Development of a mathematical model for signal processing using laboratory data

In this paper, we consider a mathematical model for the interpretation of the radarograms which obtained by GPR systems. As noted in [1–3], in addition to testing the algorithms, it is necessary to compare the calculated data of the mathematical model with the real data obtained from the GPR. One o...

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Main Authors: S.I. Kabanikhin, K.T. Iskakov, B.B. Sholpanbaev, М.А. Shishlenin, D.K. Tokseit
Format: Article
Language:English
Published: Academician Ye.A. Buketov Karaganda University 2018-12-01
Series:Қарағанды университетінің хабаршысы. Математика сериясы
Subjects:
Online Access:http://mathematics-vestnik.ksu.kz/index.php/mathematics-vestnik/article/view/291
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author S.I. Kabanikhin
K.T. Iskakov
B.B. Sholpanbaev
М.А. Shishlenin
D.K. Tokseit
author_facet S.I. Kabanikhin
K.T. Iskakov
B.B. Sholpanbaev
М.А. Shishlenin
D.K. Tokseit
author_sort S.I. Kabanikhin
collection DOAJ
description In this paper, we consider a mathematical model for the interpretation of the radarograms which obtained by GPR systems. As noted in [1–3], in addition to testing the algorithms, it is necessary to compare the calculated data of the mathematical model with the real data obtained from the GPR. One of the reasons preventing the spread of GPR technologies is the complexity of data interpretation, which requires the involvement of highly qualified specialists. In connection with this research as a mathematical model and a comparison with the real data of the GPR in an ideal layered medium, will provide a method for interpreting radarograms. We have conducted a series of experimental studies using the Loza – A georadar at the newly created laboratory ground. A distinctive feature of these studies is the choice of several localized objects in the form of iron sheets placed in an ideal layered medium, namely in clean dry sand. The choice of such an environment is necessary for testing the algorithms, the mathematical models developed by us for determining the depth of localized several objects. A series of experimental studies were conducted using georadar and a number of radarograms were obtained to study the depth of objects. A cycle of calculations was carried out to verify the conformity of the results of mathematical modeling with real georadar data. Key words: electrodynamics equation, magnetic permeability, dobeshi wavelets, medium conductivity, dielectric permeability, Maxwell equation.
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spelling doaj.art-7ff1bf98d001431e86840a37e1859c3d2023-12-29T10:21:02ZengAcademician Ye.A. Buketov Karaganda UniversityҚарағанды университетінің хабаршысы. Математика сериясы2518-79292663-50112018-12-0192410.31489/2018m4/148-157Development of a mathematical model for signal processing using laboratory dataS.I. KabanikhinK.T. IskakovB.B. SholpanbaevМ.А. ShishleninD.K. Tokseit In this paper, we consider a mathematical model for the interpretation of the radarograms which obtained by GPR systems. As noted in [1–3], in addition to testing the algorithms, it is necessary to compare the calculated data of the mathematical model with the real data obtained from the GPR. One of the reasons preventing the spread of GPR technologies is the complexity of data interpretation, which requires the involvement of highly qualified specialists. In connection with this research as a mathematical model and a comparison with the real data of the GPR in an ideal layered medium, will provide a method for interpreting radarograms. We have conducted a series of experimental studies using the Loza – A georadar at the newly created laboratory ground. A distinctive feature of these studies is the choice of several localized objects in the form of iron sheets placed in an ideal layered medium, namely in clean dry sand. The choice of such an environment is necessary for testing the algorithms, the mathematical models developed by us for determining the depth of localized several objects. A series of experimental studies were conducted using georadar and a number of radarograms were obtained to study the depth of objects. A cycle of calculations was carried out to verify the conformity of the results of mathematical modeling with real georadar data. Key words: electrodynamics equation, magnetic permeability, dobeshi wavelets, medium conductivity, dielectric permeability, Maxwell equation. http://mathematics-vestnik.ksu.kz/index.php/mathematics-vestnik/article/view/291electrodynamics equationmagnetic permeabilitydobeshi waveletsmedium conductivitydielectric permeabilityMaxwell equation
spellingShingle S.I. Kabanikhin
K.T. Iskakov
B.B. Sholpanbaev
М.А. Shishlenin
D.K. Tokseit
Development of a mathematical model for signal processing using laboratory data
Қарағанды университетінің хабаршысы. Математика сериясы
electrodynamics equation
magnetic permeability
dobeshi wavelets
medium conductivity
dielectric permeability
Maxwell equation
title Development of a mathematical model for signal processing using laboratory data
title_full Development of a mathematical model for signal processing using laboratory data
title_fullStr Development of a mathematical model for signal processing using laboratory data
title_full_unstemmed Development of a mathematical model for signal processing using laboratory data
title_short Development of a mathematical model for signal processing using laboratory data
title_sort development of a mathematical model for signal processing using laboratory data
topic electrodynamics equation
magnetic permeability
dobeshi wavelets
medium conductivity
dielectric permeability
Maxwell equation
url http://mathematics-vestnik.ksu.kz/index.php/mathematics-vestnik/article/view/291
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AT ktiskakov developmentofamathematicalmodelforsignalprocessingusinglaboratorydata
AT bbsholpanbaev developmentofamathematicalmodelforsignalprocessingusinglaboratorydata
AT mashishlenin developmentofamathematicalmodelforsignalprocessingusinglaboratorydata
AT dktokseit developmentofamathematicalmodelforsignalprocessingusinglaboratorydata