My research focuses on quantum many-body physics, with a keen interest in emergent phenomena and collective behavior arising from both quantum-mechanical and strongly correlated effects, with applications ranging from condensed matter to quantum- and nano-technology. 

I have a strong background in quantum field theory and extensive technical expertise in the numerical simulation of low-dimensional and molecular systems. I have experience with abstract theoretical modeling, aiming to identify the root of physical phenomena, as well as with complementary approaches within ab-initio frameworks to contextualize it in a realistic chemical environment. 

I like cross-thinking, connecting ideas from different contexts. A paradigmatic achievement in this direction was unraveling a synergistic interplay between quantum interference and π-electons edge magnetism, at the heart of the quantum interference-assisted spin-filtering effect realized in quantum junctions with graphene-like functional units — for more details, see also the corresponding "topical research pill" [link] and publication [link].

In a nutshell, I am a passionate and versatile scientist. My research experience naturally spans topics from different fields of quantum physics, material science, and chemistry, which I can tackle with a broad range of analytical and numerical techniques.