Recent Advances in Plasmonic Nanostructures for Enhanced Photocatalysis and Electrocatalysis

Plasmonic nanomaterials coupled with catalytically active surfaces can provide unique opportunities for various catalysis applications, where surface plasmons produced upon proper light excitation can be adopted to drive and/or facilitate various chemical reactions. A brief introduction to the local...

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Vydáno v:	Advanced materials (Weinheim) Ročník 33; číslo 6; s. e2000086 - n/a
Hlavní autoři:	Li, Siwei, Miao, Peng, Zhang, Yuanyuan, Wu, Jie, Zhang, Bin, Du, Yunchen, Han, Xijiang, Sun, Jianmin, Xu, Ping
Médium:	Journal Article
Jazyk:	angličtina
Vydáno:	Germany Wiley Subscription Services, Inc 01.02.2021
Témata:	Ammonia Carbon dioxide catalysis Chemical reactions Decomposition reactions Energy conversion Energy storage Heterostructures Hydrogen evolution reactions Materials science Nanomaterials Nanostructure Nitrogenation Oxidation Oxygen evolution reactions Oxygen reduction reactions Photochemical reactions plasmonic materials Plasmonics Plasmons plasmon‐driven photocatalytic reactions plasmon‐enhanced electrocatalytic reactions surface plasmon catalysis plasmon-driven photocatalytic reactions plasmonic materials plasmon-enhanced electrocatalytic reactions surface plasmon
ISSN:	0935-9648, 1521-4095, 1521-4095
On-line přístup:	Získat plný text
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Abstract	Plasmonic nanomaterials coupled with catalytically active surfaces can provide unique opportunities for various catalysis applications, where surface plasmons produced upon proper light excitation can be adopted to drive and/or facilitate various chemical reactions. A brief introduction to the localized surface plasmon resonance and recent design and fabrication of highly efficient plasmonic nanostructures, including plasmonic metal nanostructures and metal/semiconductor heterostructures is given. Taking advantage of these plasmonic nanostructures, the following highlights summarize recent advances in plasmon‐driven photochemical reactions (coupling reactions, O2 dissociation and oxidation reactions, H2 dissociation and hydrogenation reactions, N2 fixation and NH3 decomposition, and CO2 reduction) and plasmon‐enhanced electrocatalytic reactions (hydrogen evolution reaction, oxygen reduction reaction, oxygen evolution reaction, alcohol oxidation reaction, and CO2 reduction). Theoretical and experimental approaches for understanding the underlying mechanism of surface plasmon are discussed. A proper discussion and perspective of the remaining challenges and future opportunities for plasmonic nanomaterials and plasmon‐related chemistry in the field of energy conversion and storage is given in conclusion. The recent advances in applying the surface plasmon resonance effect from plasmonic nanostructures for enhanced photocatalysis and electrocatalysis are comprehensively summarized, highlighting the synthesis strategies of plasmonic nanomaterials along with future directions of plasmon‐related research.
