Mass Flow Monitoring by Distributed Fiber Optical Temperature Sensing
We developed a novel method to monitor mass flow based on distributed fiber optical temperature sensing. Examination of the temporal and spatial temperature distribution along the entire length of a locally heated fluidic conduit reveals heat flow under forced convection. Our experimental results ar...
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Online Access: | https://www.mdpi.com/1424-8220/19/19/4151 |
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doaj-d48f5185b5da44379fa4ddf4a9a624212020-11-25T01:35:04ZengMDPI AGSensors1424-82202019-09-011919415110.3390/s19194151s19194151Mass Flow Monitoring by Distributed Fiber Optical Temperature SensingAlin Jderu0Marius Enachescu1Dominik Ziegler2S.C. NanoPRO START MC S.R.L., Street Oltenitei, no. 388, District 4, 041337 Bucharest, RomaniaCenter for Surface Science and Nanotechnology (CSSNT), University POLITEHNICA Bucharest, Splaiul Independentei no. 313, 060042 Bucharest, RomaniaS.C. NanoPRO START MC S.R.L., Street Oltenitei, no. 388, District 4, 041337 Bucharest, RomaniaWe developed a novel method to monitor mass flow based on distributed fiber optical temperature sensing. Examination of the temporal and spatial temperature distribution along the entire length of a locally heated fluidic conduit reveals heat flow under forced convection. Our experimental results are in good agreement with two-dimensional finite element analysis that couples fluid dynamic and heat transfer equations. Through analysis of the temperature distribution bidirectional flow rates can be measured over three orders of magnitude. The technique is not flow intrusive, works in harsh conditions, including high-temperatures, high pressures, corrosive media, and strong electromagnetic environments. We demonstrate a first experimental implementation on a short fluidic system with a length of one meter. This range covers many applications such as low volume drug delivery, diagnostics, as well as process and automation technology. Yet, the technique can, without restrictions, be applied to long range installations. Existing fiber optics infrastructures, for instance on oil pipelines or down hole installations, would only require the addition of a heat source to enable reliable flow monitoring capability.https://www.mdpi.com/1424-8220/19/19/4151fiber optic sensorsflow diagnosticstemperature |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Alin Jderu Marius Enachescu Dominik Ziegler |
spellingShingle |
Alin Jderu Marius Enachescu Dominik Ziegler Mass Flow Monitoring by Distributed Fiber Optical Temperature Sensing Sensors fiber optic sensors flow diagnostics temperature |
author_facet |
Alin Jderu Marius Enachescu Dominik Ziegler |
author_sort |
Alin Jderu |
title |
Mass Flow Monitoring by Distributed Fiber Optical Temperature Sensing |
title_short |
Mass Flow Monitoring by Distributed Fiber Optical Temperature Sensing |
title_full |
Mass Flow Monitoring by Distributed Fiber Optical Temperature Sensing |
title_fullStr |
Mass Flow Monitoring by Distributed Fiber Optical Temperature Sensing |
title_full_unstemmed |
Mass Flow Monitoring by Distributed Fiber Optical Temperature Sensing |
title_sort |
mass flow monitoring by distributed fiber optical temperature sensing |
publisher |
MDPI AG |
series |
Sensors |
issn |
1424-8220 |
publishDate |
2019-09-01 |
description |
We developed a novel method to monitor mass flow based on distributed fiber optical temperature sensing. Examination of the temporal and spatial temperature distribution along the entire length of a locally heated fluidic conduit reveals heat flow under forced convection. Our experimental results are in good agreement with two-dimensional finite element analysis that couples fluid dynamic and heat transfer equations. Through analysis of the temperature distribution bidirectional flow rates can be measured over three orders of magnitude. The technique is not flow intrusive, works in harsh conditions, including high-temperatures, high pressures, corrosive media, and strong electromagnetic environments. We demonstrate a first experimental implementation on a short fluidic system with a length of one meter. This range covers many applications such as low volume drug delivery, diagnostics, as well as process and automation technology. Yet, the technique can, without restrictions, be applied to long range installations. Existing fiber optics infrastructures, for instance on oil pipelines or down hole installations, would only require the addition of a heat source to enable reliable flow monitoring capability. |
topic |
fiber optic sensors flow diagnostics temperature |
url |
https://www.mdpi.com/1424-8220/19/19/4151 |
work_keys_str_mv |
AT alinjderu massflowmonitoringbydistributedfiberopticaltemperaturesensing AT mariusenachescu massflowmonitoringbydistributedfiberopticaltemperaturesensing AT dominikziegler massflowmonitoringbydistributedfiberopticaltemperaturesensing |
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