We show that electromechanical feedback in MEMS sensors can be used to eliminate the noise of the readout electronics near the pull-in point, at which the force-to-displacement gain of the system becomes infinite. Displacement bias through electrical feedback instead of voltage bias allows stable operation up to and above the pull-in point. Experimentally, the electronics contribution to system resolution was suppressed by an order of magnitude, reaching the intrinsic resolution of the MEMS microphone. The technique allows the use of standard integrated electronics with noise-critical MEMS sensors, such as microphones, pressure sensors and accelerometers
Abstract—The sensitivity of an electrothermal displacement sensor is heavily dependent on its noise ...
A low-noise, low-perturbing electrostatic position measurement system for capacitive MEMS sensors is...
We present four new findings pertaining to MEMS sensors for acoustic emission detection. Our sensors...
We show that electromechanical feedback in MEMS sensors can be used to eliminate the noise of the re...
At the pull-in point, a capacitive MEMS sensor becomes infinitely sensitive to applied force as the ...
AbstractAt the pull-in point, a capacitive MEMS sensor becomes infinitely sensitive to applied force...
A novel principle of low-noise voltage measurement based on microelectromechanical systems (MEMS) is...
This design mainly proposes a readout scheme for MEMS microphone with positive feedback to decrease ...
In this study, we examine the feasibility of designing a MEMS microphone employing a levitation base...
The increased electrostatic stability of MEMS sensors enables new application areas for the sensors,...
Condenser MEMS microphones are becoming a promising technology to substitute the current standard mi...
Resonant MEMS accelerometers offer the potential for very high resolution and wide bandwidth measure...
Abstract- This paper deals with the design of MEMS using piezoresistivity as transduction principle....
Microelectromechanical System (MEMS) condenser microphones are widely used because of their low cost...
The principle of force feedback is to design a sensor as a feedback system where the action of the m...
Abstract—The sensitivity of an electrothermal displacement sensor is heavily dependent on its noise ...
A low-noise, low-perturbing electrostatic position measurement system for capacitive MEMS sensors is...
We present four new findings pertaining to MEMS sensors for acoustic emission detection. Our sensors...
We show that electromechanical feedback in MEMS sensors can be used to eliminate the noise of the re...
At the pull-in point, a capacitive MEMS sensor becomes infinitely sensitive to applied force as the ...
AbstractAt the pull-in point, a capacitive MEMS sensor becomes infinitely sensitive to applied force...
A novel principle of low-noise voltage measurement based on microelectromechanical systems (MEMS) is...
This design mainly proposes a readout scheme for MEMS microphone with positive feedback to decrease ...
In this study, we examine the feasibility of designing a MEMS microphone employing a levitation base...
The increased electrostatic stability of MEMS sensors enables new application areas for the sensors,...
Condenser MEMS microphones are becoming a promising technology to substitute the current standard mi...
Resonant MEMS accelerometers offer the potential for very high resolution and wide bandwidth measure...
Abstract- This paper deals with the design of MEMS using piezoresistivity as transduction principle....
Microelectromechanical System (MEMS) condenser microphones are widely used because of their low cost...
The principle of force feedback is to design a sensor as a feedback system where the action of the m...
Abstract—The sensitivity of an electrothermal displacement sensor is heavily dependent on its noise ...
A low-noise, low-perturbing electrostatic position measurement system for capacitive MEMS sensors is...
We present four new findings pertaining to MEMS sensors for acoustic emission detection. Our sensors...