Fernanda Neira d'Angelo
Contributing towards a circular economy to sustain our increasingly populated planet while improving quality of life is not only my ambition, but a responsibility we need to confront.
From the fields of reaction and catalysis engineering, Fernanda Neira D’Angelo aims to develop novel technologies to intensify sustainable processes, in particular, the conversion of lignocellulosic biomass to chemicals and fuels. Her research in multiphase reactors is closely linked to the development and application of effective catalytic systems, seeking the most efficient combination and synergism between reactor engineering and catalysis. With a first-hand understanding on the limitations of conventional technologies for biomass processing, she has been increasingly devoted to the integrated development of novel reactor concepts (e.g., foam-based, spinning disc and microreactors) and catalysts (e.g., multifunctional catalysts and coatings) that will be key to realize the future bio-based economy, utilizing the entire lignocellulose fractions (sugars and lignin).
Maria Fernanda Neira D'Angelo (Buenos Aires, Argentina) studied Chemical Engineering at the Universidad Complutense de Madrid, Spain. In 2010 Neira D'Angelo graduated cum laude within the Biomass Technology Group at the department of Chemical Engineering and Chemistry at Eindhoven University of Technology (TU/e), where she conducted her master's research on biomass gasification and Fischer-Tropsch Synthesis. She continued with PhD research within the TU/e Reactor Engineering Group on the catalytic conversion of biomass via Aqueous Phase Reforming. In 2014 she obtained her PhD with the distinction cum laude. In 2014-2015 Neira d'Angelo was employed at BiChem Technology (Eindhoven), initially as research scientist and later as the project leader of the pilot-scale activities for the conversion of biomass derived sugars into valuable chemicals. In 2015 she returned to the Reactor Engineering Group at TU/e as tenure track assistant professor.
Furfural production by continuous reactive extraction(2017)
Semi-continuous and continuous furfural production with simultaneous nitrogen stripping(2017)
Facile synthesis of catalytic AuPd nanoparticles within capillary microreactors using polyelectrolyte multilayers for the direct synthesis of H2O2Nano Letters (2017)
Overview of biomass valorization from xylose to cyclopentanone(2017)
Direct synthesis of hydrogen peroxide in AuPd coated micro channels: an in-situ XAS study(2017)
- Practical process technology
- Advanced chemical reactor engineering
- Catalysis science and technology
No ancillary activities