International audienceThis paper deals with the design of MEMS-based sensors with piezoresistive transduction. It is demonstrated that when the sensor topology does not allow a perfect matching of resistances in the conditioning circuit (typically a Wheatstone bridge), the resolution of the system is limited by the ability to reject power supply noise. As this ability increases when the output offset of the bridge decreases, the proposed architecture implements a feedback loop to control MOS transistors inserted in the Wheatstone bridge to compensate resistor mismatches. This zero-offset bridge exhibits a very good offset cancellation and therefore a better resolution
A compact and efficient IC architecture is presented as an alternative to laser-trimmed precision th...
AbstractThe sensitivity characteristics of two novel fully-analog uncalibrated read-out circuits, ba...
This paper addresses a new position transducer for nanopositioners fabricated through a standard mic...
Abstract- This paper deals with the design of MEMS using piezoresistivity as transduction principle....
This paper deals with the design of MEMS using piezoresistivity as transduction principle. It is dem...
International audienceIn this paper, the use of piezoresistive CMOS beams is addressed with a partic...
Abstract: In this paper, the use of piezoresistive CMOS beams is addressed with a particular focus o...
This paper presents a new method for read out of the piezoresistive accelerometer sensors. The circu...
International audienceThis paper presents an innovative conditioning and read-out interface for resi...
Abstract—Feedback control of MEMS devices has the potential to significantly improve device performa...
This paper presents a direct digital converter for Wheatstone bridge sensors, which is realized with...
Piezoresistive sensors convert a physical value into a resistance variation. Often four resistive el...
In this paper, the fabrication of monolithic Wheatstone bridge circuit on piezoresistive microcanti...
Abstract: The output of a Wheatstone bridge with only a single active resistive sensor is inherently...
The article translated from Russian to English on pp. 691-693 (please, look down). The paper summari...
A compact and efficient IC architecture is presented as an alternative to laser-trimmed precision th...
AbstractThe sensitivity characteristics of two novel fully-analog uncalibrated read-out circuits, ba...
This paper addresses a new position transducer for nanopositioners fabricated through a standard mic...
Abstract- This paper deals with the design of MEMS using piezoresistivity as transduction principle....
This paper deals with the design of MEMS using piezoresistivity as transduction principle. It is dem...
International audienceIn this paper, the use of piezoresistive CMOS beams is addressed with a partic...
Abstract: In this paper, the use of piezoresistive CMOS beams is addressed with a particular focus o...
This paper presents a new method for read out of the piezoresistive accelerometer sensors. The circu...
International audienceThis paper presents an innovative conditioning and read-out interface for resi...
Abstract—Feedback control of MEMS devices has the potential to significantly improve device performa...
This paper presents a direct digital converter for Wheatstone bridge sensors, which is realized with...
Piezoresistive sensors convert a physical value into a resistance variation. Often four resistive el...
In this paper, the fabrication of monolithic Wheatstone bridge circuit on piezoresistive microcanti...
Abstract: The output of a Wheatstone bridge with only a single active resistive sensor is inherently...
The article translated from Russian to English on pp. 691-693 (please, look down). The paper summari...
A compact and efficient IC architecture is presented as an alternative to laser-trimmed precision th...
AbstractThe sensitivity characteristics of two novel fully-analog uncalibrated read-out circuits, ba...
This paper addresses a new position transducer for nanopositioners fabricated through a standard mic...