Controlling the thickness of the plastic layer applied using 3D printing by electromagnetic acoustic method

Background: Currently, the EMA method is not used to control the thickness of the layer of plastic applied to a metal platform using 3D printing, which significantly limits the scope of its use. However, EMA flaw detectors are widely usedto control the quality of the metal platform itself. The solut...

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Main Authors: Максим Сергійович Друзєв, Олександр Олександрович Подолян, Григорій Семенович Тимчик
Format: Article
Language:English
Published: Igor Sikorsky Kyiv Polytechnic Institute 2022-02-01
Series:KPI Science News
Subjects:
Online Access:http://scinews.kpi.ua/article/view/252713
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author Максим Сергійович Друзєв
Олександр Олександрович Подолян
Григорій Семенович Тимчик
author_facet Максим Сергійович Друзєв
Олександр Олександрович Подолян
Григорій Семенович Тимчик
author_sort Максим Сергійович Друзєв
collection DOAJ
description Background: Currently, the EMA method is not used to control the thickness of the layer of plastic applied to a metal platform using 3D printing, which significantly limits the scope of its use. However, EMA flaw detectors are widely usedto control the quality of the metal platform itself. The solution of the problem of radiation research will allow carrying out complex control of the thickness of the layer of plastic applied by 3D printing, which will increase the efficiency ofultrasonic flaw detection in the reliability and speed of work.Objective: This article considers the possibility of determining the thickness of the layer applied by 3D printing using electromagnetic-acoustic (EMA) method.Methods: The analysis of the relationship between the thicknesses of the layer of plastic applied by 3D printing on theacoustic pressure created in it during the control using EMA transducers. The influence of the thickness of the plastic layer applied to the metal platform by means of 3D printing on the acoustic parameters of the EMA transducer was investigated with the help of mathematical modeling. Experimentally obtained dependences showing the influence of the thickness of the layer applied by 3D printing on the generated acoustic pressure.Results. The effect of the thickness of the plastic layer applied to a metal platform using 3D printing on the acoustic parameters of the EMA transducer is studied using mathematical modelling.Dependences showing the effect of the thickness of the plastic layer applied to the metal platform using 3D printing on the created acoustic pressure are obtained experimentally. The maximum acoustic pressure is created when there is no thickness of the plastic layer applied to the metal platform using 3D printing. The pressure drops sharply, as the layerthickness increases.Conclusions: Good convergence of the outcome of theoretical and experimental studies is demonstrated, with the approximation error of experimentally obtained data generally not exceeding 5%.The study is based on a widely proven approach to analyzing the process of acoustic wave formation by an EMA transducer. The reliability of the results obtained is confirmed by the correct use of the mathematical tools and goodconvergence of the outcome of theoretical and experimental studies.
format Article
id doaj-art-b2872be1e31241b8b423b90e4a336569
institution Kabale University
issn 2617-5509
2663-7472
language English
publishDate 2022-02-01
publisher Igor Sikorsky Kyiv Polytechnic Institute
record_format Article
series KPI Science News
spelling doaj-art-b2872be1e31241b8b423b90e4a3365692024-12-20T12:09:06ZengIgor Sikorsky Kyiv Polytechnic InstituteKPI Science News2617-55092663-74722022-02-0149910510.20535/kpisn.2021.4.252713290614Controlling the thickness of the plastic layer applied using 3D printing by electromagnetic acoustic methodМаксим Сергійович Друзєв0https://orcid.org/0000-0003-3116-2750Олександр Олександрович Подолян1https://orcid.org/0000-0003-0522-1403Григорій Семенович Тимчик2https://orcid.org/0000-0003-1079-998XIgor Sikorsky Kyiv Polytechnic InstituteIgor Sikorsky Kyiv Polytechnic InstituteIgor Sikorsky Kyiv Polytechnic InstituteBackground: Currently, the EMA method is not used to control the thickness of the layer of plastic applied to a metal platform using 3D printing, which significantly limits the scope of its use. However, EMA flaw detectors are widely usedto control the quality of the metal platform itself. The solution of the problem of radiation research will allow carrying out complex control of the thickness of the layer of plastic applied by 3D printing, which will increase the efficiency ofultrasonic flaw detection in the reliability and speed of work.Objective: This article considers the possibility of determining the thickness of the layer applied by 3D printing using electromagnetic-acoustic (EMA) method.Methods: The analysis of the relationship between the thicknesses of the layer of plastic applied by 3D printing on theacoustic pressure created in it during the control using EMA transducers. The influence of the thickness of the plastic layer applied to the metal platform by means of 3D printing on the acoustic parameters of the EMA transducer was investigated with the help of mathematical modeling. Experimentally obtained dependences showing the influence of the thickness of the layer applied by 3D printing on the generated acoustic pressure.Results. The effect of the thickness of the plastic layer applied to a metal platform using 3D printing on the acoustic parameters of the EMA transducer is studied using mathematical modelling.Dependences showing the effect of the thickness of the plastic layer applied to the metal platform using 3D printing on the created acoustic pressure are obtained experimentally. The maximum acoustic pressure is created when there is no thickness of the plastic layer applied to the metal platform using 3D printing. The pressure drops sharply, as the layerthickness increases.Conclusions: Good convergence of the outcome of theoretical and experimental studies is demonstrated, with the approximation error of experimentally obtained data generally not exceeding 5%.The study is based on a widely proven approach to analyzing the process of acoustic wave formation by an EMA transducer. The reliability of the results obtained is confirmed by the correct use of the mathematical tools and goodconvergence of the outcome of theoretical and experimental studies.http://scinews.kpi.ua/article/view/252713emaconverter3dprintinglayerplasticthicknessacoustic pressurenon-destructive testing
spellingShingle Максим Сергійович Друзєв
Олександр Олександрович Подолян
Григорій Семенович Тимчик
Controlling the thickness of the plastic layer applied using 3D printing by electromagnetic acoustic method
KPI Science News
ema
converter
3d
printing
layer
plastic
thickness
acoustic pressure
non-destructive testing
title Controlling the thickness of the plastic layer applied using 3D printing by electromagnetic acoustic method
title_full Controlling the thickness of the plastic layer applied using 3D printing by electromagnetic acoustic method
title_fullStr Controlling the thickness of the plastic layer applied using 3D printing by electromagnetic acoustic method
title_full_unstemmed Controlling the thickness of the plastic layer applied using 3D printing by electromagnetic acoustic method
title_short Controlling the thickness of the plastic layer applied using 3D printing by electromagnetic acoustic method
title_sort controlling the thickness of the plastic layer applied using 3d printing by electromagnetic acoustic method
topic ema
converter
3d
printing
layer
plastic
thickness
acoustic pressure
non-destructive testing
url http://scinews.kpi.ua/article/view/252713
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AT oleksandroleksandrovičpodolân controllingthethicknessoftheplasticlayerappliedusing3dprintingbyelectromagneticacousticmethod
AT grigoríjsemenovičtimčik controllingthethicknessoftheplasticlayerappliedusing3dprintingbyelectromagneticacousticmethod