
Quantum Thermodynamics
Quantum thermodynamics marries the well-established laws of thermodynamics, which describe heat and work, with the powerful, yet different, framework of quantum mechanics.
Our research spans quantum thermodynamics, information, metrology, waveguide QED, quantum materials, machine learning and the foundations of quantum mechanics.

Quantum thermodynamics marries the well-established laws of thermodynamics, which describe heat and work, with the powerful, yet different, framework of quantum mechanics.

Quantum Information Theory explores the intersection of quantum mechanics and information theory.

Metrology is the cornerstone of science which investigates the accuracy by which any given physical quantity can be measured.

Modifying the electromagnetic field can deeply affect atom-photon interactions, leading to spectacular effects such as the emission and full reabsorption of a photon in a cavity, a longstanding effect of quantum optics.

This research line in quantum materials focuses on the interaction between these materials and light, whether in the form of quantized photons in cavity quantum electrodynamics (QED) setups or classical laser fields.

Quantum machine learning studies the intersection between machine learning and quantum information theory, focusing both on how quantum computation can speed-up tasks typically handle by machine learning, and how classical machine learning can further our understanding of quantum information science.

Our description of reality depends heavily on the lens through which we observe it.