In this work the response of a commercial polysilicon MEMS accelerometer subject to shocks in the range 90–5500 g (g being the gravity acceleration) is studied. In situ measurements are compared with results of numerical simulations, obtained via a two-degrees-of-freedom model of sensor dynamics. It is shown that, despite several sources of nonlinearities, the numerical model can capture the main features of the MEMS transient response. The tested devices did not show malfunctioning, even when subject to acceleration peaks 100 times greater than those characterizing the working regime
Shock-induced failure of polysilicon MEMS is investigated by adopting a multi-scale approach. To und...
The effect of accidental drops on MEMS sensors are examined within the frame-work of a multi-scale f...
In this paper the effects of accidental impacts on polysilicon MEMS sensors are investigated withi...
In this work the response of a commercial polysilicon MEMS accelerometer subject to shocks in the r...
Shock tests are commonly executed on packaged MEMS to investigate and certify the reliability of the...
In this paper, the mechanical response of a commercial off-the-shelf, uni-axial polysilicon MEMS ac...
NASA Goddard Space Flight Center (GSFC) has evaluated the dynamic response of a commercial-off-the-s...
MEMS can be exposed to shock loadings, since they are often designed for portable devices. We recen...
In this work, the response of the z-axis differential capacitive MEMS accelerometer structure is stu...
The effects of mechanical shocks on polysilicon MEMS accelerometers are here investigated within th...
We present a multi-scale finite element approach to simulate the effects of shocks on polysilicon ME...
Shock-induced failure of polysilicon MEMS is investigated by adopting a multi-scale approach. To und...
The effect of accidental drops on MEMS sensors are examined within the frame-work of a multi-scale f...
In this paper the effects of accidental impacts on polysilicon MEMS sensors are investigated withi...
In this work the response of a commercial polysilicon MEMS accelerometer subject to shocks in the r...
Shock tests are commonly executed on packaged MEMS to investigate and certify the reliability of the...
In this paper, the mechanical response of a commercial off-the-shelf, uni-axial polysilicon MEMS ac...
NASA Goddard Space Flight Center (GSFC) has evaluated the dynamic response of a commercial-off-the-s...
MEMS can be exposed to shock loadings, since they are often designed for portable devices. We recen...
In this work, the response of the z-axis differential capacitive MEMS accelerometer structure is stu...
The effects of mechanical shocks on polysilicon MEMS accelerometers are here investigated within th...
We present a multi-scale finite element approach to simulate the effects of shocks on polysilicon ME...
Shock-induced failure of polysilicon MEMS is investigated by adopting a multi-scale approach. To und...
The effect of accidental drops on MEMS sensors are examined within the frame-work of a multi-scale f...
In this paper the effects of accidental impacts on polysilicon MEMS sensors are investigated withi...