Simulation model for the evaluation and design of miniaturized non-resonant photoacoustic gas sensors

This publication reports the derivation and the implementation of a simulation model that describes non-resonant photoacoustic gas sensors. The photoacoustic effect is modelled in detail for the successive steps of radiation emission, stimulation of molecules, collisional relaxation processes and fi...

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Main Authors: J. Huber, K. Schmitt, J. Wöllenstein
Format: Article
Language:English
Published: Copernicus Publications 2016-07-01
Series:Journal of Sensors and Sensor Systems
Online Access:http://www.j-sens-sens-syst.net/5/293/2016/jsss-5-293-2016.pdf
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spelling doaj-46dbfe68228448dc8cfadd3c863a0a542020-11-24T23:41:24ZengCopernicus PublicationsJournal of Sensors and Sensor Systems2194-87712194-878X2016-07-015229329910.5194/jsss-5-293-2016Simulation model for the evaluation and design of miniaturized non-resonant photoacoustic gas sensorsJ. Huber0K. Schmitt1J. Wöllenstein2Fraunhofer Institute for Physical Measurement Techniques IPM, Heidenhofstr. 8, 79110 Freiburg, GermanyFraunhofer Institute for Physical Measurement Techniques IPM, Heidenhofstr. 8, 79110 Freiburg, GermanyFraunhofer Institute for Physical Measurement Techniques IPM, Heidenhofstr. 8, 79110 Freiburg, GermanyThis publication reports the derivation and the implementation of a simulation model that describes non-resonant photoacoustic gas sensors. The photoacoustic effect is modelled in detail for the successive steps of radiation emission, stimulation of molecules, collisional relaxation processes and finally the pressure formation in a closed gas cell. The photoacoustic effect offers great potential in the development of selective, miniaturized gas sensor systems. We verify and discuss the results of our model assuming typical parameters and values in indoor CO<sub>2</sub> sensing applications. We set up a sensor system for experimental verification of the simulated data and discuss the results. The results of the simulation model are in good accordance with the experimental data and can therefore be used as a novel and efficient tool for the development of non-resonant photoacoustic gas sensor systems.http://www.j-sens-sens-syst.net/5/293/2016/jsss-5-293-2016.pdf
collection DOAJ
language English
format Article
sources DOAJ
author J. Huber
K. Schmitt
J. Wöllenstein
spellingShingle J. Huber
K. Schmitt
J. Wöllenstein
Simulation model for the evaluation and design of miniaturized non-resonant photoacoustic gas sensors
Journal of Sensors and Sensor Systems
author_facet J. Huber
K. Schmitt
J. Wöllenstein
author_sort J. Huber
title Simulation model for the evaluation and design of miniaturized non-resonant photoacoustic gas sensors
title_short Simulation model for the evaluation and design of miniaturized non-resonant photoacoustic gas sensors
title_full Simulation model for the evaluation and design of miniaturized non-resonant photoacoustic gas sensors
title_fullStr Simulation model for the evaluation and design of miniaturized non-resonant photoacoustic gas sensors
title_full_unstemmed Simulation model for the evaluation and design of miniaturized non-resonant photoacoustic gas sensors
title_sort simulation model for the evaluation and design of miniaturized non-resonant photoacoustic gas sensors
publisher Copernicus Publications
series Journal of Sensors and Sensor Systems
issn 2194-8771
2194-878X
publishDate 2016-07-01
description This publication reports the derivation and the implementation of a simulation model that describes non-resonant photoacoustic gas sensors. The photoacoustic effect is modelled in detail for the successive steps of radiation emission, stimulation of molecules, collisional relaxation processes and finally the pressure formation in a closed gas cell. The photoacoustic effect offers great potential in the development of selective, miniaturized gas sensor systems. We verify and discuss the results of our model assuming typical parameters and values in indoor CO<sub>2</sub> sensing applications. We set up a sensor system for experimental verification of the simulated data and discuss the results. The results of the simulation model are in good accordance with the experimental data and can therefore be used as a novel and efficient tool for the development of non-resonant photoacoustic gas sensor systems.
url http://www.j-sens-sens-syst.net/5/293/2016/jsss-5-293-2016.pdf
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AT kschmitt simulationmodelfortheevaluationanddesignofminiaturizednonresonantphotoacousticgassensors
AT jwollenstein simulationmodelfortheevaluationanddesignofminiaturizednonresonantphotoacousticgassensors
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