The structure of nanometer-sized strained Ce islands epitaxially grown on a Si substrate was studied using ultrasonic force microscopy (UFM), which combines the sensitivity to elastic structure of acoustic microscopy with the nanoscale spatial resolution of atomic force microscopy. UFM not only images the local surface elasticity variations between the Ge dots and the substrate with a spatial resolution of about 5 nm, but is also capable of detecting the strain variation across the dot, via the modification of the local stiffness
The science and technology of thin films require the development of nondestructive methods for their...
We present a novel method for nanometer resolution subsurface imaging. When a sample of atomic force...
Ultrasonic farce microscopy (UFM) was introduced to probe nanoscale mechanical properties of stiff m...
Ultrasonic force microscopy (UFM) is an atomic force microscopy (AFM)-related technique originally i...
The increasing production of nano-devices and nano-composite materials has prompted the development ...
Advanced Scanning Probe Microscopy techniques combine Atomic Force Microscopy (AFM) with ultrasound....
Advanced Scanning Probe Microscopy techniques combine Atomic Force Microscopy (AFM) with ultrasound....
Ultrasonic Force Microscopy (UFM) has been applied to detect the mechanical compliance of semiconduc...
Imaging of nanoscale structures buried in a covering material is an extremely challenging task, but ...
International audienceAtomic force microscopy AFM and micro-x-ray diffraction are combined to invest...
This chapter describes an approach that depends on the nonlinear nature of the interaction between t...
We present measurements using ultrasonic force microscopy at similar to 60 MHz, operating in a "wave...
Scanning probe microscopy (SPM) represents a powerful tool that, in the past 30 years, has allowed f...
Nondestructive subsurface nanoimaging of buried nanostructures is considered to be extremely challen...
We present experimental results that extend the frequency range of ultrasonic force microscopy (UFM)...
The science and technology of thin films require the development of nondestructive methods for their...
We present a novel method for nanometer resolution subsurface imaging. When a sample of atomic force...
Ultrasonic farce microscopy (UFM) was introduced to probe nanoscale mechanical properties of stiff m...
Ultrasonic force microscopy (UFM) is an atomic force microscopy (AFM)-related technique originally i...
The increasing production of nano-devices and nano-composite materials has prompted the development ...
Advanced Scanning Probe Microscopy techniques combine Atomic Force Microscopy (AFM) with ultrasound....
Advanced Scanning Probe Microscopy techniques combine Atomic Force Microscopy (AFM) with ultrasound....
Ultrasonic Force Microscopy (UFM) has been applied to detect the mechanical compliance of semiconduc...
Imaging of nanoscale structures buried in a covering material is an extremely challenging task, but ...
International audienceAtomic force microscopy AFM and micro-x-ray diffraction are combined to invest...
This chapter describes an approach that depends on the nonlinear nature of the interaction between t...
We present measurements using ultrasonic force microscopy at similar to 60 MHz, operating in a "wave...
Scanning probe microscopy (SPM) represents a powerful tool that, in the past 30 years, has allowed f...
Nondestructive subsurface nanoimaging of buried nanostructures is considered to be extremely challen...
We present experimental results that extend the frequency range of ultrasonic force microscopy (UFM)...
The science and technology of thin films require the development of nondestructive methods for their...
We present a novel method for nanometer resolution subsurface imaging. When a sample of atomic force...
Ultrasonic farce microscopy (UFM) was introduced to probe nanoscale mechanical properties of stiff m...