Resonant Filters Based on Ring Resonator With Multiple π-Phase-Shifted Fiber Bragg Grating

Ghosh, Biswajit; Mandal, Sanjoy

doi:10.1109/jsen.2021.3058253

Cited by 4 publications

(1 citation statement)

References 21 publications

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“…Furthermore, being a fiber based resonator it enjoys all the advantages of fiber devices, namely, small size, light weight, flexibility, high sensitivity, robust design, and most importantly, guided mode sensing and the capability of remote and multiplexed interrogation. In addition, the single-mode allfiber ring resonators are used in making passive fiber gyroscopes [3,4], frequency-selective devices [5], an all-fiber resonator interferometer [6,7], lasers [8][9][10], optical filtering [11,12], optical time delay [13]. These loop resonators are demonstrated for the measurement of internal stress, pressure [14,15], temperature [16,17], humidity [18] and other associated parameters.…”

Section: Introductionmentioning

confidence: 99%

Design, experimental demonstration and modeling fiber ring resonator device with fiber cantilever-deflection probe for sensing surrounding electric field

Sharma¹,

Chaudhuri²

2022

AJP

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Dedicated to Professor Bishnu P Pal for his enormous contributions to the advancement of research and education in science and technology through his unique vision and outstanding dedicationIn this report, we describe design, experimental realization and demonstration of a direct coupled fiber ring resonator having a fiber cantilever-deflection transducer in the ring loop for sensing the electric field in the vicinity. The transducer probe is the free end of the fiber forming the loop whose tip is coated with cobalt-modified bismuth ferrite nanoparticles forming a deflecting fiber cantilever. We performed a series of experiments to investigate the observed resultant variation of resonance patterns in the environment of varying electric field. We successfully demonstrate a sensitivity of 0.05 kV/cm in the dynamic range of 0 -0.75 kV/cm. We provide a theoretical platform to model the working principle of the cantilever-based fiber resonator. The transmission characteristics of our model precisely mimic the experimental transmission signature, thereby establishing the efficacy of the model that defines the operating principle of the device.

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