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Drying nano particles solution on an oscillating tip at an air liquid interface: what we can learn, what we can do

Evaporation of fluid at micro and nanometer scale may be used to self-assemble nanometre-sized particles in suspension. Evaporating process can be used to gently control flow in micro and nanofluidics, thus providing a potential mean to design a fine pattern onto a surface or to functionalize a nano...

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Autores principales: Bernard, Charlotte, Aimé, Jean-Pierre, Marsaudon, Sophie, Levy, Raphaël, Bonnot, Anne Marie, Nguyen, Cattien, Mariolle, Denis, Bertin, François, Chabli, Amal
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Springer 2007
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC3246374/
http://dx.doi.org/10.1007/s11671-007-9065-5
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author Bernard, Charlotte
Aimé, Jean-Pierre
Marsaudon, Sophie
Levy, Raphaël
Bonnot, Anne Marie
Nguyen, Cattien
Mariolle, Denis
Bertin, François
Chabli, Amal
author_facet Bernard, Charlotte
Aimé, Jean-Pierre
Marsaudon, Sophie
Levy, Raphaël
Bonnot, Anne Marie
Nguyen, Cattien
Mariolle, Denis
Bertin, François
Chabli, Amal
author_sort Bernard, Charlotte
collection PubMed
description Evaporation of fluid at micro and nanometer scale may be used to self-assemble nanometre-sized particles in suspension. Evaporating process can be used to gently control flow in micro and nanofluidics, thus providing a potential mean to design a fine pattern onto a surface or to functionalize a nanoprobe tip. In this paper, we present an original experimental approach to explore this open and rather virgin domain. We use an oscillating tip at an air liquid interface with a controlled dipping depth of the tip within the range of the micrometer. Also, very small dipping depths of a few ten nanometers were achieved with multi walls carbon nanotubes glued at the tip apex. The liquid is an aqueous solution of functionalized nanoparticles diluted in water. Evaporation of water is the driving force determining the arrangement of nanoparticles on the tip. The results show various nanoparticles deposition patterns, from which the deposits can be classified in two categories. The type of deposit is shown to be strongly dependent on whether or not the triple line is pinned and of the peptide coating of the gold nanoparticle. In order to assess the classification, companion dynamical studies of nanomeniscus and related dissipation processes involved with thinning effects are presented.
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spelling pubmed-32463742011-12-29 Drying nano particles solution on an oscillating tip at an air liquid interface: what we can learn, what we can do Bernard, Charlotte Aimé, Jean-Pierre Marsaudon, Sophie Levy, Raphaël Bonnot, Anne Marie Nguyen, Cattien Mariolle, Denis Bertin, François Chabli, Amal Nanoscale Res Lett Nano Review Evaporation of fluid at micro and nanometer scale may be used to self-assemble nanometre-sized particles in suspension. Evaporating process can be used to gently control flow in micro and nanofluidics, thus providing a potential mean to design a fine pattern onto a surface or to functionalize a nanoprobe tip. In this paper, we present an original experimental approach to explore this open and rather virgin domain. We use an oscillating tip at an air liquid interface with a controlled dipping depth of the tip within the range of the micrometer. Also, very small dipping depths of a few ten nanometers were achieved with multi walls carbon nanotubes glued at the tip apex. The liquid is an aqueous solution of functionalized nanoparticles diluted in water. Evaporation of water is the driving force determining the arrangement of nanoparticles on the tip. The results show various nanoparticles deposition patterns, from which the deposits can be classified in two categories. The type of deposit is shown to be strongly dependent on whether or not the triple line is pinned and of the peptide coating of the gold nanoparticle. In order to assess the classification, companion dynamical studies of nanomeniscus and related dissipation processes involved with thinning effects are presented. Springer 2007-06-15 /pmc/articles/PMC3246374/ http://dx.doi.org/10.1007/s11671-007-9065-5 Text en Copyright ©2007 to the authors
spellingShingle Nano Review
Bernard, Charlotte
Aimé, Jean-Pierre
Marsaudon, Sophie
Levy, Raphaël
Bonnot, Anne Marie
Nguyen, Cattien
Mariolle, Denis
Bertin, François
Chabli, Amal
Drying nano particles solution on an oscillating tip at an air liquid interface: what we can learn, what we can do
title Drying nano particles solution on an oscillating tip at an air liquid interface: what we can learn, what we can do
title_full Drying nano particles solution on an oscillating tip at an air liquid interface: what we can learn, what we can do
title_fullStr Drying nano particles solution on an oscillating tip at an air liquid interface: what we can learn, what we can do
title_full_unstemmed Drying nano particles solution on an oscillating tip at an air liquid interface: what we can learn, what we can do
title_short Drying nano particles solution on an oscillating tip at an air liquid interface: what we can learn, what we can do
title_sort drying nano particles solution on an oscillating tip at an air liquid interface: what we can learn, what we can do
topic Nano Review
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC3246374/
http://dx.doi.org/10.1007/s11671-007-9065-5
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