Solid oxide cells
Electrodes, interconnects, and materials that support durable electrochemical energy conversion.
Explore the researchI study how materials perform—and how to make them last—in electrochemical technologies for clean energy and hydrogen production.

Understanding degradation. Developing better materials. Connecting laboratory research with practical energy systems.
Electrodes, interconnects, and materials that support durable electrochemical energy conversion.
Explore the researchMaterials and components for efficient electrolysis and green hydrogen production.
Explore the researchProtective layers and the mechanisms that determine material lifetime at high temperatures.
Explore the researchCombining impurity-tolerant cells, coated steel interconnects, and AC:DC operation to improve the durability and cost of hydrogen production.
Developing multilayer coatings that could allow widely available ferritic steels to replace specialist interconnect alloys.
Investigating defective metal oxides as a next generation of lead-free piezoelectric materials.
Journal of Power Sources · 674, 239785
Materials & Design · 249, 113536
Journal of the European Ceramic Society · 45 (7), 117259
Alongside my research, I supervise PhD and MSc students and teach materials engineering, data analysis, and experimental design at Gdańsk University of Technology.
My work connects fundamental materials science with practical questions in energy technology, through national and European research collaborations.

Partners met at the Technical University of Denmark to begin a European collaboration on durable, cost-effective solid oxide electrolysis.
Read the updateFor research collaborations, academic enquiries, or questions about my work.