AbstractList	Plasmonic nanomaterials coupled with catalytically active surfaces can provide unique opportunities for various catalysis applications, where surface plasmons produced upon proper light excitation can be adopted to drive and/or facilitate various chemical reactions. A brief introduction to the localized surface plasmon resonance and recent design and fabrication of highly efficient plasmonic nanostructures, including plasmonic metal nanostructures and metal/semiconductor heterostructures is given. Taking advantage of these plasmonic nanostructures, the following highlights summarize recent advances in plasmon‐driven photochemical reactions (coupling reactions, O2 dissociation and oxidation reactions, H2 dissociation and hydrogenation reactions, N2 fixation and NH3 decomposition, and CO2 reduction) and plasmon‐enhanced electrocatalytic reactions (hydrogen evolution reaction, oxygen reduction reaction, oxygen evolution reaction, alcohol oxidation reaction, and CO2 reduction). Theoretical and experimental approaches for understanding the underlying mechanism of surface plasmon are discussed. A proper discussion and perspective of the remaining challenges and future opportunities for plasmonic nanomaterials and plasmon‐related chemistry in the field of energy conversion and storage is given in conclusion. The recent advances in applying the surface plasmon resonance effect from plasmonic nanostructures for enhanced photocatalysis and electrocatalysis are comprehensively summarized, highlighting the synthesis strategies of plasmonic nanomaterials along with future directions of plasmon‐related research. Plasmonic nanomaterials coupled with catalytically active surfaces can provide unique opportunities for various catalysis applications, where surface plasmons produced upon proper light excitation can be adopted to drive and/or facilitate various chemical reactions. A brief introduction to the localized surface plasmon resonance and recent design and fabrication of highly efficient plasmonic nanostructures, including plasmonic metal nanostructures and metal/semiconductor heterostructures is given. Taking advantage of these plasmonic nanostructures, the following highlights summarize recent advances in plasmon‐driven photochemical reactions (coupling reactions, O2 dissociation and oxidation reactions, H2 dissociation and hydrogenation reactions, N2 fixation and NH3 decomposition, and CO2 reduction) and plasmon‐enhanced electrocatalytic reactions (hydrogen evolution reaction, oxygen reduction reaction, oxygen evolution reaction, alcohol oxidation reaction, and CO2 reduction). Theoretical and experimental approaches for understanding the underlying mechanism of surface plasmon are discussed. A proper discussion and perspective of the remaining challenges and future opportunities for plasmonic nanomaterials and plasmon‐related chemistry in the field of energy conversion and storage is given in conclusion. Plasmonic nanomaterials coupled with catalytically active surfaces can provide unique opportunities for various catalysis applications, where surface plasmons produced upon proper light excitation can be adopted to drive and/or facilitate various chemical reactions. A brief introduction to the localized surface plasmon resonance and recent design and fabrication of highly efficient plasmonic nanostructures, including plasmonic metal nanostructures and metal/semiconductor heterostructures is given. Taking advantage of these plasmonic nanostructures, the following highlights summarize recent advances in plasmon-driven photochemical reactions (coupling reactions, O dissociation and oxidation reactions, H dissociation and hydrogenation reactions, N fixation and NH decomposition, and CO reduction) and plasmon-enhanced electrocatalytic reactions (hydrogen evolution reaction, oxygen reduction reaction, oxygen evolution reaction, alcohol oxidation reaction, and CO reduction). Theoretical and experimental approaches for understanding the underlying mechanism of surface plasmon are discussed. A proper discussion and perspective of the remaining challenges and future opportunities for plasmonic nanomaterials and plasmon-related chemistry in the field of energy conversion and storage is given in conclusion. Plasmonic nanomaterials coupled with catalytically active surfaces can provide unique opportunities for various catalysis applications, where surface plasmons produced upon proper light excitation can be adopted to drive and/or facilitate various chemical reactions. A brief introduction to the localized surface plasmon resonance and recent design and fabrication of highly efficient plasmonic nanostructures, including plasmonic metal nanostructures and metal/semiconductor heterostructures is given. Taking advantage of these plasmonic nanostructures, the following highlights summarize recent advances in plasmon‐driven photochemical reactions (coupling reactions, O 2 dissociation and oxidation reactions, H 2 dissociation and hydrogenation reactions, N 2 fixation and NH 3 decomposition, and CO 2 reduction) and plasmon‐enhanced electrocatalytic reactions (hydrogen evolution reaction, oxygen reduction reaction, oxygen