Simulation of random fiber Bragg grating array in polarization-maintaining fiber based on photonic localization effect

Abstract

Mid-infrared wavelength switchable and dual-wavelength random laser output has many potential applications. A polarization-maintaining random fiber Bragg grating (PMRFBG) array based on the photonic localization effect of longitudinal invariant transverse disorder in fiber structure is proposed, which can be used as random feedback of dual-wavelength and wavelength switchable output of random fiber laser (RFL). The random fiber Bragg grating (RFBG) array was designed on the panda-type polarization-maintaining fiber (PMF), and the two center wavelengths were 2 151.60 nm and 2 152.22 nm, respectively. The RFBG array was designed on the bow tie-type PMF, and the two center wavelengths were obtained, which were 2 153.08 nm and 2 153.96 nm, respectively. The RFBG array with a center wavelength of 2 139.27 nm was designed on single-mode fiber (SMF). The length of individual fiber Bragg grating (FBG) and PMRFBG, the refractive index modulation depth, the number of cascaded gratings, and the distance between gratings have different effects on the full width at half maximum (FWHM) and reflectance of the RFBG and PMRFBG array, but not on the central wavelength, as obtained by simulation using the transmission matrix method. The designed PMRFBG array provides theoretical support for the design of the feedback mechanism of RFL.

References

[[1]] Qiu Z C, Sun R, Teng Y T, et al.. Design and test of a low frequency fiber Bragg grating acceleration sensor with double tilted cantilevers[J]. Optics communications, 2022, 507: 127663,

[[2]] Wang Q Y, Tong X L, Zhang C, et al.. Optical fiber FBG linear sensing systems for the on-line monitoring of airborne high temperature air duct leakage[J]. Chinese physics B, 2022, 31(8): 084204,

[[3]] Sai Y Z, Jiang M S, Sui Q, et al.. FBG sensor array-based-low speed impact localization system on composite plate[J]. Journal of modern optics, 2016, 63(5): 462-467,

[[4]] Li R F, Hu Z J, Li H T, et al.. All-fiber laser-self-mixing interferometer with adjustable injection intensity for remote sensing of 40 km[J]. Journal of lightwave technology, 2022, 40(14): 4863-4870,

[[5]] Ip E, Fang J, Li Y W, et al.. Distributed fiber sensor network using telecom cables as sensing media: technology advancements and applications[J]. Journal of optical communications and networking, 2022, 14(1): A61-A68,

[[6]] Yu X K, Song N F, Song J M. A novel method for simultaneous measurement of temperature and strain based on EFPI/FBG[J]. Optics communications, 2020, 459: 125020,

[[7]] Sahota J K, Gupta N, Dhawan D. Fiber Bragg grating sensors for monitoring of physical parameters: a comprehensive review[J]. Optical engineering, 2020, 59(6): 060901-060901,

[[8]] Zhang L, Lu P, Zhou Z, et al.. High-efficiency random fiber laser based on strong random fiber grating for MHz ultrasonic sensing[J]. IEEE sensors journal, 2020, 20(11): 5885-5892,

[[9]] Azmi A N, Wan Ismail W Z, Abu Hassan H, et al.. Review of open cavity random lasers as laser-based sensors[J]. ACS sensors, 2022, 7(4): 914-928,

[[10]] Ahmad H, Ooi S I, Tiu Z C. 100 GHz free spectral range-tunable multi-wavelength fiber laser using single–multi–single mode fiber interferometer[J]. Applied physics B, 2019, 125: 1-11,

[[11]] Deng J C, Han M M, Xu Z E, et al.. Stable and low-threshold random fiber laser via Anderson localization[J]. Optics express, 2019, 27(9): 12987-12997,

[[12]] Wang L L, Dong X Y, Shum P P, et al.. Random laser with multiphase-shifted Bragg grating in Er/Yb-codoped fiber[J]. Journal of lightwave technology, 2014, 33(1): 95-99,

[[13]] Lizárraga N, Puente N P, Chaikina E I, et al.. Single-mode Er-doped fiber random laser with distributed Bragg grating feedback[J]. Optics express, 2009, 17(2): 395-404,

[[14]] Zhang L, Xu Y, Lu P, et al.. Multi-wavelength Brillouin random fiber laser via distributed feedback from a random fiber grating[J]. Journal of lightwave technology, 2018, 36(11): 2122-2128,

[[15]] Popov S M, Butov O V, Bazakutsa A P, et al.. Random lasing in a short Er-doped artificial Rayleigh fiber[J]. Results in physics, 2020, 16: 102868,

[[16]] Ji Q, Zong S, Yang J. Application and development trend of laser technology in military field[C]//ICOSM 2020: Optoelectronic Science and Materials, December 8, 2020, Hefei, China. Washington: SPIE, 2020, 11606: 32-40

[[17]] Shivakoti I, Kibria G, Cep R, et al.. Laser surface texturing for biomedical applications: a review[J]. Coatings, 2021, 11(2): 124,

[[18]] Abaie B, Mobini E, Karbasi S, et al.. Random lasing in an Anderson localizing optical fiber[J]. Light: science & applications, 2017, 6(8): e17041-e17041,

[[19]] He W, Zhao J Q, Dong M L, et al.. Wavelength-switchable erbium-doped fiber laser incorporating fiber Bragg grating array fabricated by infrared femtosecond laser inscription[J]. Optics & laser technology, 2020, 127: 106026,

[[20]] Lu L D, Xu Y J, Dong M L, et al.. Birefringent interferometer cascaded with PM-FBG for multi-parameter testing[J]. IEEE sensors journal, 2021, 22(1): 338-343,

[[21]] Izrailev F M, Krokhin A A, Makarov N M. Anomalous localization in low-dimensional systems with correlated disorder[J]. Physics reports, 2012, 512(3): 125-254,

[[22]] Ruffin P B. Stress and temperature effects on the performance of polarization-maintaining fibers[C]//Polarimetry: Radar, Infrared, Visible, Ultraviolet, and X-ray, October 1, 1990, Huntsville, AL, USA. Washington: SPIE, 1990, 1317: 324-332

[[23]] Lv B, Zhang W, Huang W, et al.. Switchable and compact dual-wavelength random fiber laser based on random Bragg grating array[J]. Optical fiber technology, 2022, 70: 102858,

[[24]] Chen C, Wang H Y, Lu P, et al.. Self-injection locking of a low-noise erbium-doped random fiber laser by a random fiber grating ring[J]. Optics letters, 2023, 48(9): 2389-2392,

[[25]] Hu J, Wang Y F, Xing Z K, et al.. Stable and ultra-narrow linewidth random fiber laser based on random fiber Bragg gratings[C]. CLEO: QELS_Fundamental Science, May 10–15, 2020, Washington DC, USA, 2020 Washington Optica Publishing Group JW2B.4