Gianmichele Blasi

My research lies at the intersection of quantum transport, open quantum systems, quantum thermodynamics, and quantum information. I use transport not only to probe nanoscale systems, but also as an operational resource: currents, fluctuations, and correlations can reveal quantum states, quantify thermodynamic costs, and enable new forms of information processing. I develop analytical and numerical approaches for hybrid topological-superconducting devices, coherent conductors beyond weak coupling, and realistic solid-state platforms. My current research explores transport-based quantum state tomography, thermodynamic networks for physical computation, and autonomous quantum clocks enhanced by many-body correlations. Across these directions, I aim to connect fundamental theory with experimentally meaningful observables and device architectures, identifying the physical resources and limits that govern robust, precise, and energy-efficient quantum technologies.

Selected recent works

• G. Blasi, R. Ravell Rodríguez, M. Moskalets, R. López, and G. Haack, “Quantum Kinetic Uncertainty Relations in Mesoscopic Conductors at Strong Coupling,” Phys. Rev. Lett. 137, 056302 (2026).

• J. Bourgeois, G. Blasi, and G. Haack, “Transport Approach to Quantum State Tomography,” Phys. Rev. Lett. 136, 010802 (2026). Editors’ Suggestion.

• P. Lipka-Bartosik, G. Blasi, J. Lalueza Puértolas, G. Haack, M. Perarnau-Llobet, and N. Brunner, “Thermodynamic Networks: Harnessing Non-Equilibrium Steady States for Computation,” arXiv:2605.15985 (2026).

• F. Meier, Y. Minoguchi, G. Blasi, G. Haack, and M. Huber, “Exponential Gain in Clock Precision Using Quantum Correlated Ticks,” arXiv:2601.10785 (2026).