Bio-oil to chemicals and fuels: (in situ) catalyst deactivation studies at multiple length scales
Lignocellulosic (pyrolytic) bio-oils are particularly attractive as bio-based feedstock for the production of both fuels and chemicals, as these liquids are dense and transportable and they can be produced from biomass in one-step process. One of the most advantageous ways of bio-oils to fuels conversion is by co-feeding the bio-oil in a conventional fluid catalytic cracking process (FCC), but at present this approach suffers from reduced gasoline production and increased coking. Alternatively, the bio-oil can be catalytically upgraded to commodity chemicals such as olefins and aromatics (e.g. BTX), a process that at present also suffers from catalyst deactivation and limited selectivity.
In this project, our purpose is to study in detail catalyst deactivation for these two processes by means of fluidized bed reactor model setup which combines experimental and spectroscopic approaches allowing us the in-situ monitoring of the catalytic process and the in-situ study of catalyst deactivation with vibrational and spectroscopic techniques.
PhD candidate under supervision of prof.dr.ir. Bert Weckhuysen and dr. Pieter Bruijnincx at the faculty of Inorganic Chemistry and Catalysis, Utrecht University. Focus of research: “Bio-oil to chemicals and fuels: (in situ) catalyst deactivation studies at multiple length scales”
Master’s degree in “Synthesis, Catalysis and Molecular Design”., Universitat Rovira I Virgili, Spain.
Thesis entitled: “Synthesis of supported bifunctional Ni/H+ catalysts and comparison of their catalytic activities in 1,2- and 1,3-propanediol formation”.
Bachelor’s degree in Chemistry, Universitat Rovira I Virgili, Spain.
Born in Barcelona, Spain (27th of January)
Chemical Engineering Science, 198 , pp. 305-316, 2019.
Chemical Engineering Science, 2018, (cited By 0; Article in Press).