Our research focuses on the exploration of condensed matter physical properties down to the sub-nanometer scale: inside the realm of atoms. Ultimately, our goal is to push forward knowledge and understanding of the physical rules at the nanoscale in order to control and engineer properties suitable for applications. Our main expertise is on the construction and operation of a state-of-the-art scanning tunneling microscopes (STM).

STM, is a world famous technique renown for its capability of imaging the electron clouds surrounding the atoms in real space, but it is capable of many more feats such as: Move and position atoms and molecules individualy, perform spectroscopy including spin polarization with sub-mV accuracy both in real and momentum space, film with time resolution ranging from hours down to picoseconds, probe a large variety of conductive samples. The inherent versatility of STM has made it one of the most central tools for modern condensed matter physics.

Our research topics are often driven by the simple curiosity of the investigator but revolve mainly around STM. In the past we have use our instruments to study semiconductors, metallic surfaces, magnetic atoms and thin films, single and self assembled molecular systems and graphite. Our current work lies on the study of the peculiar electronic properties of the high Tc superconductor YBCO under the influence of potassium adsorbates. Furthermore, we also collaborate with theoreticians and we are involved in many mechanical and electrical engineering development.