Sustainability, Energy, Environment and Conservation are crucial ingredients of a successful future and the centerpoint of my work. I focus on high efficiency, low environmental impact technologies needed to satisfy our thirst for energy without compromising the integrity of the Earth. Without doubt, these technologies are based (or will be based) on new advanced materials used as efficient catalysts promoting the conversion of chemical to electrical energy, or vice versa. The advancement and breakthroughs in catalytic materials design depends in large part on development of the advanced methods to study them in operando conditions.




In my research I develop and use X-ray diffraction and imaging techniques which allows to gain a significant insight into the atomistic processes taking place at the catalysts surface during operation of fuel cells, electrolyzers and batteries. I study how the atomic structure affects the final macroscopic catalytic properties,  and how to make new materials with atomic precision using electrochemistry techniques.

Current projetcs

  • Structural studies of Cu based CO2 reduction electrocatalysts

    This could be a full decription about the project

  • Advanced studies of oxygen evolution electrocatalysts.

    This could be a full decription about the project

  • New operando experimental approaches in electrocatalysis

    Development of new experimental synchrotorn based X-ray techniques to determine fine details of electrochemical device fucntioning.

    This could be a full decription about the project

  • Role of defects in electrocatalysis

    We study the structural defects in nanocatalysts and their role in electrocatalysis.

    This could be a full decription about the project

  • Instrumentation for operando studies of fuel cell materials

    Development of electrochemical cells and fuel cells suitable for research with X-ray probe.

  • Structure and oxidation of Platinum during electrocatalysis.

    We follow in-situ the electrochemical oxidation of Pt single crystals and nanoparticles with atomic precision. This gives us further insight into Pt functioning and degradation when used as an electrocatalyst.

Past Projects

  • Electrochemistry of novel metal/graphene heterostructures

    Fundamental studies of behavior of Pt/ graphene heterostructures in electrochemical conditions.

  • Magnetism and structure of graphene based nanocomposites

    Graphene capped metalic heterostructures have high technological perspectives for the development of ultra-dense magnetic storage devices and of spintronic material.

  • Germanium electrodeposition

    This could be a full decription about the project

  • Stability of Platinum based bimetallic electrocatalysts

    Combined investigation of PtZn and PtNi alloy formation and their dissolution behavior in ractin conditions.

  • Development of advanced surface X-ray diffraction data analysis techniques

    Code for 3D reciprocal space reconstruction and integration for data taken in SXRD experiments with a 2D detector..

  • Relationship between the bonding and structure in 2D layers

    How the bonding nature in 2D layers affects the structure? Can we make some general predictions?

  • Alkali metal adsorption on Platinum

    Determination of the alkali metal role in the oxidation and catalysis.

  • Non-evaporable getter thin films for vacuum pumping

    Development and study of pumping getters used in particle accelerators.