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Keywords
(10)
Atomic Force Microscope
Atomic Force Microscopy
Copper
Elastic Modulus
High Spatial Resolution
Mechanical Property
Near Field
Silica
Thin Film
Atomic Force Acoustic Microscopy
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Mapping of elastic modulus at sub-micrometer scale with acoustic contact resonance AFM
Mapping of elastic modulus at sub-micrometer scale with acoustic contact resonance AFM,10.1016/j.mee.2009.05.028,Microelectronic Engineering,F. Mège,F
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Mapping of elastic modulus at sub-micrometer scale with acoustic contact resonance AFM
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F. Mège
,
F. Volpi
,
M. Verdier
Atomic Force Acoustic Microscopy
(AFAM) is a powerful
near field
technique combining the
high spatial resolution
of
Atomic Force Microscope
(AFM) with ultrasonic stresses to access mechanical properties of material shallow surfaces (essentially local stiffness magnitudes like Young modulus). In this article, we discuss different experimental set-up and modelling approaches to determine quantitatively the Young modulus of thin films. Static experiments carried-out on dense and nanoporous
silica
have shown a good agreement with nanoindentation experiments. Stiffness mapping have also been performed on macroporous
silica
and
copper
interconnect structures, showing the ability of our set-up to sense different mechanical answers at sub-micrometer scale.
Journal:
Microelectronic Engineering - MICROELECTRON ENG
, vol. 87, no. 3, pp. 416-420, 2010
DOI:
10.1016/j.mee.2009.05.028
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