Ultrasonic AFM may improve fabrication technologies on the nanometer scale. In the presence of ultrasonic vibration, hard surfaces can be indented and scratched with the tip of a soft cantilever, due to its inertia. Ultrasound reduces or even eliminates friction, and hence modifies the tip-nanoparticle-surface interactions in AFM manipulation. The subsurface sensitivity of the technique makes feasible the purposed manipulation of subsurface nanoscale features by ultrasonic actuation
Ultrasonic vibration can be nonlinearly detected by means of an atomic force microscopy cantilever w...
We present a micromachined scanning probe cantilever, in which a specific higher order flexural mode...
A scanning probe microscope methodology, called resonant difference-frequency atomic force ultrasoni...
Recent advances in mechanical diode-based ultrasonic force microscopy techniques are reviewed. The p...
The increasing production of nano-devices and nano-composite materials has prompted the development ...
AbstractThis paper explores AFM-based 3D nanomachining process assisted by ultrasonic vibration. 3D ...
The ultrasonic vibration (UV)-assisted method, as an innovative nanomachining process, has competiti...
We present a novel method for nanometer resolution subsurface imaging. When a sample of atomic force...
Use of high frequency (HF) vibrations at MHz frequencies in Atomic Force Microscopy (AFM) advanced n...
AbstractThis paper introduces a high precision 3D nanofabrication approach using ultrasonic vibratio...
Imaging of nanoscale structures buried in a covering material is an extremely challenging task, but ...
Subsurface damage that is caused by mechanical machining is a major impediment to the widespread use...
The recent global shortage of microchips highlighted the exponential increase in demand in the past ...
Nondestructive subsurface nanoimaging of buried nanostructures is considered to be extremely challen...
This chapter describes an approach that depends on the nonlinear nature of the interaction between t...
Ultrasonic vibration can be nonlinearly detected by means of an atomic force microscopy cantilever w...
We present a micromachined scanning probe cantilever, in which a specific higher order flexural mode...
A scanning probe microscope methodology, called resonant difference-frequency atomic force ultrasoni...
Recent advances in mechanical diode-based ultrasonic force microscopy techniques are reviewed. The p...
The increasing production of nano-devices and nano-composite materials has prompted the development ...
AbstractThis paper explores AFM-based 3D nanomachining process assisted by ultrasonic vibration. 3D ...
The ultrasonic vibration (UV)-assisted method, as an innovative nanomachining process, has competiti...
We present a novel method for nanometer resolution subsurface imaging. When a sample of atomic force...
Use of high frequency (HF) vibrations at MHz frequencies in Atomic Force Microscopy (AFM) advanced n...
AbstractThis paper introduces a high precision 3D nanofabrication approach using ultrasonic vibratio...
Imaging of nanoscale structures buried in a covering material is an extremely challenging task, but ...
Subsurface damage that is caused by mechanical machining is a major impediment to the widespread use...
The recent global shortage of microchips highlighted the exponential increase in demand in the past ...
Nondestructive subsurface nanoimaging of buried nanostructures is considered to be extremely challen...
This chapter describes an approach that depends on the nonlinear nature of the interaction between t...
Ultrasonic vibration can be nonlinearly detected by means of an atomic force microscopy cantilever w...
We present a micromachined scanning probe cantilever, in which a specific higher order flexural mode...
A scanning probe microscope methodology, called resonant difference-frequency atomic force ultrasoni...