A High Spatial Resolution Multipoint Optical Fiber Temperature Sensor With an Interlaced Sheath—Design, Analysis, and Experimental Validation

This article presents design, analysis, and experimental validation of a novel multipoint optical fiber sensor (OFS) probe of high spatial resolution. The probe incorporates an innovative interlaced thermal conductor-insulator-conductor (CIC) architecture to mitigate effects of thermal smearing that often occurred with the sheath in existing probes. This design ensures minimal thermal resistance between the sensor elements and the measurement environment. The design is backed by a detailed thermal analysis and computer simulation. Three prototype probes are constructed and tested in realistic environments to validate the design concept and evaluate the probe performance in transient and steady-state conditions. The results have confirmed unequivocally the unique features of this design and superior performance in achieving high spatial resolution in simultaneous measurements of localized temperatures in nonuniformly distributed thermal fields.

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Publication Details

Journal
IEEE Sensors Journal
Published
2024-11-20
DOI
https://doi.org/10.1109/jsen.2024.3498459
Primary Topic
Advanced Fiber Optic Sensors
Type
article
Field-Weighted Citation Impact
0.00

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article

A High Spatial Resolution Multipoint Optical Fiber Temperature Sensor With an Interlaced Sheath—Design, Analysis, and Experimental Validation

Jin Jiang, Yongqiang Deng
IEEE Sensors Journal
Advanced Fiber Optic Sensors
article

A High Spatial Resolution Multipoint Optical Fiber Temperature Sensor With an Interlaced Sheath—Design, Analysis, and Experimental Validation

Jin Jiang, Yongqiang Deng
article en

Abstract

This article presents design, analysis, and experimental validation of a novel multipoint optical fiber sensor (OFS) probe of high spatial resolution. The probe incorporates an innovative interlaced thermal conductor-insulator-conductor (CIC) architecture to mitigate effects of thermal smearing that often occurred with the sheath in existing probes. This design ensures minimal thermal resistance between the sensor elements and the measurement environment. The design is backed by a detailed thermal analysis and computer simulation. Three prototype probes are constructed and tested in realistic environments to validate the design concept and evaluate the probe performance in transient and steady-state conditions. The results have confirmed unequivocally the unique features of this design and superior performance in achieving high spatial resolution in simultaneous measurements of localized temperatures in nonuniformly distributed thermal fields.

IEEE Sensors JournalVol. 25(2)
Western University (CA)
Mitacs, University Network of Excellence in Nuclear Engineering, Natural Sciences and Engineering Research Council of Canada
Affordable and clean energy
Openalex Percentile: Top 81%
Advanced Fiber Optic Sensors
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