Wireless sensor industry is driven by challenging paradigm of the Internet of things (IoT) devices and the 5th generation of wireless communications (5G). However, the near field devices have a lot of potential due to their low-power consumption, with the downside of covering a typically shorter range. This paper addresses the challenge of increasing the range by utilizing a modulated scattering technique (MST)-based wireless sensor integrated with a micro-switch realized in microelectromechanical systems (MEMS) technology for radio frequency (RF) applications. Our hybrid MST-RF-MEMS sensor prototype has been reviewed in real-time outdoor scenarios for environmental parameter sensing as well as for an indoor air quality monitoring system. The employed RF-MEMS switch is highly miniaturized and exhibits good performances and RF characteristics for frequencies up to 110 GHz. Numerically designed proposed MST-RF-MEMS prototype sensor has been fabricated and experimentally assessed. The achieved results are adequate and prove that the prototype RF-MEMS based sensor significantly increases the addressed communication range. The integration of the MST and RF-MEMS switch in the sensor system reveals its essential role for designing the next generation near field sensors in the millimetre and sub-millimetre frequency bands, where standard RF switches are unable to operate.

Modulated Scattering Technique (MST) Devices Hybridized with RF-MEMS Micro-switches for Next Generation IoT and 5G Smart Sensors / Donelli, Massimo; Manekiya, Mohammedhusen; Iannacci, Jacopo. - 904:(2023), pp. 407-413. (Intervento presentato al convegno MNDCS 2022 tenutosi a Virtual, Online nel 29 January 2022through 31 January 2022) [10.1007/978-981-19-2308-1_41].

Modulated Scattering Technique (MST) Devices Hybridized with RF-MEMS Micro-switches for Next Generation IoT and 5G Smart Sensors

Donelli, Massimo;Manekiya, Mohammedhusen;Iannacci, Jacopo
2023-01-01

Abstract

Wireless sensor industry is driven by challenging paradigm of the Internet of things (IoT) devices and the 5th generation of wireless communications (5G). However, the near field devices have a lot of potential due to their low-power consumption, with the downside of covering a typically shorter range. This paper addresses the challenge of increasing the range by utilizing a modulated scattering technique (MST)-based wireless sensor integrated with a micro-switch realized in microelectromechanical systems (MEMS) technology for radio frequency (RF) applications. Our hybrid MST-RF-MEMS sensor prototype has been reviewed in real-time outdoor scenarios for environmental parameter sensing as well as for an indoor air quality monitoring system. The employed RF-MEMS switch is highly miniaturized and exhibits good performances and RF characteristics for frequencies up to 110 GHz. Numerically designed proposed MST-RF-MEMS prototype sensor has been fabricated and experimentally assessed. The achieved results are adequate and prove that the prototype RF-MEMS based sensor significantly increases the addressed communication range. The integration of the MST and RF-MEMS switch in the sensor system reveals its essential role for designing the next generation near field sensors in the millimetre and sub-millimetre frequency bands, where standard RF switches are unable to operate.
2023
Lecture Notes in Electrical EngineeringVolume 904, Pages 407 - 4132023 2nd International Conference on Micro and Nanoelectronics Devices, Circuits and Systems, MNDCS 2022
India
Springer Science and Business Media Deutschland GmbH
9789811923074
Donelli, Massimo; Manekiya, Mohammedhusen; Iannacci, Jacopo
Modulated Scattering Technique (MST) Devices Hybridized with RF-MEMS Micro-switches for Next Generation IoT and 5G Smart Sensors / Donelli, Massimo; Manekiya, Mohammedhusen; Iannacci, Jacopo. - 904:(2023), pp. 407-413. (Intervento presentato al convegno MNDCS 2022 tenutosi a Virtual, Online nel 29 January 2022through 31 January 2022) [10.1007/978-981-19-2308-1_41].
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/11572/437245
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