DNA multi-bit non-volatile memory and bit-shifting operations using addressable electrode arrays and electric field-induced hybridization

DNA based technology holds promise for non-volatile memory and computational tasks, yet the relatively slow hybridization kinetics remain a bottleneck. Here, Song et al. have developed an electric field-induced hybridization platform that can speed up multi-bit memory and logic operations.

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Detalles Bibliográficos
Autores principales:	Youngjun Song, Sejung Kim, Michael J. Heller, Xiaohua Huang
Formato:	article
Lenguaje:	EN
Publicado:	Nature Portfolio 2018
Materias:	Science Q
Acceso en línea:	https://doaj.org/article/10613de65b184d2284bbf33d90a76e13
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spelling	oai:doaj.org-article:10613de65b184d2284bbf33d90a76e132021-12-02T15:34:19ZDNA multi-bit non-volatile memory and bit-shifting operations using addressable electrode arrays and electric field-induced hybridization10.1038/s41467-017-02705-82041-1723https://doaj.org/article/10613de65b184d2284bbf33d90a76e132018-01-01T00:00:00Zhttps://doi.org/10.1038/s41467-017-02705-8https://doaj.org/toc/2041-1723DNA based technology holds promise for non-volatile memory and computational tasks, yet the relatively slow hybridization kinetics remain a bottleneck. Here, Song et al. have developed an electric field-induced hybridization platform that can speed up multi-bit memory and logic operations.Youngjun SongSejung KimMichael J. HellerXiaohua HuangNature PortfolioarticleScienceQENNature Communications, Vol 9, Iss 1, Pp 1-8 (2018)
institution	DOAJ
collection	DOAJ
language	EN
topic	Science Q
spellingShingle	Science Q Youngjun Song Sejung Kim Michael J. Heller Xiaohua Huang DNA multi-bit non-volatile memory and bit-shifting operations using addressable electrode arrays and electric field-induced hybridization
description	DNA based technology holds promise for non-volatile memory and computational tasks, yet the relatively slow hybridization kinetics remain a bottleneck. Here, Song et al. have developed an electric field-induced hybridization platform that can speed up multi-bit memory and logic operations.
format	article
author	Youngjun Song Sejung Kim Michael J. Heller Xiaohua Huang
author_facet	Youngjun Song Sejung Kim Michael J. Heller Xiaohua Huang
author_sort	Youngjun Song
title	DNA multi-bit non-volatile memory and bit-shifting operations using addressable electrode arrays and electric field-induced hybridization
title_short	DNA multi-bit non-volatile memory and bit-shifting operations using addressable electrode arrays and electric field-induced hybridization
title_full	DNA multi-bit non-volatile memory and bit-shifting operations using addressable electrode arrays and electric field-induced hybridization
title_fullStr	DNA multi-bit non-volatile memory and bit-shifting operations using addressable electrode arrays and electric field-induced hybridization
title_full_unstemmed	DNA multi-bit non-volatile memory and bit-shifting operations using addressable electrode arrays and electric field-induced hybridization
title_sort	dna multi-bit non-volatile memory and bit-shifting operations using addressable electrode arrays and electric field-induced hybridization
publisher	Nature Portfolio
publishDate	2018
url	https://doaj.org/article/10613de65b184d2284bbf33d90a76e13
work_keys_str_mv	AT youngjunsong dnamultibitnonvolatilememoryandbitshiftingoperationsusingaddressableelectrodearraysandelectricfieldinducedhybridization AT sejungkim dnamultibitnonvolatilememoryandbitshiftingoperationsusingaddressableelectrodearraysandelectricfieldinducedhybridization AT michaeljheller dnamultibitnonvolatilememoryandbitshiftingoperationsusingaddressableelectrodearraysandelectricfieldinducedhybridization AT xiaohuahuang dnamultibitnonvolatilememoryandbitshiftingoperationsusingaddressableelectrodearraysandelectricfieldinducedhybridization
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DNA multi-bit non-volatile memory and bit-shifting operations using addressable electrode arrays and electric field-induced hybridization

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