Publications

Year of Publication: 2019

1 Giordani, Taira, et al. "Experimental Engineering of Arbitrary Qudit States with Discrete-Time Quantum Walks." Physical Review Letters. 122.2 (2019). DOI Google Scholar BibTex	2 Marton, J., et al. "VIP2 in LNGS - Testing the Pauli Exclusion Principle for electrons with high sensitivity." Journal of Physics: Conference Series. 1275 (2019). DOI Google Scholar BibTex
3 Piscicchia, Kristian, et al. "High Precision Test of the Pauli Exclusion Principle for Electrons." Condensed Matter. 4.2 (2019). DOI Google Scholar BibTex	4 Barontini, Giovanni, and Mauro Paternostro. "Ultra-cold single-atom quantum heat engines." New Journal of Physics. 21.6 (2019). DOI Google Scholar BibTex
5 Brunelli, Matteo, and Oussama Houhou. "Dissipative Synthesis of Mechanical Fock-Like States." Proceedings. 12.1 (2019). DOI Google Scholar BibTex	6 Milazzo, Nadia, et al. "Role of information backflow in the emergence of quantum Darwinism." Physical Review A. 100.1 (2019). DOI Google Scholar BibTex
7 Bernards, Fabian, et al. "Daemonic Ergotropy: Generalised Measurements and Multipartite Settings." Entropy. 21.8 (2019). DOI Google Scholar BibTex	8 Bavaresco, Jessica, et al. "Semi-device-independent certification of indefinite causal order." Quantum. 3 (2019). DOI Google Scholar BibTex
9 Zych, Magdalena, et al. "Bell’s theorem for temporal order." Nature Communications. 10.1 (2019). DOI Google Scholar BibTex	10 Vinante, Andrea. "Testing spontaneous collapse models with mechanical experiments." Journal of Physics: Conference Series. 1275 (2019). DOI Google Scholar BibTex
11 Belenchia, Alessio, et al. "Talbot-Lau effect beyond the point-particle approximation." Physical Review A. 100.3 (2019). DOI Google Scholar BibTex	12 Setter, Ashley, Jamie Vovrosh, and Hendrik Ulbricht. "Characterization of non-linearities through mechanical squeezing in levitated optomechanics." Applied Physics Letters. 115.15 (2019). DOI Google Scholar BibTex
13 Timberlake, Chris, et al. "Acceleration sensing with magnetically levitated oscillators above a superconductor." Applied Physics Letters. 115.22 (2019). DOI Google Scholar BibTex	14 Carlesso, M, et al. "Testing the gravitational field generated by a quantum superposition." New Journal of Physics. 21.9 (2019). DOI Google Scholar BibTex
15 Bullier, N. P., A. Pontin, and P. F. Barker. "Super-resolution imaging of a low frequency levitated oscillator." Review of Scientific Instruments. 90.9 (2019). DOI Google Scholar BibTex	16 Kull, Ilya, Philippe Allard Guérin, and Časlav Brukner. "A spacetime area law bound on quantum correlations." npj Quantum Information. 5.1 (2019). DOI Google Scholar BibTex
17 Giacomini, Flaminia, Esteban Castro-Ruiz, and Časlav Brukner. "Relativistic Quantum Reference Frames: The Operational Meaning of Spin." Physical Review Letters. 123.9 (2019). DOI Google Scholar BibTex	18 Ferialdi, Luca, et al. "Optimal control for feedback cooling in cavityless levitated optomechanics." New Journal of Physics. 21.7 (2019). DOI Google Scholar BibTex
19 Vinante, A., et al. "Testing collapse models with levitated nanoparticles: Detection challenge." Physical Review A. 100.1 (2019). DOI Google Scholar BibTex	20 Belenchia, Alessio, et al. "Information content of the gravitational field of a quantum superposition." International Journal of Modern Physics D (2019). DOI Google Scholar BibTex

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