My research focuses on nanomaterials for sustainable energy tehnologies, particularly electrocatalysts for green hydrogen production and hydrogen fuel cells.

A graphic depiction of a platinum-alloy nanoparticle with a defect.

These devices rely on catalysts based on precious metals such as platinum (Pt) and iridium (Ir), whose scarcity and cost drive the need for more efficient and durable materials.

I investigate the relationships between their structure and their properties, and I develop new methods to do so.

Atomic-scale structure has a profound impact on catalytic activity and stability. Understanding it is essential for designing catalysts that meet industrial performance and lifetime requirements.

See the selected publications for more details.


A significant part of my work involves automated image and data analysis to extract quantitative insights from large datasets.

I work with experts to combine advanced electron microscopy, including identical-location and 4D scanning transmission electron microscopy (IL-STEM, 4D-STEM), with X-ray diffraction (XRD) and electrochemical testing (TF-RDE, modified floating electrode).

By uniting materials and data science, my research aims to enable a rational design of next-generation materials for a sustainable hydrogen economy and other advanced metal-based materials.

I lead a research project on scaling up identical-location microscopy and automating image analysis, hosted at the Institute of Metals and Technology with ReCatalyst d.o.o. as an industry partner. Co-financed by the European Union.

A graphic depiction of graphite.

Research experience


Recognition


Past experience

Before my Ph.D., I had a bunch of student jobs and projects. Here are some of them:


Education