Geometric phases are an interesting resource for quantum computation in view of their robustness against decoherence effects. We study the effects of the environment on a class of one-qubit holonomic gates that have recently been shown to be characterized by "optimal" working times. We numerically analyze the behavior of these optimal points and focus on their robustness against noise.

Robustness of optimal working points for nonadiabatic holonomic quantum computation / Trullo, A; Facchi, P.; Fazio, R.; Florio, G.; Giovannetti, V.; Pascazio, S.. - In: LASER PHYSICS. - ISSN 1054-660X. - STAMPA. - 16:10(2006), pp. 1478-1485. [10.1134/S1054660X06100094]

Robustness of optimal working points for nonadiabatic holonomic quantum computation

Florio, G.;
2006-01-01

Abstract

Geometric phases are an interesting resource for quantum computation in view of their robustness against decoherence effects. We study the effects of the environment on a class of one-qubit holonomic gates that have recently been shown to be characterized by "optimal" working times. We numerically analyze the behavior of these optimal points and focus on their robustness against noise.
2006
Robustness of optimal working points for nonadiabatic holonomic quantum computation / Trullo, A; Facchi, P.; Fazio, R.; Florio, G.; Giovannetti, V.; Pascazio, S.. - In: LASER PHYSICS. - ISSN 1054-660X. - STAMPA. - 16:10(2006), pp. 1478-1485. [10.1134/S1054660X06100094]
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/11589/101698
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