Detection Schemes for Two-Mode Squeezed Fiber Optic Sagnac Interferometry

The fiber optic Sagnac interferometer can measure the rotation rate of a system with a high sensitivity. However, they require a large sensor area, which leads to a huge footprint and size compared with their micro-electromechanical systems (MEMS) counterpart. Consequently, the performance decreases...

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Veröffentlicht in:IEEE sensors letters 2023-12, Vol.7 (12), p.1-4
Hauptverfasser: Tritschler, Patrick, Ohms, Torsten, Degenfeld-Schonburg, Peter, Zschocke, Fabian, Zimmermann, Andre
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container_issue 12
container_start_page 1
container_title IEEE sensors letters
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creator Tritschler, Patrick
Ohms, Torsten
Degenfeld-Schonburg, Peter
Zschocke, Fabian
Zimmermann, Andre
description The fiber optic Sagnac interferometer can measure the rotation rate of a system with a high sensitivity. However, they require a large sensor area, which leads to a huge footprint and size compared with their micro-electromechanical systems (MEMS) counterpart. Consequently, the performance decreases when using chip-integrated Sagnac interferometers with small sensor areas. In this letter, we address this issue and present a method to improve the sensitivity at a small scale. Therefore, we utilize two-mode squeezed light that can be generated in a ring resonator via four-wave mixing, which can have a very low noise. We show that the combination of classical coherent light and squeezed light can improve the sensor performance compared with a classical fiber optic Sagnac interferometer. For this purpose, we discuss two different configurations that are suited for various applications. The first one makes use of the low noise of squeezed light and is suited for small- and low-loss systems using intensity difference measurements, while the second one measures the variance of squeezed light via product detection and is suited for larger and lossy systems.
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However, they require a large sensor area, which leads to a huge footprint and size compared with their micro-electromechanical systems (MEMS) counterpart. Consequently, the performance decreases when using chip-integrated Sagnac interferometers with small sensor areas. In this letter, we address this issue and present a method to improve the sensitivity at a small scale. Therefore, we utilize two-mode squeezed light that can be generated in a ring resonator via four-wave mixing, which can have a very low noise. We show that the combination of classical coherent light and squeezed light can improve the sensor performance compared with a classical fiber optic Sagnac interferometer. For this purpose, we discuss two different configurations that are suited for various applications. 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subjects Coherent light
Fiber optics
Four-wave mixing
Gyroscopes
Interferometers
Loss measurement
Low noise
Luminous intensity
Mach–Zehnder interferometer
Microelectromechanical systems
Optical interferometry
Optical pumping
Optical ring resonators
Optical squeezing
quantum-metrology
Sagnac interferometer
Sagnac interferometers
Sensitivity
Sensor integration
Sensors
squeezed light
title Detection Schemes for Two-Mode Squeezed Fiber Optic Sagnac Interferometry
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