Precise Control of Nanoscale Interface for Efficient Electrochemical Reactions

Control of the nanoscale interface leads to efficient electrochemical reactions and unique molecular behaviors. This paper reviews our recent investigations on understanding the unique property of the electrochemical reactions at nanostructured interfaces. We have focused on the control of chemical...

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Autores principales:	Hiro MINAMIMOTO, Kei MURAKOSHI
Formato:	article
Lenguaje:	EN JA
Publicado:	The Electrochemical Society of Japan 2021
Materias:	localized surface plasmon resonance plasmon-induced electron transfer electrochemical surface-enhanced raman scattering hydrogen evolution reaction Technology T Physical and theoretical chemistry QD450-801
Acceso en línea:	https://doaj.org/article/c0137a2a1967411794e30e9195113b33
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id	oai:doaj.org-article:c0137a2a1967411794e30e9195113b33
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spelling	oai:doaj.org-article:c0137a2a1967411794e30e9195113b332021-11-05T00:17:27ZPrecise Control of Nanoscale Interface for Efficient Electrochemical Reactions2186-245110.5796/electrochemistry.21-00080https://doaj.org/article/c0137a2a1967411794e30e9195113b332021-11-01T00:00:00Zhttps://www.jstage.jst.go.jp/article/electrochemistry/89/6/89_21-00080/_html/-char/enhttps://doaj.org/toc/2186-2451Control of the nanoscale interface leads to efficient electrochemical reactions and unique molecular behaviors. This paper reviews our recent investigations on understanding the unique property of the electrochemical reactions at nanostructured interfaces. We have focused on the control of chemical reactions in the vicinity of metal nanostructures to condense the energy perturbations of electrons, ions, and photons. We have established an electrochemical nanostructure control method to achieve ultimate energy condensation. In addition, we have revealed the unique molecular behaviors induced by the strong interaction between the target molecules and the nanostructured electrode, originating from the hybridization of the electronic states showing collective excitation modes especially under the light illumination. Furthermore, we have attempted to efficiently control the electrochemical reactions and observe the unique reaction selectivity on the nanostructured electrodes. Through these investigations, we have proposed advantages for the control of nanostructured interfaces to overcome the current limitation of electrochemical reactions.Hiro MINAMIMOTOKei MURAKOSHIThe Electrochemical Society of Japanarticlelocalized surface plasmon resonanceplasmon-induced electron transferelectrochemical surface-enhanced raman scatteringhydrogen evolution reactionTechnologyTPhysical and theoretical chemistryQD450-801ENJAElectrochemistry, Vol 89, Iss 6, Pp 525-535 (2021)
institution	DOAJ
collection	DOAJ
language	EN JA
topic	localized surface plasmon resonance plasmon-induced electron transfer electrochemical surface-enhanced raman scattering hydrogen evolution reaction Technology T Physical and theoretical chemistry QD450-801
spellingShingle	localized surface plasmon resonance plasmon-induced electron transfer electrochemical surface-enhanced raman scattering hydrogen evolution reaction Technology T Physical and theoretical chemistry QD450-801 Hiro MINAMIMOTO Kei MURAKOSHI Precise Control of Nanoscale Interface for Efficient Electrochemical Reactions
description	Control of the nanoscale interface leads to efficient electrochemical reactions and unique molecular behaviors. This paper reviews our recent investigations on understanding the unique property of the electrochemical reactions at nanostructured interfaces. We have focused on the control of chemical reactions in the vicinity of metal nanostructures to condense the energy perturbations of electrons, ions, and photons. We have established an electrochemical nanostructure control method to achieve ultimate energy condensation. In addition, we have revealed the unique molecular behaviors induced by the strong interaction between the target molecules and the nanostructured electrode, originating from the hybridization of the electronic states showing collective excitation modes especially under the light illumination. Furthermore, we have attempted to efficiently control the electrochemical reactions and observe the unique reaction selectivity on the nanostructured electrodes. Through these investigations, we have proposed advantages for the control of nanostructured interfaces to overcome the current limitation of electrochemical reactions.
format	article
author	Hiro MINAMIMOTO Kei MURAKOSHI
author_facet	Hiro MINAMIMOTO Kei MURAKOSHI
author_sort	Hiro MINAMIMOTO
title	Precise Control of Nanoscale Interface for Efficient Electrochemical Reactions
title_short	Precise Control of Nanoscale Interface for Efficient Electrochemical Reactions
title_full	Precise Control of Nanoscale Interface for Efficient Electrochemical Reactions
title_fullStr	Precise Control of Nanoscale Interface for Efficient Electrochemical Reactions
title_full_unstemmed	Precise Control of Nanoscale Interface for Efficient Electrochemical Reactions
title_sort	precise control of nanoscale interface for efficient electrochemical reactions
publisher	The Electrochemical Society of Japan
publishDate	2021
url	https://doaj.org/article/c0137a2a1967411794e30e9195113b33
work_keys_str_mv	AT hirominamimoto precisecontrolofnanoscaleinterfaceforefficientelectrochemicalreactions AT keimurakoshi precisecontrolofnanoscaleinterfaceforefficientelectrochemicalreactions
_version_	1718444553532342272

Precise Control of Nanoscale Interface for Efficient Electrochemical Reactions

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