Shock Properties Characterization of Dielectric Materials Using Millimeter-Wave Interferometry and Convolutional Neural Networks

In this paper, a neural network approach is applied for solving an electromagnetic inverse problem involving solid dielectric materials subjected to shock impacts and interrogated by a millimeter-wave interferometer. Under mechanical impact, a shock wave is generated in the material and modifies the...

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Main Authors: Jérémi Mapas, Alexandre Lefrançois, Hervé Aubert, Sacha Comte, Yohan Barbarin, Maylis Lavayssière, Benoit Rougier, Alexandre Dore
Format: Article
Language:English
Published: MDPI AG 2023-05-01
Series:Sensors
Subjects:
Online Access:https://www.mdpi.com/1424-8220/23/10/4835
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author Jérémi Mapas
Alexandre Lefrançois
Hervé Aubert
Sacha Comte
Yohan Barbarin
Maylis Lavayssière
Benoit Rougier
Alexandre Dore
author_facet Jérémi Mapas
Alexandre Lefrançois
Hervé Aubert
Sacha Comte
Yohan Barbarin
Maylis Lavayssière
Benoit Rougier
Alexandre Dore
author_sort Jérémi Mapas
collection DOAJ
description In this paper, a neural network approach is applied for solving an electromagnetic inverse problem involving solid dielectric materials subjected to shock impacts and interrogated by a millimeter-wave interferometer. Under mechanical impact, a shock wave is generated in the material and modifies the refractive index. It was recently demonstrated that the shock wavefront velocity and the particle velocity as well as the modified index in a shocked material can be remotely derived from measuring two characteristic Doppler frequencies in the waveform delivered by a millimeter-wave interferometer. We show here that a more accurate estimation of the shock wavefront and particle velocities can be obtained from training an appropriate convolutional neural network, especially in the important case of short-duration waveforms of few microseconds.
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spelling doaj.art-57ce6f895588449e9902cd8ea3eeebff2023-11-18T03:13:21ZengMDPI AGSensors1424-82202023-05-012310483510.3390/s23104835Shock Properties Characterization of Dielectric Materials Using Millimeter-Wave Interferometry and Convolutional Neural NetworksJérémi Mapas0Alexandre Lefrançois1Hervé Aubert2Sacha Comte3Yohan Barbarin4Maylis Lavayssière5Benoit Rougier6Alexandre Dore7CEA-DAM, GRAMAT, BP80200, F-46500 Gramat, FranceCEA-DAM, GRAMAT, BP80200, F-46500 Gramat, FranceCNRS-LAAS, Toulouse University, 7 Avenue du Colonel Roche, BP54200, F-31031 Toulouse, FranceCEA-DAM, GRAMAT, BP80200, F-46500 Gramat, FranceCEA-DAM, GRAMAT, BP80200, F-46500 Gramat, FranceCEA-DAM, GRAMAT, BP80200, F-46500 Gramat, FranceCEA-DAM, GRAMAT, BP80200, F-46500 Gramat, FranceCNRS-LAAS, Toulouse University, 7 Avenue du Colonel Roche, BP54200, F-31031 Toulouse, FranceIn this paper, a neural network approach is applied for solving an electromagnetic inverse problem involving solid dielectric materials subjected to shock impacts and interrogated by a millimeter-wave interferometer. Under mechanical impact, a shock wave is generated in the material and modifies the refractive index. It was recently demonstrated that the shock wavefront velocity and the particle velocity as well as the modified index in a shocked material can be remotely derived from measuring two characteristic Doppler frequencies in the waveform delivered by a millimeter-wave interferometer. We show here that a more accurate estimation of the shock wavefront and particle velocities can be obtained from training an appropriate convolutional neural network, especially in the important case of short-duration waveforms of few microseconds.https://www.mdpi.com/1424-8220/23/10/4835convolutional neural networkshock propertiesmm-wave interferometrymetrologyshock velocityparticle velocity
spellingShingle Jérémi Mapas
Alexandre Lefrançois
Hervé Aubert
Sacha Comte
Yohan Barbarin
Maylis Lavayssière
Benoit Rougier
Alexandre Dore
Shock Properties Characterization of Dielectric Materials Using Millimeter-Wave Interferometry and Convolutional Neural Networks
Sensors
convolutional neural network
shock properties
mm-wave interferometry
metrology
shock velocity
particle velocity
title Shock Properties Characterization of Dielectric Materials Using Millimeter-Wave Interferometry and Convolutional Neural Networks
title_full Shock Properties Characterization of Dielectric Materials Using Millimeter-Wave Interferometry and Convolutional Neural Networks
title_fullStr Shock Properties Characterization of Dielectric Materials Using Millimeter-Wave Interferometry and Convolutional Neural Networks
title_full_unstemmed Shock Properties Characterization of Dielectric Materials Using Millimeter-Wave Interferometry and Convolutional Neural Networks
title_short Shock Properties Characterization of Dielectric Materials Using Millimeter-Wave Interferometry and Convolutional Neural Networks
title_sort shock properties characterization of dielectric materials using millimeter wave interferometry and convolutional neural networks
topic convolutional neural network
shock properties
mm-wave interferometry
metrology
shock velocity
particle velocity
url https://www.mdpi.com/1424-8220/23/10/4835
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