Use of Distributed Temperature Sensing Technology to Characterize Fire Behavior

We evaluated the potential of a fiber optic cable connected to distributed temperature sensing (DTS) technology to withstand wildland fire conditions and quantify fire behavior parameters. We used a custom-made ‘fire cable’ consisting of three optical fibers coated with three different materials—acr...

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Main Authors: Douglas Cram, Christine E. Hatch, Scott Tyler, Carlos Ochoa
Format: Article
Language:English
Published: MDPI AG 2016-10-01
Series:Sensors
Subjects:
Online Access:http://www.mdpi.com/1424-8220/16/10/1712
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spelling doaj-21725adacb6841dc9528bfee275f4db42020-11-24T21:08:03ZengMDPI AGSensors1424-82202016-10-011610171210.3390/s16101712s16101712Use of Distributed Temperature Sensing Technology to Characterize Fire BehaviorDouglas Cram0Christine E. Hatch1Scott Tyler2Carlos Ochoa3Extension Animal Sciences and Natural Resources, New Mexico State University, Las Cruces, NM 88003, USADepartment of Geosciences, University of Massachusetts, Amherst, MA 01003, USAGeological Sciences and Engineering, University of Nevada, Reno, NV 89557, USADepartment of Animal and Rangeland Sciences, Oregon State University, Corvallis, OR 97331, USAWe evaluated the potential of a fiber optic cable connected to distributed temperature sensing (DTS) technology to withstand wildland fire conditions and quantify fire behavior parameters. We used a custom-made ‘fire cable’ consisting of three optical fibers coated with three different materials—acrylate, copper and polyimide. The 150-m cable was deployed in grasslands and burned in three prescribed fires. The DTS system recorded fire cable output every three seconds and integrated temperatures every 50.6 cm. Results indicated the fire cable was physically capable of withstanding repeated rugged use. Fiber coating materials withstood temperatures up to 422 °C. Changes in fiber attenuation following fire were near zero (−0.81 to 0.12 dB/km) indicating essentially no change in light gain or loss as a function of distance or fire intensity over the length of the fire cable. Results indicated fire cable and DTS technology have potential to quantify fire environment parameters such as heat duration and rate of spread but additional experimentation and analysis are required to determine efficacy and response times. This study adds understanding of DTS and fire cable technology as a potential new method for characterizing fire behavior parameters at greater temporal and spatial scales.http://www.mdpi.com/1424-8220/16/10/1712fiber-opticFO-DTSprescribed firerangelandspatial mapping
collection DOAJ
language English
format Article
sources DOAJ
author Douglas Cram
Christine E. Hatch
Scott Tyler
Carlos Ochoa
spellingShingle Douglas Cram
Christine E. Hatch
Scott Tyler
Carlos Ochoa
Use of Distributed Temperature Sensing Technology to Characterize Fire Behavior
Sensors
fiber-optic
FO-DTS
prescribed fire
rangeland
spatial mapping
author_facet Douglas Cram
Christine E. Hatch
Scott Tyler
Carlos Ochoa
author_sort Douglas Cram
title Use of Distributed Temperature Sensing Technology to Characterize Fire Behavior
title_short Use of Distributed Temperature Sensing Technology to Characterize Fire Behavior
title_full Use of Distributed Temperature Sensing Technology to Characterize Fire Behavior
title_fullStr Use of Distributed Temperature Sensing Technology to Characterize Fire Behavior
title_full_unstemmed Use of Distributed Temperature Sensing Technology to Characterize Fire Behavior
title_sort use of distributed temperature sensing technology to characterize fire behavior
publisher MDPI AG
series Sensors
issn 1424-8220
publishDate 2016-10-01
description We evaluated the potential of a fiber optic cable connected to distributed temperature sensing (DTS) technology to withstand wildland fire conditions and quantify fire behavior parameters. We used a custom-made ‘fire cable’ consisting of three optical fibers coated with three different materials—acrylate, copper and polyimide. The 150-m cable was deployed in grasslands and burned in three prescribed fires. The DTS system recorded fire cable output every three seconds and integrated temperatures every 50.6 cm. Results indicated the fire cable was physically capable of withstanding repeated rugged use. Fiber coating materials withstood temperatures up to 422 °C. Changes in fiber attenuation following fire were near zero (−0.81 to 0.12 dB/km) indicating essentially no change in light gain or loss as a function of distance or fire intensity over the length of the fire cable. Results indicated fire cable and DTS technology have potential to quantify fire environment parameters such as heat duration and rate of spread but additional experimentation and analysis are required to determine efficacy and response times. This study adds understanding of DTS and fire cable technology as a potential new method for characterizing fire behavior parameters at greater temporal and spatial scales.
topic fiber-optic
FO-DTS
prescribed fire
rangeland
spatial mapping
url http://www.mdpi.com/1424-8220/16/10/1712
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AT christineehatch useofdistributedtemperaturesensingtechnologytocharacterizefirebehavior
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AT carlosochoa useofdistributedtemperaturesensingtechnologytocharacterizefirebehavior
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