evolution reaction, alcohol oxidation reaction, and CO 2 reduction). Theoretical and experimental approaches for understanding the underlying mechanism of surface plasmon are discussed. A proper discussion and perspective of the remaining challenges and future opportunities for plasmonic nanomaterials and plasmon‐related chemistry in the field of energy conversion and storage is given in conclusion. Plasmonic nanomaterials coupled with catalytically active surfaces can provide unique opportunities for various catalysis applications, where surface plasmons produced upon proper light excitation can be adopted to drive and/or facilitate various chemical reactions. A brief introduction to the localized surface plasmon resonance and recent design and fabrication of highly efficient plasmonic nanostructures, including plasmonic metal nanostructures and metal/semiconductor heterostructures is given. Taking advantage of these plasmonic nanostructures, the following highlights summarize recent advances in plasmon-driven photochemical reactions (coupling reactions, O2 dissociation and oxidation reactions, H2 dissociation and hydrogenation reactions, N2 fixation and NH3 decomposition, and CO2 reduction) and plasmon-enhanced electrocatalytic reactions (hydrogen evolution reaction, oxygen reduction reaction, oxygen evolution reaction, alcohol oxidation reaction, and CO2 reduction). Theoretical and experimental approaches for understanding the underlying mechanism of surface plasmon are discussed. A proper discussion and perspective of the remaining challenges and future opportunities for plasmonic nanomaterials and plasmon-related chemistry in the field of energy conversion and storage is given in conclusion.Plasmonic nanomaterials coupled with catalytically active surfaces can provide unique opportunities for various catalysis applications, where surface plasmons produced upon proper light excitation can be adopted to drive and/or facilitate various chemical reactions. A brief introduction to the localized surface plasmon resonance and recent design and fabrication of highly efficient plasmonic nanostructures, including plasmonic metal nanostructures and metal/semiconductor heterostructures is given. Taking advantage of these plasmonic nanostructures, the following highlights summarize recent advances in plasmon-driven photochemical reactions (coupling reactions, O2 dissociation and oxidation reactions, H2 dissociation and hydrogenation reactions, N2 fixation and NH3 decomposition, and CO2 reduction) and plasmon-enhanced electrocatalytic reactions (hydrogen evolution reaction, oxygen reduction reaction, oxygen evolution reaction, alcohol oxidation reaction, and CO2 reduction). Theoretical and experimental approaches for understanding the underlying mechanism of surface plasmon are discussed. A proper discussion and perspective of the remaining challenges and future opportunities for plasmonic nanomaterials and plasmon-related chemistry in the field of energy conversion and storage is given in conclusion.
Author	Miao, Peng Wu, Jie Zhang, Yuanyuan Li, Siwei Zhang, Bin Du, Yunchen Han, Xijiang Sun, Jianmin Xu, Ping
Author_xml	– sequence: 1 givenname: Siwei surname: Li fullname: Li, Siwei organization: Harbin Institute of Technology – sequence: 2 givenname: Peng surname: Miao fullname: Miao, Peng organization: Harbin Institute of Technology – sequence: 3 givenname: Yuanyuan surname: Zhang fullname: Zhang, Yuanyuan organization: Harbin Institute of Technology – sequence: 4 givenname: Jie surname: Wu fullname: Wu, Jie organization: Harbin Institute of Technology – sequence: 5 givenname: Bin surname: Zhang fullname: Zhang, Bin organization: Harbin Institute of Technology – sequence: 6 givenname: Yunchen surname: Du fullname: Du, Yunchen organization: Harbin Institute of Technology – sequence: 7 givenname: Xijiang surname: Han fullname: Han, Xijiang organization: Harbin Institute of Technology – sequence: 8 givenname: Jianmin surname: Sun fullname: Sun, Jianmin organization: Harbin Institute of Technology – sequence: 9 givenname: Ping orcidid: 0000-0002-1516-4986 surname: Xu fullname: Xu, Ping email: pxu@hit.edu.cn organization: Harbin Institute of Technology
BackLink	https://www.ncbi.nlm.nih.gov/pubmed/32201994$$D View this record in MEDLINE/PubMed
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Snippet	Plasmonic nanomaterials coupled with catalytically active surfaces can provide unique opportunities for various catalysis applications, where surface plasmons...
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SubjectTerms	Ammonia Carbon dioxide catalysis Chemical reactions Decomposition reactions Energy conversion Energy storage Heterostructures Hydrogen evolution reactions Materials science Nanomaterials Nanostructure Nitrogenation Oxidation Oxygen evolution reactions Oxygen reduction reactions Photochemical reactions plasmonic materials Plasmonics Plasmons plasmon‐driven photocatalytic reactions plasmon‐enhanced electrocatalytic reactions surface plasmon
Title	Recent Advances in Plasmonic Nanostructures for Enhanced Photocatalysis and Electrocatalysis
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