Quantum computation and quantum-state engineering driven by dissipation

By Frank Verstraete, Michael M. Wolf, J. I. Cirac. 2009

1,428 citations recorded by the source corpus.

Subfields: Artificial Intelligence, Atomic and Molecular Physics, and Optics

View Paper: https://www.semanticscholar.org/paper/262d8a1b4338ebb5fc1dbb3358fed368a16cad9a

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In Artificial Intelligence

In Atomic and Molecular Physics, and Optics

Citations in the corpus

Quantum memories based on engineered dissipation (2010, methodology): “Coupling the system to a damped qubit ancillary degree of freedom was proposed as a possible path to engineer arbitrary effective dissipative dynamics [20].”
Experimental multiparticle entanglement dynamics induced by decoherence (2010, background): “Recent quantum-computing, state-engineering and simulation paradigms driven by dissipative or decohering environment”
The role of quantum coherence in non-equilibrium entropy production (2017, background): “On the other hand, a characterization of irreversible entropy could help us designing thermodynamically efficient quantum technologies [6, 7].”
Geometry of quantum phase transitions (2019, background): “Although generally accepted as an indicator of dissipative phase transitions at large [124, 377, 126, 378, 379, 380], a vanishing dissipative gap is not a distinguishing feature of NESS criticality, and it may be observed across phases characterised by short range correlations [123, 362, 363, 178, 1”
Quantum simulation and computing with Rydberg-interacting qubits (2020, background): “Another interesting approach involves tailored dissipative processes to stabilize quantum states 318,319 , e.g., by coupling Rydberg qubits to additional short-lived states in a way to autonomously correct errors.”
Cluster mean-field approach to the steady-state phase diagram of dissipative spin systems (2016, background): “A judicious engineering of the system-bath couplings can lead to non-trivial many-body states in the stationary regime [28, 29].”
Keldysh field theory for driven open quantum systems (2015, background): “Nevertheless, systems with suitably engineered drivendissipative dynamics show typical quantum mechanical phenomena such as phase coherence [54, 55, 61, 63, 64, 78], entanglement [58–60, 62], or topological order [56, 66, 70–72].”
Quantum trajectories and open many-body quantum systems (2014, background): “Such effects can also be used to manipulate or protect states in quantum computations [125, 126] and quantum memories [127], as well as to prepare entangled states dissipatively [128–130], or realise specific quantum gates for group-II atoms [131, 132].”