CO2 conversion into formic acid via a gliding arc plasmatron

Propane dehydrogenation using the TAP

Reduction of the CO2 Footprint of ArcelorMittal Steel by Super-Dry Reforming

Tuning CO₂ Methanation over Ni-Based Catalysts via Metal-Oxide Interface Engineering

Advanced recycling of plastic waste: homogeneous and heterogeneous catalytic conversion of polyolefinic waste

Catalyst development for methane valorisation

Closing the carbon cycle: multi-scale modelling and materials optimisation for super-dry reforming of methane

Combined Chemical Looping for CO_₂Emissions Reduction in Energy-Intensive Industries

Decarbonization Strategies for Energy- and Carbon-Intensive Processes: Opportunities and Challenges for Emerging Technologies

Direct Light Olefin Production from Synthesis Gas

Doctoral project Hao Wang

Doctoral project Isabelle Ascoop

Doctoral project Naga Venkata Ranga Aditya Dharanipragada

Doctoral project Rakesh Batchu

Doctoral project Sorin Bunea

Doctoral project Syam Ukkandath Aravindakshan

Exploring Low Z Elements in Mixed Metal Oxides Using X-ray Raman Scattering Spectroscopy

Multifunctional materials for CO2 capture and conversion via chemical looping dry reforming

Chemical Looping: Innovative Materials and Advanced Technologies (CLIMAT)

Fine control of catalyst structure: improved catalyst performance by tuning the active site location

Impact of the spatial distribution of active material on the performance of a multifunctional catalyst for CO2 hydrogenation into alcohols

NEWLIFE: New life for waste: turning metallurgical slag into catalysts

Structural dynamics of nanoalloys in catalytic reaction

Atomic scale design of CO2 conversion catalysts

Closing the carbon cycle: multi-scale modelling and materials optimisation for super-dry reforming of methane

Commissioning and sustainable exploitation of the upgraded DUBBLE beamlines at the ESRF: studying the structure and function of matter at the world's most powerful synchrotron

First principles supported operando catalyst characterization for deep catalysis understanding

Magnetic resonance equipment for advanced materials research: molecular characterization of solid, soft, homogeneous and heterogeneous matter in the development of advanced functional materials and chemical catalysis

Nanofibrous membranes for today’s environmental research questions.