Fast binomial-code holonomic quantum computation with ultrastrong light-matter coupling

We propose a protocol for bosonic binomial-code nonadiabatic holonomic quantum computation in a system composed of an artificial atom ultrastrongly coupled to a cavity resonator. In our protocol, the binomial codes, formed by superpositions of Fock states, can greatly save physical resources to corr...

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Main Authors: Ye-Hong Chen, Wei Qin, Roberto Stassi, Xin Wang, Franco Nori
Format: Article
Language:English
Published: American Physical Society 2021-09-01
Series:Physical Review Research
Online Access:http://doi.org/10.1103/PhysRevResearch.3.033275
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author Ye-Hong Chen
Wei Qin
Roberto Stassi
Xin Wang
Franco Nori
author_facet Ye-Hong Chen
Wei Qin
Roberto Stassi
Xin Wang
Franco Nori
author_sort Ye-Hong Chen
collection DOAJ
description We propose a protocol for bosonic binomial-code nonadiabatic holonomic quantum computation in a system composed of an artificial atom ultrastrongly coupled to a cavity resonator. In our protocol, the binomial codes, formed by superpositions of Fock states, can greatly save physical resources to correct errors in quantum computation. We apply to the system strong driving fields designed by shortcuts-to-adiabatic methods. This reduces the gate time to tens of nanoseconds. Noise induced by control imperfections can be suppressed by a systematic-error-sensitivity nullification method. As a result, this protocol can rapidly (∼35ns) generate fault-tolerant and high-fidelity (≳98% with experimentally realistic parameters) quantum gates.
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spelling doaj.art-7f28890eb3d1475791cbd158c8fc4b8a2024-04-12T17:14:19ZengAmerican Physical SocietyPhysical Review Research2643-15642021-09-013303327510.1103/PhysRevResearch.3.033275Fast binomial-code holonomic quantum computation with ultrastrong light-matter couplingYe-Hong ChenWei QinRoberto StassiXin WangFranco NoriWe propose a protocol for bosonic binomial-code nonadiabatic holonomic quantum computation in a system composed of an artificial atom ultrastrongly coupled to a cavity resonator. In our protocol, the binomial codes, formed by superpositions of Fock states, can greatly save physical resources to correct errors in quantum computation. We apply to the system strong driving fields designed by shortcuts-to-adiabatic methods. This reduces the gate time to tens of nanoseconds. Noise induced by control imperfections can be suppressed by a systematic-error-sensitivity nullification method. As a result, this protocol can rapidly (∼35ns) generate fault-tolerant and high-fidelity (≳98% with experimentally realistic parameters) quantum gates.http://doi.org/10.1103/PhysRevResearch.3.033275
spellingShingle Ye-Hong Chen
Wei Qin
Roberto Stassi
Xin Wang
Franco Nori
Fast binomial-code holonomic quantum computation with ultrastrong light-matter coupling
Physical Review Research
title Fast binomial-code holonomic quantum computation with ultrastrong light-matter coupling
title_full Fast binomial-code holonomic quantum computation with ultrastrong light-matter coupling
title_fullStr Fast binomial-code holonomic quantum computation with ultrastrong light-matter coupling
title_full_unstemmed Fast binomial-code holonomic quantum computation with ultrastrong light-matter coupling
title_short Fast binomial-code holonomic quantum computation with ultrastrong light-matter coupling
title_sort fast binomial code holonomic quantum computation with ultrastrong light matter coupling
url http://doi.org/10.1103/PhysRevResearch.3.033275
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AT robertostassi fastbinomialcodeholonomicquantumcomputationwithultrastronglightmattercoupling
AT xinwang fastbinomialcodeholonomicquantumcomputationwithultrastronglightmattercoupling
AT franconori fastbinomialcodeholonomicquantumcomputationwithultrastronglightmattercoupling