Jan Philipp Hofmann
Inorganic Materials Chemistry enables key transformations for our future energy system. By gaining fundamental insight into functional materials and educating young researchers, I strive to further our knowledge in this important field.
The research of Jan Philipp Hofmann is centered around the conversion of solar energy into chemical energy by (photo)electrochemical water splitting and CO2 reduction. The main focus of the Solar Fuels Catalysis team is on the development and application of advanced spectroscopy and synchrotron-based X-ray structural techniques. The aim is to arrive at comprehensive experimental structure-property relationships and mechanistic insight under in-situ conditions, and to design and prepare functional (nano)materials for chemical energy conversion. Techniques to assess interface energetics and surface chemistries play a key role and are actively applied and developed further. Examples are laser-triggered time-resolved infrared spectroscopy for the investigation of charge carrier and adsorbate dynamics in inorganic photoabsorbers, and photoelectron spectroscopies. The current portfolio is complemented by Hofmanns past experience in surface chemistry and model catalysis, where also theoretical modelling played a significant role.
Jan Philipp Hofmann studied chemistry at Justus-Liebig University (JLU) in Giessen, Germany and at Roskilde University, Denmark. He graduated in 2005 with a thesis in organic chemistry and went on to obtain his PhD in physical chemistry from JLU Giessen in 2009 in the group of professor Herbert Over, with a surface science study on chlorinated ruthenium dioxide model catalysts. In 2010, he was a postdoctoral researcher in Giessen in a joint industry-academia project on chlorine recycling. In 2011, he became a postdoc with professor Bert Weckhuysen at Utrecht University. Since spring 2013 he is assistant professor (tenured in May 2016) in the Inorganic Materials Chemistry group of professor Emiel Hensen at Eindhoven University of Technology.
Evaluating the stability of Co2P electrocatalysts in the hydrogen evolution reaction for both acidic and alkaline electrolytesACS Energy Letters (2018)
Low-temperature plasma-enhanced atomic layer deposition of 2-D MoS2Nanoscale (2018)
Marrying SPR excitation and metal-support interactionsNanoscale (2018)
Interplay between surface chemistry, precursor reactivity, and temperature determines outcome of ZnS shelling reactions on CuInS2 nanocrystalsChemistry of Materials (2018)
On the origin of the photocurrent of electrochemically passivated p-InP(100) photoelectrodesPhysical Chemistry Chemical Physics (2018)
- Standard final bachelor project ST
- Characterization of materials
- Modern concepts in catalysis
- Capita selecta
- Inorganic chemistry and materials
- Workgroup leader of FOM University group E-33, FOM - Stichting voor Fundamenteel Onderzoek der Materie