Causality study and numerical response of the magnetic permeability as a function of the frequency of ferrites using Kramers–Kronig relations

"In this paper, the numerical treatment of magnetic loss of NiZn, MnZn, Ni2Y, and NiZnCu ferrite and their composites, by using Krameres–Kronig relations, is investigated. The complex magnetic permeability spectra for ferromagnetic materials have been studied. Due to the principle of causality...

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Autores principales: Fano, Walter Gustavo, Boggi, Silvina, Razzitte, Adrián C.
Formato: Artículos de Publicaciones Periódicas acceptedVersion
Lenguaje:Inglés
Publicado: 2019
Materias:
MODELOS MATEMATICOS
ANALISIS NUMERICO
CIRCUITOS MAGNETICOS
MATERIALES MAGNETICOS
MATERIALES COMPUESTOS
Acceso en línea:http://ri.itba.edu.ar/handle/123456789/1431
Aporte de:
Repositorio Institucional Instituto Tecnológico de Buenos Aires (ITBA) de Instituto Tecnológico de Buenos Aires (ITBA)
id I32-R138-123456789-1431
record_format dspace
spelling I32-R138-123456789-14312022-12-07T13:06:19Z Causality study and numerical response of the magnetic permeability as a function of the frequency of ferrites using Kramers–Kronig relations Fano, Walter Gustavo Boggi, Silvina Razzitte, Adrián C. MODELOS MATEMATICOS ANALISIS NUMERICO CIRCUITOS MAGNETICOS MATERIALES MAGNETICOS MATERIALES COMPUESTOS "In this paper, the numerical treatment of magnetic loss of NiZn, MnZn, Ni2Y, and NiZnCu ferrite and their composites, by using Krameres–Kronig relations, is investigated. The complex magnetic permeability spectra for ferromagnetic materials have been studied. Due to the principle of causality and time independence in the relation between magnetic induction B and magnetic field H, the real and the imaginary part of the complex magnetic permeability are mutually dependent, and the correlation is given by the Krameres–Kronig equations. Through them, it is possible to measure the real component of the complex magnetic permeability, assuming the real component is given, and by the Hilbert transform, the imaginary part of the magnetic permeability can be calculated. Magnetic circuit model has been studied theoretically, focusing on the model’s poles in the complex plane to verify the principle of causality and the temporary independence." 2019-01-23T15:50:49Z 2019-01-23T15:50:49Z 2008 Artículos de Publicaciones Periódicas info:eu-repo/semantics/acceptedVersion 0921-4526 http://ri.itba.edu.ar/handle/123456789/1431 en info:eu-repo/grantAgreement/CONICET/PIP/2355/AR. Argentina info:eu-repo/grantAgreement/UBA-FI/I017/AR. Ciudad Autónoma de Buenos Aires info:eu-repo/semantics/altIdentifier/doi/10.1016/j.physb.2007.08.218 application/pdf
institution Instituto Tecnológico de Buenos Aires (ITBA)
institution_str I-32
repository_str R-138
collection Repositorio Institucional Instituto Tecnológico de Buenos Aires (ITBA)
language Inglés
topic MODELOS MATEMATICOS
ANALISIS NUMERICO
CIRCUITOS MAGNETICOS
MATERIALES MAGNETICOS
MATERIALES COMPUESTOS
spellingShingle MODELOS MATEMATICOS
ANALISIS NUMERICO
CIRCUITOS MAGNETICOS
MATERIALES MAGNETICOS
MATERIALES COMPUESTOS
Fano, Walter Gustavo
Boggi, Silvina
Razzitte, Adrián C.
Causality study and numerical response of the magnetic permeability as a function of the frequency of ferrites using Kramers–Kronig relations
topic_facet MODELOS MATEMATICOS
ANALISIS NUMERICO
CIRCUITOS MAGNETICOS
MATERIALES MAGNETICOS
MATERIALES COMPUESTOS
description "In this paper, the numerical treatment of magnetic loss of NiZn, MnZn, Ni2Y, and NiZnCu ferrite and their composites, by using Krameres–Kronig relations, is investigated. The complex magnetic permeability spectra for ferromagnetic materials have been studied. Due to the principle of causality and time independence in the relation between magnetic induction B and magnetic field H, the real and the imaginary part of the complex magnetic permeability are mutually dependent, and the correlation is given by the Krameres–Kronig equations. Through them, it is possible to measure the real component of the complex magnetic permeability, assuming the real component is given, and by the Hilbert transform, the imaginary part of the magnetic permeability can be calculated. Magnetic circuit model has been studied theoretically, focusing on the model’s poles in the complex plane to verify the principle of causality and the temporary independence."
format Artículos de Publicaciones Periódicas
acceptedVersion
author Fano, Walter Gustavo
Boggi, Silvina
Razzitte, Adrián C.
author_facet Fano, Walter Gustavo
Boggi, Silvina
Razzitte, Adrián C.
author_sort Fano, Walter Gustavo
title Causality study and numerical response of the magnetic permeability as a function of the frequency of ferrites using Kramers–Kronig relations
title_short Causality study and numerical response of the magnetic permeability as a function of the frequency of ferrites using Kramers–Kronig relations
title_full Causality study and numerical response of the magnetic permeability as a function of the frequency of ferrites using Kramers–Kronig relations
title_fullStr Causality study and numerical response of the magnetic permeability as a function of the frequency of ferrites using Kramers–Kronig relations
title_full_unstemmed Causality study and numerical response of the magnetic permeability as a function of the frequency of ferrites using Kramers–Kronig relations
title_sort causality study and numerical response of the magnetic permeability as a function of the frequency of ferrites using kramers–kronig relations
publishDate 2019
url http://ri.itba.edu.ar/handle/123456789/1431
work_keys_str_mv AT fanowaltergustavo causalitystudyandnumericalresponseofthemagneticpermeabilityasafunctionofthefrequencyofferritesusingkramerskronigrelations
AT boggisilvina causalitystudyandnumericalresponseofthemagneticpermeabilityasafunctionofthefrequencyofferritesusingkramerskronigrelations
AT razzitteadrianc causalitystudyandnumericalresponseofthemagneticpermeabilityasafunctionofthefrequencyofferritesusingkramerskronigrelations
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