Journal of Microelectromechanical Systems · 2002 · 335 citations · 14 references
EngineeringElectrical EngineeringMechanical EngineeringInstrumentationMicroelectromechanical SystemsSensorsMems CharacterizationMems DesignMems SensorsMems TestingMicroelectromechanical SensorsMicromachiningAcceleration SensorsAccelerometer CharacterizationAccelerometer SensorsAccelerometersAccelerometryMicroelectromechanical OscillatorsNoise FloorResonant Sensors
This paper describes the operation of a vacuum packaged resonant accelerometer subjected to static and dynamic acceleration testing. The device response is in broad agreement with a new analytical model of its behavior under an applied time-varying acceleration. Measurements include tests of the scale factor of the sensor and the dependence of the output sideband power and the noise floor of the double-ended tuning fork oscillators as a function of the applied acceleration frequency. The resolution of resonant accelerometers is shown to degrade 20 dB/decade beyond a certain characteristic acceleration corner frequency. A prototype device was fabricated at Sandia National Laboratories and exhibits a noise floor of 40 /spl mu/g//spl radic/(Hz) for an input acceleration frequency of 300 Hz.
14
Micromachined inertial sensors
N. Yazdi, Farrokh Ayazi, K. Najafi · Proceedings of the IEEE · 1998 · 1.8K citations
Engineering, Electrical Engineering, Mechanical Engineering +17
<i>Shock and Vibration Handbook</i>
Cyril M. Harris, Charles E. Crede, Horace M. Trent · Physics Today · 1962 · 1K citations
Engineering, Aerospace Engineering, Mechanical Engineering +17