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Regenerated Bragg Grating Sensor Array for Temperature Measurements During an Aluminum Casting Process

An array of regenerated fiber Bragg gratings (RFBGs) was employed to monitor the temperature distribution during an aluminum cast process. Significant temperature gradients in the cast part were observed during the cooling and solidification period. The direction and velocity of the solidification f...

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Published in:IEEE sensors journal 2018-07, Vol.18 (13), p.5352-5360
Main Authors: Lindner, Markus, Tunc, Edis, Weraneck, Klaus, Heilmeier, Florian, Volk, Wolfram, Jakobi, Martin, Koch, Alexander W., Roths, Johannes
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cited_by cdi_FETCH-LOGICAL-c293t-3fd1f0f8dbb4ff64b0542231e70096b85a07368c4c07cb449144e26329849ee33
cites cdi_FETCH-LOGICAL-c293t-3fd1f0f8dbb4ff64b0542231e70096b85a07368c4c07cb449144e26329849ee33
container_end_page 5360
container_issue 13
container_start_page 5352
container_title IEEE sensors journal
container_volume 18
creator Lindner, Markus
Tunc, Edis
Weraneck, Klaus
Heilmeier, Florian
Volk, Wolfram
Jakobi, Martin
Koch, Alexander W.
Roths, Johannes
description An array of regenerated fiber Bragg gratings (RFBGs) was employed to monitor the temperature distribution during an aluminum cast process. Significant temperature gradients in the cast part were observed during the cooling and solidification period. The direction and velocity of the solidification front was revealed by the temperature data obtained by the RFBGs at different measurement points. A generalized calibration curve was established and applied to the RFBG array, avoiding the need of individual calibration measurements of each sensor element of the array. Temperatures measured using the RFBGs and a thermocouple placed in a reference arm of the mold showed excellent agreements and indicated that no thermal drift of the RFBGs sensor elements occurred during the casting. The RFBG measurements were carried out with only a single fiber, which reduced the amount of lead cables in the melt and hence minimized the sensor-induced disturbances to the casting process. In addition, the limited number of cables enables the RFBG sensors to be deployed in small and complex cast geometries. Multipoint temperature sensors based on RFBG arrays can become important tools to improve the quality of casting processes.
doi_str_mv 10.1109/JSEN.2018.2837164
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source IEEE Electronic Library (IEL) Journals
subjects Aluminum
Bragg gratings
Cables
Calibration
Casting
Fiber gratings
multipoint regenerated fiber Bragg grating
regenerated fiber Bragg gratings
Sensor arrays
Sensors
Solidification
Temperature
Temperature distribution
Temperature gradients
Temperature measurement
Temperature sensors
title Regenerated Bragg Grating Sensor Array for Temperature Measurements During an Aluminum Casting Process
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