Prof. Pérez-Ramírez (1974) pursues the design of heterogeneous catalysts and reactor concepts devoted to sustainable technologies. The latter secures the efficient utilization of natural resources, the transition to renewables, reduced energy consumption and waste, and minimized environmental impact. Topics of current interest include natural gas functionalization, carbon dioxide valorization, biomass to chemicals and fuels, the manufacture of specialty chemicals, and the rational understanding of catalyst scale up. He is responsible for educating undergraduate students at ETH Zurich in reaction engineering and catalysis, emphasizing the vital importance of these disciplines to tackle the current and future energy and environmental challenges of society.
Download Javier Pérez-Ramírez's detailed Curriculum Vitae
|2012‑2014||Chairman of the Institute for Chemical and Bioengineering, ETH Zurich|
|2010‑||Full Professor of Catalysis Engineering, ETH Zurich|
|2005‑2008||Associate Professor, Universitat Rovira i Virgili, Tarragona, Spain|
|2005‑2009||ICREA Professor, Institute of Chemical Research of Catalonia, Tarragona, Spain|
|2003‑2005||Senior Scientist at Yara International, Porsgrunn, Norway|
|2002-2003||Scientist at Norsk Hydro, Porsgrunn, Norway|
|1998‑2002||PhD Catalysis (cum laude), Delft University of Technology, Netherlands. Catalyzed N2O Activation: Promising (New) Catalysts for Abatement and Utilization. Advisors: Profs. F. Kapteijn and J.A. Moulijn|
|1993‑1997||MSc in Chemical Engineering with highest distinction, University of Alicante, Spain|
|-||Authored or co-authored over 350 publications in peer-reviewed scientific journals|
|-||>17000 citations, with an average of >40 citations per paper|
|-||Hirsch index: 69 (Scopus), 74 (Google Scholar)|
|-||Inventor of 17 patents/patent applications, 4 of which exploited industrially|
|-||Authored or co-authored 5 book chapters|
|-||Supervised 17 completed doctoral theses|
Awards and Honors
|2018||Xingda Lectureship, Peking University, China|
|2017||Sustainable Energy Award, Royal Society of Chemistry, UK|
|2014||Beilby Medal and Prize, Society of Chemical Industry and Royal Society of Chemistry, UK|
|2013||EFCATS Young Researcher Award, European Federation of Catalysis Societies|
|2013||Fellow of the Royal Society of Chemistry, UK|
|2013||Andrew Main Lectureship, University of Alberta, Canada|
|2012||Otto-Roelen Medal, Dechema, Germany|
|2012||UOP-Honeywell Invitational Lectureship, US|
|2009||Journal Grant for International Authors, Royal Society of Chemistry, UK|
|2007||Journal Grant for International Authors, Royal Society of Chemistry, UK|
|2006||Most Cited Author 2001-2005, Journal of Catalysis, Elsevier Science|
|2003||KNCV Prijs voor Katalyse, Dutch Catalysis Society|
|2002||Dow Energy Dissertation Award, The Dow Chemical Company|
|1999||Presentation prize, AIChE Meeting, Scheiveningen, the Netherlands|
Other Indicators of Esteem
|-||Deputy Director of Studies, BSc Chemical Engineering and MSc Chemical and Bioengineering, ETH Zurich|
|-||Associate Editor of Catalysis Science & Technology, RSC Publishing|
|-||Serves on the editorial and/or advisory board of Advanced Functional Materials, Applied Catalysis B, ChemCatChem, Catalysis Communications, and Energy Technology|
|-||Delivered >30 plenary and >15 keynote lectures in international conferences, and >200 invited lectures worldwide|
|-||Founder and President of SwissCat, the Catalysis section of the Swiss Chemical Society|
|-||Representative of the European Federation of Catalysis Societies council|
|-||Member of the executive committee of the Division of Chemical Research of the Swiss Chemical Society|
|-||Member of the Royal Society of Chemistry, American Chemical Society, Swiss Chemical Society, and Dechema|
|-||Member of the Scientific Advisory Board of the Max-Planck Institut für Kohlenforschung, Mulheim, Germany, and the National Institute of Chemistry Slovenia|
|-||Consulting activities for several companies and agencies in the field of petrochemistry, oil and gas conversion, fertilizers, materials characterization, and environmental catalysis|
|-||Visiting Professor at UC Berkeley (2007) and Ensicaen (2009)|
Natural gas valorization
Catalyst and reactor design for the halogen-mediated functionalization of natural gas constituents and for their further conversion into valuable products.
