Computer aided techniques for estimation and reduction of electromagnetic measurement devices uncertainties

At non-linear electromagnetic measurement systems, the finite element method is the most convenient tool for the system analysis and measurement uncertainties budget estimation. Two non-linear devices will be analyzed by finite element method: electrical steel sheet tes...

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Published in:International Journal of Metrology and Quality Engineering
Main Authors: Cundeva-Blajer M., Arsov L.
Format: Article
Language:English
Published: EDP Sciences 2010-01-01
Subjects:
Online Access:https://www.metrology-journal.org/articles/ijmqe/pdf/2010/02/ijmqe2010015.pdf
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author Cundeva-Blajer M.
Arsov L.
author_facet Cundeva-Blajer M.
Arsov L.
author_sort Cundeva-Blajer M.
collection DOAJ
container_title International Journal of Metrology and Quality Engineering
description At non-linear electromagnetic measurement systems, the finite element method is the most convenient tool for the system analysis and measurement uncertainties budget estimation. Two non-linear devices will be analyzed by finite element method: electrical steel sheet testing device-Epstein frame and combined current-voltage instrument transformer. The Epstein frame must comply with the standard IEC 60404-2:1996+A1:2008, and the combined instrument transformer with the IEC 60044-3: 2002. The Epstein frame forms an unloaded transformer and the analytical transformer theory introduces some approximations. The main approximation is introduced by the standard IEC 60404-2 (through the presumption of constant, invariant to the specimen grade effective magnetic path length). The finite element method results will enable an Epstein frame and combined current-voltage instrument transformer prototype design (by using a computer program based on genetic algorithm with minimal uncertainty budget as goal function) with reduced measurement uncertainty, which will be experimentally verified in the Metrological Laboratory for Electromagnetic Quantities at the Faculty of Electrical Engineering and Information Technologies-Skopje.
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spelling doaj-art-e0497da72492418aab83248d501ecc5d2025-08-19T20:53:33ZengEDP SciencesInternational Journal of Metrology and Quality Engineering2107-68392107-68472010-01-0112899710.1051/ijmqe/2010018ijmqe2010015Computer aided techniques for estimation and reduction of electromagnetic measurement devices uncertaintiesCundeva-Blajer M.Arsov L.At non-linear electromagnetic measurement systems, the finite element method is the most convenient tool for the system analysis and measurement uncertainties budget estimation. Two non-linear devices will be analyzed by finite element method: electrical steel sheet testing device-Epstein frame and combined current-voltage instrument transformer. The Epstein frame must comply with the standard IEC 60404-2:1996+A1:2008, and the combined instrument transformer with the IEC 60044-3: 2002. The Epstein frame forms an unloaded transformer and the analytical transformer theory introduces some approximations. The main approximation is introduced by the standard IEC 60404-2 (through the presumption of constant, invariant to the specimen grade effective magnetic path length). The finite element method results will enable an Epstein frame and combined current-voltage instrument transformer prototype design (by using a computer program based on genetic algorithm with minimal uncertainty budget as goal function) with reduced measurement uncertainty, which will be experimentally verified in the Metrological Laboratory for Electromagnetic Quantities at the Faculty of Electrical Engineering and Information Technologies-Skopje.https://www.metrology-journal.org/articles/ijmqe/pdf/2010/02/ijmqe2010015.pdfuncertainties estimationinstrument transformerepstein framefinite element methodgenetic algorithm
spellingShingle Cundeva-Blajer M.
Arsov L.
Computer aided techniques for estimation and reduction of electromagnetic measurement devices uncertainties
uncertainties estimation
instrument transformer
epstein frame
finite element method
genetic algorithm
title Computer aided techniques for estimation and reduction of electromagnetic measurement devices uncertainties
title_full Computer aided techniques for estimation and reduction of electromagnetic measurement devices uncertainties
title_fullStr Computer aided techniques for estimation and reduction of electromagnetic measurement devices uncertainties
title_full_unstemmed Computer aided techniques for estimation and reduction of electromagnetic measurement devices uncertainties
title_short Computer aided techniques for estimation and reduction of electromagnetic measurement devices uncertainties
title_sort computer aided techniques for estimation and reduction of electromagnetic measurement devices uncertainties
topic uncertainties estimation
instrument transformer
epstein frame
finite element method
genetic algorithm
url https://www.metrology-journal.org/articles/ijmqe/pdf/2010/02/ijmqe2010015.pdf
work_keys_str_mv AT cundevablajerm computeraidedtechniquesforestimationandreductionofelectromagneticmeasurementdevicesuncertainties
AT arsovl computeraidedtechniquesforestimationandreductionofelectromagneticmeasurementdevicesuncertainties