The water meniscus condensed between a nanoscale tip and an atomically flat gold surface was examined under humid conditions using grand canonical Monte Carlo simulations. The molecular structure of the meniscus was investigated with particular focus on its width and stability. The capillary force due to the meniscus showed a dampened oscillation with increasing separation between the tip and surface because of the formation and destruction of water layers. The layering of water between the tip and the surface was different from that of the water confined between two plates. The humidity dependence of the capillary force exhibited a crossover behavior with increasing humidity, which is in agreement with the typical atomic force microscopy e...
During the sliding of an atomic force microscope (AFM) tip on a rough hydrophilic surface, water cap...
This study aims at understanding the characteristics of negative liquid pressures at the nanoscale u...
Due to their operation principle atomic force microscopes (AFMs) are sensitive to all factors affect...
Transport mechanisms involved in capillary condensation of water menisci in nanoscopic gaps between ...
The primary focus of this dissertation is on characterizing two fundamental forces common to adhesio...
AbstractCapillary forces between particles often dominate other adhesion forces. However, the calcul...
We present a method to numerically calculate the exact (non-circular) meniscus profile from the Kelv...
© 2007 American Physical Society. The electronic version of this article is the complete one and can...
Due to the strong capillary condensation, the adhesion force between a Si3N4 atomic force microscope...
Scanning force microscopy, such as atomic force microscopy (AFM) is complicated by the capillary for...
Adhesion issues are present in many disciplines such as, for example, surface science, microrobotics...
Adhesion issues are present in many disciplines such as, for example, surface science, microrobotics...
Due to their operation principle atomic force microscopes (AFMs) are sensitive to all factors affect...
Due to their operation principle atomic force microscopes (AFMs) are sensitive to all factors affect...
We present an analytical model that explains how in humidenvironments the electric field near a shar...
During the sliding of an atomic force microscope (AFM) tip on a rough hydrophilic surface, water cap...
This study aims at understanding the characteristics of negative liquid pressures at the nanoscale u...
Due to their operation principle atomic force microscopes (AFMs) are sensitive to all factors affect...
Transport mechanisms involved in capillary condensation of water menisci in nanoscopic gaps between ...
The primary focus of this dissertation is on characterizing two fundamental forces common to adhesio...
AbstractCapillary forces between particles often dominate other adhesion forces. However, the calcul...
We present a method to numerically calculate the exact (non-circular) meniscus profile from the Kelv...
© 2007 American Physical Society. The electronic version of this article is the complete one and can...
Due to the strong capillary condensation, the adhesion force between a Si3N4 atomic force microscope...
Scanning force microscopy, such as atomic force microscopy (AFM) is complicated by the capillary for...
Adhesion issues are present in many disciplines such as, for example, surface science, microrobotics...
Adhesion issues are present in many disciplines such as, for example, surface science, microrobotics...
Due to their operation principle atomic force microscopes (AFMs) are sensitive to all factors affect...
Due to their operation principle atomic force microscopes (AFMs) are sensitive to all factors affect...
We present an analytical model that explains how in humidenvironments the electric field near a shar...
During the sliding of an atomic force microscope (AFM) tip on a rough hydrophilic surface, water cap...
This study aims at understanding the characteristics of negative liquid pressures at the nanoscale u...
Due to their operation principle atomic force microscopes (AFMs) are sensitive to all factors affect...