− 4/ZrO2, Na2O/ZrO2, CaO/ZrO2, and MgO/ZrO2, on chemical profile of the products from microwave-assisted pyrolysis of biomass was studied. A microwave oven with a frequency of about 2.4 gigahertz, and a power of about 1–1.3 kilowatt was used to pyrolyze aspen (Populus tremuloides). The steam that evolved was removed from the oven and passed to a catalyst column where the temperature was controlled at about 350–600°C, and the converted vapors were then condensed to bio-oils. The chemical profiles of the bio-oils were determined using gas chromatography-mass spectrometry. Solid acids were proved to be effective catalysts to decompose pyrolysis vapors, while solid alkaline and other catalysts do not seem to affect the composition of the liquid products from microwave-assisted pyrolysis. Increasing the temperature of the catalyst bed and the ratio of catalysts to biomass adversely affected the liquid yield.
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Overview of Applications of Biomass Fast Pyrolysis Oil
Stefan Czernik, A.V. Bridgwater · Energy & Fuels · 2004 · 2.9K citations
Catalysis in thermal biomass conversion
A.V. Bridgwater · Applied Catalysis A General · 1994 · 466 citations