At Utrecht University I develop the research area of Quantum Materials, a class of materials in which quantum mechanical effects are visible at the macroscopic scale. They provide unprecedented opportunities to realize a new technology based on quantum effects, with impact on low-dissipation electronics, photovoltaics, quantum information and, in general, quantum engineering. My major contribution are in developing and using first-principles theory and computational methods to investigate:
- topological materials
- spin-proximity interaction
- theoretical spectroscopy, exciton physics
- quantum transport
- topological superconductivity
Research lines
- Topological Materials and Spintronics
- Spin-Proximity interaction, Graphene and other 2D materials
- Magnetism in Carbon-based nanostructures
- Quantum transport: Gas sensing with Carbon Nanotubes
- Semiconductor Nanowires
- Multiferroics
Methods: Density Functional Theory (DFT), Non-Equilibrium Green’s Function (NEGF), many-body perturbation theory (GW approximation, Bethe-Salpeter Equation)
Current and Past Collaborations (alphabetical)
- Prof. Jean-Christophe Charlier (Universite’ catholique de Louvain)
- Dr. Monica Garcia-Mota (SIMUNE Atomistics)
- Prof. Nicole Grobert (Oxford University)
- Prof. Benoit Hackens (Universite’ catholique de Louvain)
- Prof. Riccardo Mazzarello (RWTH Aachen University)
- Prof. Carola Meyer (Osnabrück University)
- Prof. Markus Morgenstern (RWTH Aachen University)
- Prof. Pablo Ordejon (ICN2)
- Prof. Stephan Roche (ICN2)
- Prof. Christoph Stampfer (RWTH Aachen University)
- Prof. Sergio Valenzuela (ICN2)
- Prof. Matthieu J. Verstraete (Liège University)
Codes
My research work is or has been performed using the following codes:
SIESTA/TranSIESTA, ABINIT, QuantumEspresso + YAMBO, VASP, and SMEAGOL (quantum electron transport).
The images presented in this web site have been produced with XCrySDen or VESTA visualization software.


