A new technique was developed for studying the mechanical behavior of nano-scale thin metal films on substrate is presented. The test structure was designed on a novel “paddle” cantilever beam specimens with dimensions as few hundred nanometers to less than 10 nanometers. This beam is in triangle shape in order to provide uniform plane strain distribution. Standard clean room processing was used to prepare the paddle sample. The experiment can be operated by using the electrostatic deflection on the paddle uniform distributed stress cantilever beam and then measure the deposited thin metal film materials on top of it. A capacitance technique was used to measurement on the other side of the deflected plate to measure its deflection with resp...
[[abstract]]It is convenient to characterize thin film material properties using commercially availa...
A promising method has been developed to determine micromechanical properties of thin film materials...
The present work summarizes the novel experimental methods recently developed to characterize the me...
A new technique was developed for studying the mechanical behavior of thin films on substrate applic...
In this paper a technique developed for studying the anelastic behavior of nano-...
In this paper a technique developed for studying the anelastic behavior of nano-...
The authors describe their design for a paddle-like cantilever beam sample to relieve non-uniform st...
The measurement of the mechanical properties of submicron sized specimens is extremely challenging d...
The measurement of the mechanical properties of submicron sized specimens is extremely challenging d...
International audienceThe measurement of the mechanical properties of materials with submicrometer d...
The measurement of the mechanical properties of materials with submicrometer dimensions is extremely...
The mechanical properties measurement of materials with submicron dimensions is extremely challengin...
We have been engaged in research on the mechanical properties of materials with nanometer-scale micr...
Thesis (S.M.)--Massachusetts Institute of Technology, Dept. of Materials Science and Engineering, 19...
A novel, versatile concept of micromachines has been developed to measure the mechanical response of...
[[abstract]]It is convenient to characterize thin film material properties using commercially availa...
A promising method has been developed to determine micromechanical properties of thin film materials...
The present work summarizes the novel experimental methods recently developed to characterize the me...
A new technique was developed for studying the mechanical behavior of thin films on substrate applic...
In this paper a technique developed for studying the anelastic behavior of nano-...
In this paper a technique developed for studying the anelastic behavior of nano-...
The authors describe their design for a paddle-like cantilever beam sample to relieve non-uniform st...
The measurement of the mechanical properties of submicron sized specimens is extremely challenging d...
The measurement of the mechanical properties of submicron sized specimens is extremely challenging d...
International audienceThe measurement of the mechanical properties of materials with submicrometer d...
The measurement of the mechanical properties of materials with submicrometer dimensions is extremely...
The mechanical properties measurement of materials with submicron dimensions is extremely challengin...
We have been engaged in research on the mechanical properties of materials with nanometer-scale micr...
Thesis (S.M.)--Massachusetts Institute of Technology, Dept. of Materials Science and Engineering, 19...
A novel, versatile concept of micromachines has been developed to measure the mechanical response of...
[[abstract]]It is convenient to characterize thin film material properties using commercially availa...
A promising method has been developed to determine micromechanical properties of thin film materials...
The present work summarizes the novel experimental methods recently developed to characterize the me...