This research direction aims to deepen our understanding of thermodynamic principles at the quantum level. You will investigate how quantum systems exchange energy and information. This pillar offers the chance to study quantum thermal machines which are counterparts of heat engines, quantum refrigerators, and clocks.  

Building on our group’s recent achievements in the preparation, manipulation, and tomography of quantum information encoded in highly coherent bosonic modes, this effort focuses on the advanced aspects of quantum information processing using continuous-variable systems. You will work on exploiting the high dimensionality of bosonic mode Hilbert spaces, implementing sophisticated quantum error correction protocols, and extending our platform to multiple microwave cavities. The aim is to demonstrate a verifiable quantum speed-up advantage and to explore the potential benefits of bosonic architectures, such as longer coherence times and resource-efficient quantum error correction.

This research direction involves the development of next-generation technologies essential for advancing quantum applications. It includes designing novel components such as electromagnetic filters and quantum chip shielding as well as enhancing hardware efficiency by developing microwave switches vital for scaling quantum computing.  

• State-of-the-art facilities for fabrication and experiments
• Cutting-edge electronics
• Deep knowledge of hardware for quantum control and measurements
• Long-lived superconducting qubits
• Diverse and inclusive work environment
• Opportunities for local, national, and international collaboration
• A research agenda covering fundamental and applied science
• The ambition to make a difference