Temperature-compensated fibre optic magnetic field sensor based on a self-referenced anti-resonant reflecting optical waveguide

Lu, Dan; Cheng, Jun; Jiang, Yi; Qi, Zhi-mei

doi:10.1063/1.4979412

Cited by 33 publications

(11 citation statements)

References 20 publications

Supporting

Mentioning

Contrasting

Order By: Relevance

“…At the wavelength of 1550.38 nm, the resonance condition of the ARROW for the optofluidic waveguide is achieved [12]. On the other hand, at the wavelength of 1557.86 nm, the resonance condition of the ARROW for the NaCl-infiltrated channel is achieved [13]. Hence, there are two resonance dips corresponding to two materials, which can be expressed as Eqs.…”

Section: The Double Resonator Antiresonant Reflecting Optical Waveguimentioning

confidence: 99%

“…Hence, there are two resonance dips corresponding to two materials, which can be expressed as Eqs. (6) and (7) [12,13]:…”

Section: The Double Resonator Antiresonant Reflecting Optical Waveguimentioning

confidence: 99%

“…The response of the two resonance attenuation wavelength shifts corresponding to the two ARROWs to temperature fluctuation is the same. Therefore, a dual-optofluidic waveguide ARROW biosensor with temperature compensation is formed by interrogating and inquiring the wavelength interval between the two resonance dips of the dual-optofluidic flow waveguide ARROW [12,13].…”

Section: The Double Resonator Antiresonant Reflecting Optical Waveguimentioning

confidence: 99%

See 2 more Smart Citations

The Antiresonant Reflecting Optical Waveguide Fiber Sensor

Ye¹

2020

Electromagnetic Propagation and Waveguides in Photonics and Microwave Engineering [Working Title]

Self Cite

View full text Add to dashboard Cite

In this chapter, the optical fiber sensors based on antiresonant reflecting optical waveguide have been introduced, including the single layer, double layers, double resonators, and hybrid mechanism. Various optical fiber sensors based on antiresonant reflecting optical waveguide have been introduced in this chapter with different working principles, including the fiber optic vibration sensor, humidity sensor, strain sensor, temperature sensor, magnetic field sensor, biosensor, etc. Especially, many long-standing challenges in the fiber optic sensor can be solved through the working principle of the antiresonant reflecting optical waveguide, including the temperature cross-talk compensation, distribution localization, optofluidic biosensing, etc. In general, the optical fiber sensors based on antiresonant reflecting optical waveguide have advantages, such as compact structure, high sensitivity, large dynamic range, and high stability, which appear to have potential applications in researches of structure health monitoring, oil exploiting, and biology detection.

show abstract

Section: The Double Resonator Antiresonant Reflecting Optical Waveguimentioning

confidence: 99%

“…Hence, there are two resonance dips corresponding to two materials, which can be expressed as Eqs. (6) and (7) [12,13]:…”

Section: The Double Resonator Antiresonant Reflecting Optical Waveguimentioning

confidence: 99%

Section: The Double Resonator Antiresonant Reflecting Optical Waveguimentioning

confidence: 99%

See 1 more Smart Citation

The Antiresonant Reflecting Optical Waveguide Fiber Sensor

Ye¹

2020

Electromagnetic Propagation and Waveguides in Photonics and Microwave Engineering [Working Title]

Self Cite

View full text Add to dashboard Cite

show abstract

“…[143]. Other approaches comprise the excitation of whispering gallery modes in the outer cladding of an MF-PCF [158] or a self-referenced ARROW-type MOF selectively infiltrated with both MF and ethanol along the lines of [140], which yielded S=81 pm/Oe [144]. Recently, a magnetic-ionic-liquid was used as the MF in a selectively-infiltrated PCF in a compact sensor with an almost linear response in the range from 0 to 440 Oe [145].…”

Section: Sensing Applicationsmentioning

confidence: 99%

Infiltrated Photonic Crystal Fibers for Sensing Applications

Algorri

Zografopoulos

Tapetado

et al. 2018

Sensors

View full text Add to dashboard Cite

Photonic crystal fibers (PCFs) are a special class of optical fibers with a periodic arrangement of microstructured holes located in the fiber’s cladding. Light confinement is achieved by means of either index-guiding, or the photonic bandgap effect in a low-index core. Ever since PCFs were first demonstrated in 1995, their special characteristics, such as potentially high birefringence, very small or high nonlinearity, low propagation losses, and controllable dispersion parameters, have rendered them unique for many applications, such as sensors, high-power pulse transmission, and biomedical studies. When the holes of PCFs are filled with solids, liquids or gases, unprecedented opportunities for applications emerge. These include, but are not limited in, supercontinuum generation, propulsion of atoms through a hollow fiber core, fiber-loaded Bose–Einstein condensates, as well as enhanced sensing and measurement devices. For this reason, infiltrated PCF have been the focus of intensive research in recent years. In this review, the fundamentals and fabrication of PCF infiltrated with different materials are discussed. In addition, potential applications of infiltrated PCF sensors are reviewed, identifying the challenges and limitations to scale up and commercialize this novel technology.

show abstract

“…Since the ARROW guidance mechanism exhibits a transmission spectrum with periodic dips, we can use it as a sensor by following either wavelength shifts or intensity changes (based on the FOS design). Different parameters have been measured using ARROW sensors such as temperature [18], pressure [19,20], magnetic field [21][22][23], relative humidity [24], torsion [25], liquid level [26], displacement [27], and curvature [28] just to mention a few. In particular, measuring curvature is a crucial task that needs to be implemented in different areas such as robotic arms [29] and structural health monitoring [30], which includes the monitoring of bridges, buildings, airplanes, and other structures.…”

Section: Introductionmentioning

confidence: 99%

Sensitivity Enhancement of Curvature Fiber Sensor Based on Polymer-Coated Capillary Hollow-Core Fiber

Herrera-Piad

Hernández-Romano

May-Arrioja

et al. 2020

Sensors

View full text Add to dashboard Cite

In this paper, we propose and experimentally demonstrate a simple technique to enhance the curvature sensitivity of a bending fiber optic sensor based on anti-resonant reflecting optical waveguide (ARROW) guidance. The sensing structure is assembled by splicing a segment of capillary hollow-core fiber (CHCF) between two single-mode fibers (SMF), and the device is set on a steel sheet for measuring different curvatures. Without any surface treatment, the ARROW sensor exhibits a curvature sensitivity of 1.6 dB/m−1 in a curvature range from 0 to 2.14 m−1. By carefully coating half of the CHCF length with polydimethylsiloxane (PDMS), the curvature sensitivity of the ARROW sensor is enhanced to −5.62 dB/m−1, as well as an increment in the curvature range (from 0 to 2.68 m−1). Moreover, the covered device exhibits a low-temperature sensitivity (0.038 dB/°C), meaning that temperature fluctuations do not compromise the bending fiber optic sensor operation. The ARROW sensor fabricated with this technique has high sensitivity and a wide range for curvature measurements, with the advantage that the technique is cost-effective and easy to implement. All these features make this technique appealing for real sensing applications, such as structural health monitoring.

show abstract

Temperature-compensated fibre optic magnetic field sensor based on a self-referenced anti-resonant reflecting optical waveguide

Cited by 33 publications

References 20 publications

The Antiresonant Reflecting Optical Waveguide Fiber Sensor

The Antiresonant Reflecting Optical Waveguide Fiber Sensor

Infiltrated Photonic Crystal Fibers for Sensing Applications

Sensitivity Enhancement of Curvature Fiber Sensor Based on Polymer-Coated Capillary Hollow-Core Fiber

Contact Info

Product

Resources

About