Electrocatalytic CO2 valorization
Design of nanostructured catalysts based on earth-abundant materials for electroreduction of CO2 into liquid and gaseous products aiming at the implementation in (photo)electrochemical devices.
Thermocatalytic CO2 valorization
Development of metal (oxide) catalysts and reactor concepts for the selective hydrogenation of CO2 to methanol, higher alcohols, and formic acid, which serve as chemical intemediates, fuels, fuel additives, and hydrogen carriers.
Design of sustainable chemocatalytic processes for the conversion of renewables into valuable products. This includes the upgrading of a wide range of bio-based compounds (crude bio-oil, hemicellulose, monosaccharides, sugar-derived platforms, and glycerol) to chemicals, polymer buiding blocks, and transportation fuels over acid-base, redox, or bifunctional materials.
Synthesis-property-function relations in industrially-relevant catalysts
Development of spectroscopy, microscopy, and tomography methods applied during the preparation and operation of heterogeneous catalysts to establish synthesis-structure-activity relations in the targeted catalytic processes. Particular emphasis is placed on understanding the evolution and impact of physical and chemical properties within multicomponent materials with technical geometries, aiming to rationalize the scale up and ultimately maximize the performance in industrial reactors. This involves frequent cooperation with ScopeM and neutron/synchrotron facilities.
Pore connectivity in hierarchical materials
Development of advanced tools, including positron annihilation lifetime spectroscopy, scanning gas sorption techniques, and microscopy methods, to quantitatively assess the complex pore architecture in hierarchically-structured materials, such as zeolites, carbons, and clays.
Single-atom/ensemble heterogeneous catalysis
Precision design of active single atomic centers or ensembles in heterogeneous catalysts. This is approached through the stabilization of metal atoms on versatile carriers as carbon nitride, controlling the defect chemistry of metal oxides, and the development of tailored acid, base, and redox centers in micro-/mesoporous materials.
Design of size- and shape-controlled metal (oxide) nanoparticles for the selective hydrogenation of functionalized substrates. This also includes the modification of metal nanoparticles with ligands to alter activity and selective patterns via electronic/geometric effects.
Halogen chemistry on catalytic surfaces
Halogen production, oxyhalogenation of alkenes and alkanes, hydrochlorination, and hydrodehalogenation processes relevant for natural gas functionalization and polymer manufacture.
Our current projects are sponsored by ETH Zurich, the Swiss National Science Foundation, the European Union, and industrial partners including Covestro, Total, DSM, and Micromeritics.
Prof. Pérez-Ramírez has been active for 20 years (including a 4-year PhD period and 3 years in industry) in the discovery and understanding of heterogeneous catalysts and reactor concepts devoted to sustainable technologies for the production of chemicals and fuels. He currently heads the group of Advanced Catalysis Engineering (aCe) at ETH Zurich, which works at the interfaces of chemistry, chemical engineering, and materials science and is internationally renowned for the design of novel catalytic materials amenable to industrial implementation. In the period 2013-2018, aCe has made notable accomplishments in challenging timely fields including the valorization of carbon dioxide, natural gas, and renewables, the design of single-atom catalysts, the analysis of pore quality in hierarchically-organized materials, and the development of other novel catalytic systems for various transformations of current and future relevance. Read more.
529-0617-00L | Catalysis Engineering
529-0633-00L | Heterogeneous Reaction Engineering
Click here for further information about Masters projects offered at aCe and course materials
jpr in action. First disclosure of the photolithography method developed at aCe to design electrocatalysts for CO2 reduction, Shenzhen, January 2018
Javier in the high-pressure laboratory holding the indium oxide catalyst discovered by aCe for sustainable methanol synthesis via CO2 hydrogenation
Delivering a lecture at the 19th Chinese Zeolite Conference 2017
Delivering a lecture in an inspiring hall at SECAT 2015
Inspiration for the design of smart catalyts for the valorization of alternative feedstocks can come from anywhere
Somewhere around Coarsegold, California
Attending the 15th International Congress on Catalysis 2012