Research

At the forefront of Innovation

LCCP research focuses on the engineering of catalytic reactions across multiple scales for environmental protection processes, as well as the synthesis and conversion of chemicals and energy carriers, combining experimental work with mathematical modeling.

Our vision

Technology for energy

Catalytic processes for energy and transport applications have been of growing importance in recent years in view of the reduction of the environmental impact and of the diversification of energy sources. Since more than two decades the Laboratory of Catalysis and Catalytic processes of Dipartimento di Energia has been involved in several research topics within these areas including: production of clean liquid fuels from natural gas, novel energy conversion systems with minimal environmental impact; clean up processes of exhaust combustion gases.

Every year

20+

patents and paper

20+

projects

10+

PhD students

50+

MSc thesis students

Research areas

Environmental catalysis

We explore advanced catalytic solutions for cleaner air and a more sustainable future. Our work focuses on understanding and designing catalysts that remove harmful pollutants from exhaust gases and industrial streams.

H₂ production

Catalytic processes are central for production of sustainable hydrogen and promote H₂ distribution thanks the conversion of liquid hydrogen carriers.

CO₂ conversion

Turning carbon emissions into valuable products through advanced and scalable CO₂ utilization technologies, from more established industrial processes to emerging solutions, supporting a cleaner environment and a more circular, sustainable future for society.

Process intensification

Process intensification allows to improve productivity and sustainability of catalytic reactors. At LCCP, we are studying new catalyst supports and new reactor concepts that allow to improve productivities, reduce process footprints and possibly combine multiple process steps in a single reactor

Computational catalysis

Our research focuses on catalytic processes in order to study and optimize heterogeneous reactions at multiple scales. This approach integrates atomic-level mechanisms with reactor-scale behavior, allowing for the rational design of efficient catalysts and processes.

Electrocatalysis

We work on advanced electrochemical systems that make energy conversion cleaner and more efficient, bringing us closer to a sustainable energy transition.

Biomass conversion

Waste biomass from the agricultural field and forestry residues can be converted and upgraded through thermal and catalytic processes to produce high-value products: biochar (used as solid amendant, anode material or catalyst for pollutant removal), bio-oils (liquid fuels for the decarbonization of the aviation and marine sector) and bio-gas (a renewable source of heat and power)

Syngas conversion

Transforming syngas into valuable fuels, chemicals, and energy carriers through advanced and scalable conversion technologies, from well-established industrial pathways to innovative emerging solutions, supporting industrial sustainability, resource efficiency, and the transition toward a low-carbon economy.

Fuel processing

Through the development of advanced catalysts, reaction kinetics, and innovative process concepts, we aim to improve product selectivity, energy efficiency, and process flexibility. Combining fundamental research with strong industrial collaboration, we contribute to the design of next-generation fuel processing technologies capable of addressing evolving energy and sustainability challenges.

Partners

Strategic partnerships

Proudly part of an international network of organizations and institutions.

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Get in touch

For inquiries or interest in PhD or Postdoctoral positions

Prof Enrico Tronconi