In this paper, we first explain how to extract accurately the driving force acting on the acoustic driven atomic force microscope cantilever in liquid from the measured resonance curve. We present a model that includes the driving force to extract precisely the damping and the stiffness of the tip sample interaction. The model is validated by an experimental test based on two independent methods to measure the hydrodynamic drag coefficient of a sphere moving perpendicular to flat surface.Détermination des propriétés rhéologiques d'un fluide à l'aide de vibration de microlevie
The functionality of atomic force microscopy (AFM) and nanomechanical sensing can be enhanced using ...
We determine conservative and dissipative tip–sample interaction forces from the amplitude and phase...
We constructed an atomic force acoustic microscope that enables one to detect out-of-plane and in-pl...
In this paper, we first explain how to extract accurately the driving force acting on the acoustic d...
In this letter the authors present an analytical description that enables determining the motion of ...
AbstractThe frequency response behavior of Atomic Force Microscopy (AFM) cantilevers in liquids is c...
AbstractOperating an Atomic Force Microscopy (AFM) with the cantilever and sample immersed in a liqu...
Measuring quantitative tip–sample interaction forces in dynamic atomic force microscopy in fluids is...
The cantilever-sample system of an atomic force acoustic microscope is excited in the frequency rang...
For imaging and manipulation of biological specimens application of atomic force microscopy (AFM) in...
© 2003 Dr. James Won Min ChonIn the last decade, atomic force microscopy (AFM) has emerged as a fund...
The use of a piezoelectric element (acoustic excitation) to vibrate the base of microcantilevers is ...
<p>This research presents new calibration techniques for the characterization of atomic force micro...
The effect of tip mass on the frequency response and sensitivity of atomic force microscope (AFM) ca...
The very small vibration of a solidly-mounted resonator (SMR) in fluid may trigger a relatively larg...
The functionality of atomic force microscopy (AFM) and nanomechanical sensing can be enhanced using ...
We determine conservative and dissipative tip–sample interaction forces from the amplitude and phase...
We constructed an atomic force acoustic microscope that enables one to detect out-of-plane and in-pl...
In this paper, we first explain how to extract accurately the driving force acting on the acoustic d...
In this letter the authors present an analytical description that enables determining the motion of ...
AbstractThe frequency response behavior of Atomic Force Microscopy (AFM) cantilevers in liquids is c...
AbstractOperating an Atomic Force Microscopy (AFM) with the cantilever and sample immersed in a liqu...
Measuring quantitative tip–sample interaction forces in dynamic atomic force microscopy in fluids is...
The cantilever-sample system of an atomic force acoustic microscope is excited in the frequency rang...
For imaging and manipulation of biological specimens application of atomic force microscopy (AFM) in...
© 2003 Dr. James Won Min ChonIn the last decade, atomic force microscopy (AFM) has emerged as a fund...
The use of a piezoelectric element (acoustic excitation) to vibrate the base of microcantilevers is ...
<p>This research presents new calibration techniques for the characterization of atomic force micro...
The effect of tip mass on the frequency response and sensitivity of atomic force microscope (AFM) ca...
The very small vibration of a solidly-mounted resonator (SMR) in fluid may trigger a relatively larg...
The functionality of atomic force microscopy (AFM) and nanomechanical sensing can be enhanced using ...
We determine conservative and dissipative tip–sample interaction forces from the amplitude and phase...
We constructed an atomic force acoustic microscope that enables one to detect out-of-plane and in-pl...