Inorganic Materials and Heterogeneous Catalysis

The research in the Søren Kegnæs Group focuses on the design and synthesis of inorganic materials for heterogeneous catalysis. We specialize in developing functional nanomaterials and high-surface-area materials with controlled porosity to optimize performance in sustainable chemical processes. Our research bridges fundamental studies of catalyst structure and reactivity with applications of direct industrial relevance, particularly in CO₂ conversion and biomass valorization.

Research

We combine advanced materials synthesis with comprehensive catalytic testing and characterization. Current projects explore the origins of selectivity in CO₂ hydrogenation and the development of new heterogeneous catalysts for efficient CO₂ utilization. A strong emphasis is placed on operando spectroscopy to uncover reaction mechanisms under working conditions.

Recent contributions include the direct catalytic conversion of CO₂ and biogas into chemicals and fuels, as well as the development of novel zeolites and porous inorganic materials. By linking catalyst design, mechanistic understanding, and process engineering, we contribute to the development of sustainable catalytic technologies with potential for commercial implementation, bridging the gap between academic innovation and the industry.

Contact

Vacancies

Ongoing research projects involve mechanistic studies to uncover the origins of selectivity in CO₂ hydrogenation, as well as the development of high-entropy oxide catalysts for the reverse water-gas shift reaction.

Our group is also involved in Reformable, a pre-commercial DTU startup that deals with catalytic dry reforming of methane and CO2.

Group members