As a Branco Weiss Fellow, Dr. Matteo Fadel will explore the boundaries of quantum theory using mechanical resonators. To reach this goal, he will develop techniques to manipulate sound in the quantum regime, which is of great interest also for technological applications.
- Visiting researcher, Peking University, China, 2019
- Post-Doc, University of Basel, Switzerland, 2018-2021
- PhD in Physcs, University of Basel, Switzerland, 2014-2018
- MSc in Physics, ETH Zurich, Switzerland, 2011-2013
- BSc in Physics, University of Padova, Italy, 2008-2011
- Research Fund for Excellent Junior Researchers, University of Basel, Switzerland, 2020
- Prix Schläfli, Swiss Academy of Sciences, 2019
- SPS Award in General Physics, Swiss Physical Society, 2019
- Faculty Prize, University of Basel, Switzerland, 2019
- Paul Ehrenfest Best Paper Award for Quantum Foundations, Institute for Quantum Optics and Quantum Information, Vienna, Austria, 2018
- Media Inaf: Sfidando Heisenberg con una nuvola di rubidio (in Italian)
- Quanta Magazine: Real-Life Schrödinger’s Cats Probe the Boundary of the Quantum World
- La Repubblica: Matteo Fadel: “Vorrei trovare situazioni in cui la meccanica quantistica non funziona. Perché ogni crisi porta a una nuova rivoluzione” (in Italian)
Branco Weiss Fellow Since
Laboratory for Solid State Physics, ETH Zürich, Switzerland
Quantum mechanics is probably the most successful scientific theory ever formulated. In the microscopic realm, its predictions for the result of a measurement can agree with experimental data to more than ten digits. Yet, the theory is full of counterintuitive phenomena, such as state superposition and energy quantisation, that are never observed in our macroscopic world: why?[nbsp] There appears to be a boundary between the quantum world and the classical one we experience everyday. But where is this boundary? How does it emerge? Is there some fundamental principle that prevents macroscopic objects from behaving quantum mechanically? Why have we never seen a cat being simultaneously dead and alive? Engineering and investigating quantum systems of increasingly large masses will provide us with experimental data that are essential to answer these questions. Moreover, such systems can find interesting technological applications, such as quantum sensors and quantum memories, that will have a direct impact on our everyday lives.
In his research, Dr. Matteo Fadel is planning to use acoustic waves inside a solid-state resonator for testing the predictions of quantum mechanics in mass regimes so far unexplored. In fact, to date these devices represent the heaviest mechanical resonators ever cooled to the ground state of motion and controlled at the quantum level. To achieve his goal, Dr. Fadel will develop a sophisticated toolbox for preparing and manipulating quantum states of motion in acoustic wave resonators. This, apart from the fundamental interest of controlling sound at the quantum level, will open the door to the realisation of quantum sensors, quantum memories, and bosonic quantum simulators.