We drive hydrogen technologies through new catalysts, electrolyzers, and Power-to-X pathways, producing sustainable fuels and chemicals to decarbonize industrial processes and complex energy systems.
We drive hydrogen technologies through new catalysts, electrolyzers, and Power-to-X pathways, producing sustainable fuels and chemicals to decarbonize industrial processes and complex energy systems.
We study the fundamental processes that govern the conversion, storage, and use of hydrogen.
We optimize materials, catalysts, and systems to achieve higher power output and operational stability.
We analyze and mitigate the phenomena that limit the lifetime of electrolyzers, fuel cells, and catalysts.
We develop solutions that maximize energy efficiency and reduce losses at every stage of the process.
We develop innovative materials and catalysts through advanced synthesis and manufacturing methods.
We promote sustainable alternatives that reduce dependence on scarce or strategic materials.
We seek scalable and cost-competitive solutions that accelerate the industrial adoption of hydrogen and e-fuels.
Hydrogen- and Power-to-X-based solutions for processes with high energy demand.
Applications for the synthesis of chemicals, reagents, and sustainable fuels.
Technologies for heating, industrial heat, and energy uses associated with the construction sector.
Production of low-carbon synthetic fuels for aviation, heavy transport, and industrial processes.
Development of hydrogen-based solutions for vehicles, machinery, and sustainable transport.
Application of hydrogen and electrochemistry in wastewater treatment and valorization processes.
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Methods for CO₂ capture and conversion into fuels, materials, or chemicals through advanced sustainable processes.
Design of advanced catalysts that facilitate the efficient electrochemical synthesis of sustainable industrial fuels and compounds.
Obtaining robust and efficient catalysts for industrial processes that generate synthetic fuels and sustainable chemicals.
Development of safe, efficient and scalable solutions for storing and transporting hydrogen in sustainable industrial applications.
Development of photoactive materials that convert solar energy and electricity into sustainable fuels and chemical intermediates.
Optimization of solid oxide fuel cells and electrolyzers, improving efficiency, stability, and reducing costs.