Mechanism of atomic force microscopy imaging of three-dimensional hydration structures at a solid-liquid interface

Here we present both subnanometer imaging of three-dimensional (3D) hydration structures using atomic force microscopy (AFM) and molecular dynamics simulations of the calcite-water interface. In AFM, by scanning the 3D interfacial space in pure water and recording the force on the tip, a 3D force im...

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Main Authors: Fukuma, T., Reischl, Bernhard, Kobayashi, N., Spijker, P., Canova, F., Miyazawa, K., Foster, A.
Format: Journal Article
Published: 2015
Online Access:http://purl.org/au-research/grants/arc/DP140101776
http://hdl.handle.net/20.500.11937/4921
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author Fukuma, T.
Reischl, Bernhard
Kobayashi, N.
Spijker, P.
Canova, F.
Miyazawa, K.
Foster, A.
author_facet Fukuma, T.
Reischl, Bernhard
Kobayashi, N.
Spijker, P.
Canova, F.
Miyazawa, K.
Foster, A.
author_sort Fukuma, T.
building Curtin Institutional Repository
collection Online Access
description Here we present both subnanometer imaging of three-dimensional (3D) hydration structures using atomic force microscopy (AFM) and molecular dynamics simulations of the calcite-water interface. In AFM, by scanning the 3D interfacial space in pure water and recording the force on the tip, a 3D force image can be produced, which can then be directly compared to the simulated 3D water density and forces on a model tip. Analyzing in depth the resemblance between experiment and simulation as a function of the tip-sample distance allowed us to clarify the contrast mechanism in the force images and the reason for their agreement with water density distributions. This work aims to form the theoretical basis for AFM imaging of hydration structures and enables its application to future studies on important interfacial processes at the molecular scale.
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institution Curtin University Malaysia
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publishDate 2015
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spelling curtin-20.500.11937-49212022-10-12T02:56:52Z Mechanism of atomic force microscopy imaging of three-dimensional hydration structures at a solid-liquid interface Fukuma, T. Reischl, Bernhard Kobayashi, N. Spijker, P. Canova, F. Miyazawa, K. Foster, A. Here we present both subnanometer imaging of three-dimensional (3D) hydration structures using atomic force microscopy (AFM) and molecular dynamics simulations of the calcite-water interface. In AFM, by scanning the 3D interfacial space in pure water and recording the force on the tip, a 3D force image can be produced, which can then be directly compared to the simulated 3D water density and forces on a model tip. Analyzing in depth the resemblance between experiment and simulation as a function of the tip-sample distance allowed us to clarify the contrast mechanism in the force images and the reason for their agreement with water density distributions. This work aims to form the theoretical basis for AFM imaging of hydration structures and enables its application to future studies on important interfacial processes at the molecular scale. 2015 Journal Article http://hdl.handle.net/20.500.11937/4921 10.1103/PhysRevB.92.155412 http://purl.org/au-research/grants/arc/DP140101776 fulltext
spellingShingle Fukuma, T.
Reischl, Bernhard
Kobayashi, N.
Spijker, P.
Canova, F.
Miyazawa, K.
Foster, A.
Mechanism of atomic force microscopy imaging of three-dimensional hydration structures at a solid-liquid interface
title Mechanism of atomic force microscopy imaging of three-dimensional hydration structures at a solid-liquid interface
title_full Mechanism of atomic force microscopy imaging of three-dimensional hydration structures at a solid-liquid interface
title_fullStr Mechanism of atomic force microscopy imaging of three-dimensional hydration structures at a solid-liquid interface
title_full_unstemmed Mechanism of atomic force microscopy imaging of three-dimensional hydration structures at a solid-liquid interface
title_short Mechanism of atomic force microscopy imaging of three-dimensional hydration structures at a solid-liquid interface
title_sort mechanism of atomic force microscopy imaging of three-dimensional hydration structures at a solid-liquid interface
url http://purl.org/au-research/grants/arc/DP140101776
http://hdl.handle.net/20.500.11937/4921