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Annalen der Physik

Shortcut‐to‐Adiabatic Controlled‐Phase Gate in Rydberg Atoms [Ann. Phys. (Berlin) 2023, 12, 2300275]

Luis S. Yagüe Bosch, Tim Ehret, Francesco Petiziol, E. Arimondo, Sandro Wimberger

Published Nov 25, 2025• 0 citations
Publisher

Abstract

ABSTRACT This is a correction to appendix A in our paper [L. S. Yague Bosch, T. Ehret, F. Petiziol, E. Arimondo, and S. Wimberger, Shortcut‐to‐Adiabatic Controlled‐Phase Gate in Rydberg atoms, Ann. Phys. (Berlin) 2023 , 12 , 2300275].
DOI
10.1002/andp.202500570

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(Ann. Phys. 12/2023)

Rydberg Atoms Quantum gates are the backbone of digital quantum computing. In article number 2300275, Luis S. Yagüe Bosch, Sandro Wimberger, and colleagues present a shortcut-to-adiabatic protocol for the realization of a controlled-phase gate in Rydberg atoms. The adiabatic state transfer for the gate is accelerated by compensating nonadiabatic transitions via oscillating fields. High fidelities and fast operation times are obtained, and an application to a minimal quantum-error correction circuit is analyzed.

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Shortcut‐to‐Adiabatic Controlled‐Phase Gate in Rydberg Atoms

Luis S. Yagüe Bosch, Tim Ehret, Francesco Petiziol +2 more

Abstract A shortcut‐to‐adiabatic protocol for the realization of a fast and high‐fidelity controlled‐phase gate in Rydberg atoms is developed. The adiabatic state transfer, driven in the high‐blockade limit, is sped up by compensating nonadiabatic transitions via oscillating fields that mimic a counterdiabatic Hamiltonian. High fidelities are obtained in wide parameter regions. The implementation of the bare effective counterdiabatic field, without original adiabatic pulses, enables to bypass gate errors produced by the accumulation of blockade‐dependent dynamical phases, making the protocol efficient also at low blockade values. As an application toward quantum algorithms, how the fidelity of the gate impacts the efficiency of a minimal quantum‐error correction circuit is analyzed.

arXiv:2312.11594•Annalen der Physik•Nov 8, 2023•12 citations
Rydberg Atoms Quantum gates are the backbone of digital quantum computing. In article number 2300275, Luis S. Yagüe Bosch, Sandro Wimberger, and colleagues present a shortcut-to-adiabatic protocol for the realization of a controlled-phase gate in Rydberg atoms. The adiabatic state transfer for the gate is accelerated by compensating nonadiabatic transitions via oscillating fields. High fidelities and fast operation times are obtained, and an application to a minimal quantum-error correction circuit is analyzed.
Abstract A shortcut‐to‐adiabatic protocol for the realization of a fast and high‐fidelity controlled‐phase gate in Rydberg atoms is developed. The adiabatic state transfer, driven in the high‐blockade limit, is sped up by compensating nonadiabatic transitions via oscillating fields that mimic a counterdiabatic Hamiltonian. High fidelities are obtained in wide parameter regions. The implementation of the bare effective counterdiabatic field, without original adiabatic pulses, enables to bypass gate errors produced by the accumulation of blockade‐dependent dynamical phases, making the protocol efficient also at low blockade values. As an application toward quantum algorithms, how the fidelity of the gate impacts the efficiency of a minimal quantum‐error correction circuit is analyzed.