Working principle description of the wireless passive EM transduction pressure sensor
The development of a new passive wireless pressure sensor, based on an electromagnetic transduction approach, is reported. The sensing element is a flexible high resistivity silicon membrane located above a coplanar quarter-wavelength resonator. The comprehensive coverage of the physical bases is be...
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Published in | European physical journal. Applied physics Vol. 56; no. 1; pp. 13702 - 13707 |
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Main Authors | , , , |
Format | Journal Article |
Language | English |
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Les Ulis
EDP Sciences
01.10.2011
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Abstract | The development of a new passive wireless pressure sensor, based on an electromagnetic transduction approach, is reported. The sensing element is a flexible high resistivity silicon membrane located above a coplanar quarter-wavelength resonator. The comprehensive coverage of the physical bases is beyond the scope of this paper. For the remote extraction of the applied pressure value, the passive pressure sensor is connected to a broadband horn antenna via a coaxial delay line. When interrogated by a frequency modulated continuous wave radar, the level of the backscattered signal changes versus the pressure applied to the proof body. Through this interrogation principle, the sensor provides load impedance that is reflected back to the radar reader: the measured dynamic is about 0.8 dBm/bar. This completely passive and wireless pressure telemetry micro-sensor has been designed, fabricated and characterized, thereby eliminating the need for contact, signal processing circuits, and power supplies needed by conventional active sensors. |
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AbstractList | The development of a new passive wireless pressure sensor, based on the Electromagnetic transduction, is reported. The sensing element is a flexible high resistivity silicon membrane located above a coplanar resonator. The comprehensive coverage of the physical bases is beyond the scope of this paper. For the remote extraction of the applied pressure value, the passive pressure sensor is connected to a broadband horn antenna via a coaxial delay line. When interrogated by a Frequency Modulated Continuous Wave Radar, the level of the backscattered signal changes in response to applied pressure. The measured dynamic is about 0.8 dBm/Bar. This completely passive and wireless pressure telemetry micro-sensor has been designed, fabricated and characterized, thereby eliminating the need for contact, signal processing circuits, and power supplies to be contained within conventional sensors. The development of a new passive wireless pressure sensor, based on an electromagnetic transduction approach, is reported. The sensing element is a flexible high resistivity silicon membrane located above a coplanar quarter-wavelength resonator. The comprehensive coverage of the physical bases is beyond the scope of this paper. For the remote extraction of the applied pressure value, the passive pressure sensor is connected to a broadband horn antenna via a coaxial delay line. When interrogated by a frequency modulated continuous wave radar, the level of the backscattered signal changes versus the pressure applied to the proof body. Through this interrogation principle, the sensor provides load impedance that is reflected back to the radar reader: the measured dynamic is about 0.8 dBm/bar. This completely passive and wireless pressure telemetry micro-sensor has been designed, fabricated and characterized, thereby eliminating the need for contact, signal processing circuits, and power supplies needed by conventional active sensors. The development of a new passive wireless pressure sensor, based on an electromagnetic transduction approach, is reported. The sensing element is a flexible high resistivity silicon membrane located above a coplanar quarter-wavelength resonator. The comprehensive coverage of the physical bases is beyond the scope of this paper. For the remote extraction of the applied pressure value, the passive pressure sensor is connected to a broadband horn antenna via a coaxial delay line. When interrogated by a frequency modulated continuous wave radar, the level of the backscattered signal changes versus the pressure applied to the proof body. Through this interrogation principle, the sensor provides load impedance that is reflected back to the radar reader: the measured dynamic is about 0.8 dBm/bar. This completely passive and wireless pressure telemetry micro-sensor has been designed, fabricated and characterized, thereby eliminating the need for contact, signal processing circuits, and power supplies needed by conventional active sensors. [PUBLICATION ABSTRACT] |
Author | Chebila, F. Jatlaoui, M.M. Pons, P. Aubert, H. |
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Cites_doi | 10.1142/p355 10.1002/0470040882 10.1109/58.726455 10.1109/22.223744 10.1109/22.588594 10.1109/EUMC.2007.4405297 10.1109/MWSYM.2008.4633274 10.1109/22.899037 10.1109/JSEN.2002.803743 10.1109/SENSOR.2009.5285739 10.1109/58.827416 10.1016/S0924-4247(01)00626-4 |
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Snippet | The development of a new passive wireless pressure sensor, based on an electromagnetic transduction approach, is reported. The sensing element is a flexible... The development of a new passive wireless pressure sensor, based on the Electromagnetic transduction, is reported. The sensing element is a flexible high... |
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Title | Working principle description of the wireless passive EM transduction pressure sensor |
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