Storing quantum information in chemically engineered nanoscale magnets

We review the implementation of quantum information processing using quantum spins and pulsed spin resonance techniques. Molecular magnets, nanoscale clusters of coupled transition metal ions, offer various potential advantages over other spin systems as the building blocks of a quantum computer. We...

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Manylion Llyfryddiaeth
Prif Awduron: Ardavan, A, Blundell, S
Fformat: Journal article
Iaith:English
Cyhoeddwyd: 2009
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author Ardavan, A
Blundell, S
author_facet Ardavan, A
Blundell, S
author_sort Ardavan, A
collection OXFORD
description We review the implementation of quantum information processing using quantum spins and pulsed spin resonance techniques. Molecular magnets, nanoscale clusters of coupled transition metal ions, offer various potential advantages over other spin systems as the building blocks of a quantum computer. We describe the strategies which must be employed in order to implement quantum algorithms in such nanoscale magnets and explain why, when evaluating the suitability of any physical system for embodying a qubit, it is essential to determine the phase relaxation time appropriate for an individual molecular spin. Experiments utilising pulsed spin resonance techniques show that the phase relaxation times in at least some molecular magnets are long enough to permit multiple qubit operations to be performed. © The Royal Society of Chemistry 2009.
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spelling oxford-uuid:a3bb944f-a4d4-4815-a6ea-edd899b505f42022-03-27T02:29:04ZStoring quantum information in chemically engineered nanoscale magnetsJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:a3bb944f-a4d4-4815-a6ea-edd899b505f4EnglishSymplectic Elements at Oxford2009Ardavan, ABlundell, SWe review the implementation of quantum information processing using quantum spins and pulsed spin resonance techniques. Molecular magnets, nanoscale clusters of coupled transition metal ions, offer various potential advantages over other spin systems as the building blocks of a quantum computer. We describe the strategies which must be employed in order to implement quantum algorithms in such nanoscale magnets and explain why, when evaluating the suitability of any physical system for embodying a qubit, it is essential to determine the phase relaxation time appropriate for an individual molecular spin. Experiments utilising pulsed spin resonance techniques show that the phase relaxation times in at least some molecular magnets are long enough to permit multiple qubit operations to be performed. © The Royal Society of Chemistry 2009.
spellingShingle Ardavan, A
Blundell, S
Storing quantum information in chemically engineered nanoscale magnets
title Storing quantum information in chemically engineered nanoscale magnets
title_full Storing quantum information in chemically engineered nanoscale magnets
title_fullStr Storing quantum information in chemically engineered nanoscale magnets
title_full_unstemmed Storing quantum information in chemically engineered nanoscale magnets
title_short Storing quantum information in chemically engineered nanoscale magnets
title_sort storing quantum information in chemically engineered nanoscale magnets
work_keys_str_mv AT ardavana storingquantuminformationinchemicallyengineerednanoscalemagnets
AT blundells storingquantuminformationinchemicallyengineerednanoscalemagnets