UnRAVElling the dynamics of many-body open systems: Collective dynamics of quantum trajectories

ERC (European Research Council)HORIZON-ERCID: 101053159
EC Contribution
€10,750
Consortium Size
1 orgs
Start Year
2022
Summary

With the flourishing of quantum information processing, the study of open quantum system dynamics has become of paramount importance for the ultimate success of quantum technologies. The phenomenology becomes increasingly rich when decoherence and dissipation arise in quantum systems with many degrees of freedom, leading to a flurry of different phases of matter. RAVE is devoted to the study of collective phenomena in synthetic, many-body open quantum systems through investigation of the dynamics of quantum trajectories. Following the dynamics at the level of its trajectories will capture features that are washed out by looking at averaged observables, i.e. in the density matrix. RAVE will show that there are collective phenomena visible only in the dynamics of single trajectories, and propose experimental schemes to observe them. This will lead to a new classification of phases in quantum many-body open systems and help clarify the relations between entanglement, correlations and non-equilibrium thermodynamics. In those cases where the steady-state phase breaks time-translational invariance, RAVE will contribute to unify apparently different concepts such as synchronisation and time-crystals. The statistics associated with the behaviour of quantum jumps in many-body systems is also important for characterizing the quality and performance of quantum information processing protocols. To address the key questions posed by the project, RAVE will develop a promising new methodology based on replicas and use it to design open system quantum simulators able to provide information at the level of single trajectories. RAVE is a highly interdisciplinary programme which will have significant impact in the fields of condensed matter, statistical physics, quantum information and stochastic thermodynamics.

Consortium (1)

Project Results (24)

Source: CORDIS, the EU research results database.

Publications (23)
Boundary Time Crystals as AC sensors: enhancements and constraints
· 2024DOI
Dominic Gribben, Anna Sanpera, Rosario Fazio, Jamir Marino, Fernando Iemini
Disentangling unitary dynamics with classically simulable quantum circuits
· 2024DOI
Gerald E. Fux, Benjamin Béri, Rosario Fazio, Emanuele Tirrito
Entanglement – nonstabilizerness separation in hybrid quantum circuits
Physical Review Research· 2024DOI
Gerald E. Fux, Emanuele Tirrito, Marcello Dalmonte, Rosario Fazio
Interactions and integrability in weakly monitored Hamiltonian systems
https://hal.science/hal-04303641· 2024DOI
Bo Xing; Xhek Turkeshi; Marco Schiró; Rosario Fazio; Dario Poletti
Journal of Chemical Physics
Journal of Chemical Physics· 2024DOI
Gerald E. Fux; Piper Fowler-Wright; Joel Beckles; Eoin P. Butler; Paul R. Eastham; Dominic Gribben; Jonathan Keeling; Dainius Kilda; Peter Kirton; Ewen D. C. Lawrence; Brendon W. Lovett; Eoin O’Neill; Aidan Strathearn; Roosmarijn de Wit
Many Body open systems
· 2024DOI
Rosario Fazio, Jonathan Keeling, Leonardo Mazza, Marco Schirò
Many-Body Dynamics in Monitored Atomic Gases without Postselection Barrier
Physical Review Letters· 2024DOI
Gianluca Passarelli; Xhek Turkeshi; Angelo Russomanno; Procolo Lucignano; Marco Schirò; Rosario Fazio
Measurement-induced phase transitions in monitored infinite-range interacting systems
· 2024DOI
Anna Delmonte, Zejian Li, Gianluca Passarelli, Eric Yilun Song, Diego Barberena, Ana Maria Rey, Rosario Fazio
Measurement-induced transitions beyond Gaussianity: A single particle description
Physical Review Research· 2024DOI
Luca Lumia; Emanuele Tirrito; Rosario Fazio; Mario Collura
Monitored long-range interacting systems: spin-wave theory for quantum trajectories
· 2024DOI
Zejian Li, Anna Delmonte, Xhek Turkeshi, Rosario Fazio
Nonstabilizerness of permutationally invariant systems
Physical Review A· 2024DOI
G. Passarelli, R. Fazio, P. Lucignano
Parent Hamiltonian Reconstruction via Inverse Quantum Annealing
Physical Review Letters· 2024DOI
Davide Rattacaso; Gianluca Passarelli; Angelo Russomanno; Procolo Lucignano; Giuseppe E. Santoro; Rosario Fazio
Statistical analysis of quantum trajectories in dissipative Landau-Zener model
· 2024DOI
Laleh Memarzadeh, Rosario Fazio
Crafting the dynamical structure of synchronization by harnessing bosonic multilevel cavity QED
Physical Review Research, 5 (2)· 2023DOI
Valencia-Tortora, Riccardo J.; Kelly, Shane P.; Donner, Tobias; Morigi, Giovanna; Fazio, Rosario; Marino, Jamir
Diagrammatic method for many-body non-Markovian dynamics: Memory effects and entanglement transitions
Physical Review B· 2023DOI
Giuliano Chiriacò; Mikheil Tsitsishvili; Dario Poletti; Rosario Fazio; Marcello Dalmonte
Entanglement transitions and quantum bifurcations under continuous long-range monitoring
Physical Review B· 2023DOI
Angelo Russomanno; Giulia Piccitto; Davide Rossini
Floquet time-crystals as sensors of AC fields
Physical Review A· 2023DOI
Iemini, Fernando; Fazio, Rosario; Sanpera, Anna
Full counting statistics as probe of measurement-induced transitions in the quantum Ising chain
SciPost Physics· 2023DOI
Emanuele Tirrito; Alessandro Santini; Rosario Fazio; Mario Collura
Geometric phases along quantum trajectories
Quantum, Vol 7, p 1029 (2023)· 2023DOI
Ludmila Viotti; Ana L. Gramajo; Paula I. Villar; Fernando C. Lombardo; Rosario Fazio
Quantum effects on the synchronization dynamics of the Kuramoto model
Physical Review A· 2023DOI
Anna Delmonte; Alessandro Romito; Giuseppe E. Santoro; Rosario Fazio
Spatiotemporally ordered patterns in a chain of coupled dissipative kicked rotors
Physical Review B· 2023DOI
Angelo Russomanno
Theory of robust quantum many-body scars in long-range interacting systems
· 2023DOI
Alessio Lerose, Tommaso Parolini, Rosario Fazio, Dmitry A. Abanin, Silvia Pappalardi
Dissipative time crystals with long-range Lindbladians
Physical Review B· 2022DOI
Passarelli G; Lucignano P; Fazio R; Russomanno; A
Other Results (1)
Periodic Reporting for period 1 - RAVE (UnRAVElling the dynamics of many-body open systems: Collective dynamics of quantum trajectories)