Telemetric angle and position sensing using millimeter-wave metamaterial and a FMCW chip

Alexander Schossmann; Michael Töfferl; Christoph Schmidt; Christof Michenthaler; Dirk Hammerschmidt; Alexander Bergmann

doi:10.5162/SMSI2023/A4.4

Telemetric angle and position sensing using millimeter-wave metamaterial and a FMCW chip

Alexander Schossmann, Michael Töfferl, Christoph Schmidt, Christof Michenthaler, Dirk Hammerschmidt, Alexander Bergmann

Institute of Electrical Measurement and Sensor Systems (4530)

Research output: Contribution to conference › Paper › peer-review

Abstract

A fully telemetric sensor concept is presented for real-time angle and position measurement using millimeter-wave metamaterials that exhibit Fano resonant behavior. The idea is to determine the angle of rotation from the reflection signals of a millimeter-wave transceiver chip. A metamaterial geometry exhibiting Fano resonance behavior has been designed and implemented on low-cost FR4 laminates. In addition, we show numerical and experimental analysis of the sensing effect and present the implementation with a frequency-modulated continuous wave (FMCW) chip.

Original language	English
Pages	59-60
DOIs	https://doi.org/10.5162/SMSI2023/A4.4
Publication status	Published - 2023
Event	Sensor and Measurement Science International 2023: SMSI 2023 - NürnbergConvention Center NCC West Messezentrum 1, Nürnberg, Germany Duration: 8 May 2023 → 11 May 2023 https://www.smsi-conference.com

Conference

Conference	Sensor and Measurement Science International 2023
Abbreviated title	SMSI 2023
Country/Territory	Germany
City	Nürnberg
Period	8/05/23 → 11/05/23
Internet address	https://www.smsi-conference.com

Access to Document

10.5162/SMSI2023/A4.4

Cite this

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title = "Telemetric angle and position sensing using millimeter-wave metamaterial and a FMCW chip",

abstract = "A fully telemetric sensor concept is presented for real-time angle and position measurement using millimeter-wave metamaterials that exhibit Fano resonant behavior. The idea is to determine the angle of rotation from the reflection signals of a millimeter-wave transceiver chip. A metamaterial geometry exhibiting Fano resonance behavior has been designed and implemented on low-cost FR4 laminates. In addition, we show numerical and experimental analysis of the sensing effect and present the implementation with a frequency-modulated continuous wave (FMCW) chip.",

author = "Alexander Schossmann and Michael T{\"o}fferl and Christoph Schmidt and Christof Michenthaler and Dirk Hammerschmidt and Alexander Bergmann",

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T1 - Telemetric angle and position sensing using millimeter-wave metamaterial and a FMCW chip

AU - Schossmann, Alexander

AU - Töfferl, Michael

AU - Schmidt, Christoph

AU - Michenthaler, Christof

AU - Hammerschmidt, Dirk

AU - Bergmann, Alexander

PY - 2023

Y1 - 2023

N2 - A fully telemetric sensor concept is presented for real-time angle and position measurement using millimeter-wave metamaterials that exhibit Fano resonant behavior. The idea is to determine the angle of rotation from the reflection signals of a millimeter-wave transceiver chip. A metamaterial geometry exhibiting Fano resonance behavior has been designed and implemented on low-cost FR4 laminates. In addition, we show numerical and experimental analysis of the sensing effect and present the implementation with a frequency-modulated continuous wave (FMCW) chip.

AB - A fully telemetric sensor concept is presented for real-time angle and position measurement using millimeter-wave metamaterials that exhibit Fano resonant behavior. The idea is to determine the angle of rotation from the reflection signals of a millimeter-wave transceiver chip. A metamaterial geometry exhibiting Fano resonance behavior has been designed and implemented on low-cost FR4 laminates. In addition, we show numerical and experimental analysis of the sensing effect and present the implementation with a frequency-modulated continuous wave (FMCW) chip.

U2 - 10.5162/SMSI2023/A4.4

DO - 10.5162/SMSI2023/A4.4

M3 - Paper

SP - 59

EP - 60

T2 - Sensor and Measurement Science International 2023

Y2 - 8 May 2023 through 11 May 2023

ER -