We have designed, fabricated, tested and modeled a first generation small area test structure for MEMS fracture studies by electrostatic rather than mechanical probing. Because of its small area, this device has potential applications as a lot monitor of strength or fatigue of the MEMS structural material. By matching deflection versus applied voltage data to a 3-D model of the test structure, we develop high confidence that the local stresses achieved in the gage section are greater than 1 GPa. Brittle failure of the polycrystalline silicon was observed
With the advent of microtechnology over the last few decades, designs for new and innovative microsc...
Microelectromechanical systems (MEMS) technologies are developing rapidly with increasing study of t...
Three different MEMS for on-chip testing are here discussed, which load up to rupture under bending ...
Fatigue test results on 15 μm thick polysilicon specimens are presented and compared in this work, b...
Designing reliable MEMS structures presents numerous challenges. Polycrystalline silicon fractures i...
Fatigue test results on 15 lm thick polysilicon specimens are presented and discussed, both quantita...
To characterize the effective fracture energy GIC of polysilicon wafers at room temperature, an on-c...
In this paper, theoretical fracture mechanics concepts as well as strength and fatigue testing metho...
Mission critical applications of MEMS devices require knowledge of the distribution in their materia...
AbstractAiming at development of evaluation scheme for strength design and reliability of MEMS struc...
In order to characterize the fatigue behaviour and determine the fracture energy of polysilicon used...
Recent enhancements of a versatile on-chip MEMS-based method dedicated to the deformation and fractu...
Micro-Electro-Mechanical Systems (MEMS) stand for the integration of mechanical elements, sensors, a...
This paper proposes a new strategy for detecting material strength loss under mechanical fatigue on ...
An in-plane load measuring technique is developed to perform the strength test of the micro-cantilev...
With the advent of microtechnology over the last few decades, designs for new and innovative microsc...
Microelectromechanical systems (MEMS) technologies are developing rapidly with increasing study of t...
Three different MEMS for on-chip testing are here discussed, which load up to rupture under bending ...
Fatigue test results on 15 μm thick polysilicon specimens are presented and compared in this work, b...
Designing reliable MEMS structures presents numerous challenges. Polycrystalline silicon fractures i...
Fatigue test results on 15 lm thick polysilicon specimens are presented and discussed, both quantita...
To characterize the effective fracture energy GIC of polysilicon wafers at room temperature, an on-c...
In this paper, theoretical fracture mechanics concepts as well as strength and fatigue testing metho...
Mission critical applications of MEMS devices require knowledge of the distribution in their materia...
AbstractAiming at development of evaluation scheme for strength design and reliability of MEMS struc...
In order to characterize the fatigue behaviour and determine the fracture energy of polysilicon used...
Recent enhancements of a versatile on-chip MEMS-based method dedicated to the deformation and fractu...
Micro-Electro-Mechanical Systems (MEMS) stand for the integration of mechanical elements, sensors, a...
This paper proposes a new strategy for detecting material strength loss under mechanical fatigue on ...
An in-plane load measuring technique is developed to perform the strength test of the micro-cantilev...
With the advent of microtechnology over the last few decades, designs for new and innovative microsc...
Microelectromechanical systems (MEMS) technologies are developing rapidly with increasing study of t...
Three different MEMS for on-chip testing are here discussed, which load up to rupture under bending ...