Influence of atomic force microscope (AFM) probe shape on adhesion force measured in humidity environment

被引:0
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作者
Li Yang
Yu-song Tu
Hui-li Tan
机构
[1] Guangxi Normal University,College of Physics Science and Technology
[2] Shanghai University,Institute of Systems Biology
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关键词
capillary force; van derWaals force; adhesion force; curvatures probe shape; O343; 74M10;
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摘要
In micro-manipulation, the adhesion force has very important influence on behaviors of micro-objects. Here, a theoretical study on the effects of humidity on the adhesion force is presented between atomic force microscope (AFM) tips and substrate. The analysis shows that the precise tip geometry plays a critical role on humidity dependence of the adhesion force, which is the dominant factor in manipulating micro-objects in AFM experiments. For a blunt (paraboloid) tip, the adhesion force versus humidity curves tends to the apparent contrast (peak-to-valley corrugation) with a broad range. This paper demonstrates that the abrupt change of the adhesion force has high correlation with probe curvatures, which is mediated by coordinates of solid-liquid-vapor contact lines (triple point) on the probe profiles. The study provides insights for further understanding nanoscale adhesion forces and the way to choose probe shapes in manipulating micro-objects in AFM experiments.
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页码:567 / 574
页数:7
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