The Role of Oxidative Etching in the Synthesis of Ultrathin Single-Crystalline Au Nanowires

The fabrication of ultrathin single‐crystal Au nanowires with high aspect ratio and that are stable in air is challenging. Recently, a simple wet‐chemical approach using oleylamine has been reported for the synthesis of Au nanowires with micrometer length and 2 nm in diameter. Despite efforts to und...

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Veröffentlicht in:Chemistry : a European journal 2011-08, Vol.17 (34), p.9503-9507
Hauptverfasser: Kisner, Alexandre, Heggen, Marc, Fernández, Enrique, Lenk, Steffi, Mayer, Dirk, Simon, Ulrich, Offenhäusser, Andreas, Mourzina, Yulia
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container_end_page 9507
container_issue 34
container_start_page 9503
container_title Chemistry : a European journal
container_volume 17
creator Kisner, Alexandre
Heggen, Marc
Fernández, Enrique
Lenk, Steffi
Mayer, Dirk
Simon, Ulrich
Offenhäusser, Andreas
Mourzina, Yulia
description The fabrication of ultrathin single‐crystal Au nanowires with high aspect ratio and that are stable in air is challenging. Recently, a simple wet‐chemical approach using oleylamine has been reported for the synthesis of Au nanowires with micrometer length and 2 nm in diameter. Despite efforts to understand the mechanism of the reaction, an ultimate question about the role of oxygen (O2) during the synthesis remained unclear. Here we report that the synthesis of ultrathin Au nanowires employing oleylamine is strongly affected by the amount of O2 absorbed in the reaction solution. Saturating the solution with O2 leads to both a high‐yield production of nanowires and an increase in their length. Nanowires with diameters of about 2 nm and lengths of 8 μm, which corresponds to an aspect ratio of approximately 4000, were produced. The role of oxygen is attributed to the enhanced oxidation of twin defects on Au nanoparticles formed in the first stage of the reaction. Understanding the role of oxidative etching is crucial to significantly increasing the yield and the length of ultrathin Au nanowires. Down to the wire: The synthesis of ultrathin Au nanowires using oleylamine has been found to be strongly affected by the amount of O2 absorbed in the reaction solution. The nanowire formation is based on an enhanced oxidation of twin defects on Au nanoparticles (see figure). Through this, nanowires with diameters of 2 nm and lengths of 8 μm can be produced.
doi_str_mv 10.1002/chem.201100169
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Recently, a simple wet‐chemical approach using oleylamine has been reported for the synthesis of Au nanowires with micrometer length and 2 nm in diameter. Despite efforts to understand the mechanism of the reaction, an ultimate question about the role of oxygen (O2) during the synthesis remained unclear. Here we report that the synthesis of ultrathin Au nanowires employing oleylamine is strongly affected by the amount of O2 absorbed in the reaction solution. Saturating the solution with O2 leads to both a high‐yield production of nanowires and an increase in their length. Nanowires with diameters of about 2 nm and lengths of 8 μm, which corresponds to an aspect ratio of approximately 4000, were produced. The role of oxygen is attributed to the enhanced oxidation of twin defects on Au nanoparticles formed in the first stage of the reaction. Understanding the role of oxidative etching is crucial to significantly increasing the yield and the length of ultrathin Au nanowires. Down to the wire: The synthesis of ultrathin Au nanowires using oleylamine has been found to be strongly affected by the amount of O2 absorbed in the reaction solution. The nanowire formation is based on an enhanced oxidation of twin defects on Au nanoparticles (see figure). 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Eur. J</addtitle><description>The fabrication of ultrathin single‐crystal Au nanowires with high aspect ratio and that are stable in air is challenging. Recently, a simple wet‐chemical approach using oleylamine has been reported for the synthesis of Au nanowires with micrometer length and 2 nm in diameter. Despite efforts to understand the mechanism of the reaction, an ultimate question about the role of oxygen (O2) during the synthesis remained unclear. Here we report that the synthesis of ultrathin Au nanowires employing oleylamine is strongly affected by the amount of O2 absorbed in the reaction solution. Saturating the solution with O2 leads to both a high‐yield production of nanowires and an increase in their length. Nanowires with diameters of about 2 nm and lengths of 8 μm, which corresponds to an aspect ratio of approximately 4000, were produced. 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source MEDLINE; Wiley Online Library Journals Frontfile Complete
subjects Amines - chemistry
Chemistry
crystal growth
Crystallization
gold
Gold - chemistry
Microscopy, Electron, Transmission
Nanoparticles - chemistry
Nanoparticles - ultrastructure
nanostructures
Nanotechnology - methods
Nanowires - chemistry
Nanowires - ultrastructure
oleylamine
oxidation
Oxidation-Reduction
Oxides - chemistry
Oxygen - chemistry
Temperature
X-Ray Diffraction
title The Role of Oxidative Etching in the Synthesis of Ultrathin Single-Crystalline Au Nanowires
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