Research Lines
The goal of our research is to elucidate the laws of magnetism, optics, and electronics at the scale of atoms and molecules. We use low-temperature Scanning-Probe Microscopy to study the basic quantum phenomena behind the macroscopic behavior of matter and to manipulate their basic atomic components.
Molecular Physics
We study phenomena like charge redistribution, electron localization, spontaneous spin polarization, anomalous chemical reactivity, or molecular conformational modifications occurring on such hybrid systems with the goal of exploring new magnetic, optical, or chemical functionality of the films.
We study phenomena like charge redistribution, electron localization, spontaneous spin polarization, anomalous chemical reactivity, or molecular conformational modifications occurring on such hybrid systems with the goal of exploring new magnetic, optical, or chemical functionality of the films.
Nanoscale optoelectronics
Our research aims at creating a bridge connecting atomic-scale spectroscopy with optics to resolve at the atomic scale both the electronic structure and light scattering/emission by the atomic-sized antennas in response to optical/electron excitations.
Our research aims at creating a bridge connecting atomic-scale spectroscopy with optics to resolve at the atomic scale both the electronic structure and light scattering/emission by the atomic-sized antennas in response to optical/electron excitations.
Superconductivity in low dimensions
Superconductivity in low dimensions
Superconductivity in low dimensions
Image gallery
Constant heigth current image (V=lmV) of the vortex structure of an exfoliated NbSe2 crystal in the superconducting state under a IT magnetic field.
Constant heigth current image (V=lmV) of the vortex structure of an exfoliated NbSe2 crystal in the superconducting state under a IT magnetic field.
Research team
