Anthropomorphic Brain Models Based on Magnetic Resonance Imaging

The article is devoted to the creation of a method for generating anthropomorphic brain models based on magnetic resonance imaging. The selection of the magnetic field amplitude for transcranial magnetic stimulation (TMS) is carried out through modeling using the finite element method (FEM). These F...

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Main Authors: V. V. Kabachek, N. S. Davydova, M. M. Mezhennaya, M. V. Davydov
Format: Article
Language:Russian
Published: Ministry of Education of the Republic of Belarus, Establishment The Main Information and Analytical Center 2022-09-01
Series:Цифровая трансформация
Subjects:
Online Access:https://dt.bsuir.by/jour/article/view/679
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author V. V. Kabachek
N. S. Davydova
M. M. Mezhennaya
M. V. Davydov
author_facet V. V. Kabachek
N. S. Davydova
M. M. Mezhennaya
M. V. Davydov
author_sort V. V. Kabachek
collection DOAJ
description The article is devoted to the creation of a method for generating anthropomorphic brain models based on magnetic resonance imaging. The selection of the magnetic field amplitude for transcranial magnetic stimulation (TMS) is carried out through modeling using the finite element method (FEM). These FEM models graphically demonstrate information on the distribution of the magnetic field and, therefore, on the occurring neurophysiological and behavioral changes based on the dose of the TMS, the specific resistance of the head tissue and its anatomy. Thus, these models are an integral tool used to design, configure, and program TMS devices, as well as to study parameters such as magnetic field strength and tension. A distinctive aspect of this work is the quality of the resulting head models. When creating the calculated FEM models, an MRI image of the head was used to perform segmentation in the FreeSurfer environment. Next, the image was converted in the Matlab environment. After the assembly of the head model in COMSOL Multiphysics, the TMS was simulated. The results of the transformations is a head model made in the form of a three-dimensional grid, which is suitable for modeling. The obtained data can be used to personalize the TMS method in medicine.
format Article
id doaj-art-85d65efbadd24f05ab38db536e8fd9e3
institution DOAJ
issn 2522-9613
2524-2822
language Russian
publishDate 2022-09-01
publisher Ministry of Education of the Republic of Belarus, Establishment The Main Information and Analytical Center
record_format Article
series Цифровая трансформация
spelling doaj-art-85d65efbadd24f05ab38db536e8fd9e32025-08-20T03:23:15ZrusMinistry of Education of the Republic of Belarus, Establishment The Main Information and Analytical CenterЦифровая трансформация2522-96132524-28222022-09-01282616910.35596/2522-9613-2022-28-2-61-69272Anthropomorphic Brain Models Based on Magnetic Resonance ImagingV. V. Kabachek0N. S. Davydova1M. M. Mezhennaya2M. V. Davydov3Belarusian State University of Informatics and RadioelectronicsBelarusian State University of Informatics and RadioelectronicsBelarusian State University of Informatics and RadioelectronicsBelarusian State University of Informatics and RadioelectronicsThe article is devoted to the creation of a method for generating anthropomorphic brain models based on magnetic resonance imaging. The selection of the magnetic field amplitude for transcranial magnetic stimulation (TMS) is carried out through modeling using the finite element method (FEM). These FEM models graphically demonstrate information on the distribution of the magnetic field and, therefore, on the occurring neurophysiological and behavioral changes based on the dose of the TMS, the specific resistance of the head tissue and its anatomy. Thus, these models are an integral tool used to design, configure, and program TMS devices, as well as to study parameters such as magnetic field strength and tension. A distinctive aspect of this work is the quality of the resulting head models. When creating the calculated FEM models, an MRI image of the head was used to perform segmentation in the FreeSurfer environment. Next, the image was converted in the Matlab environment. After the assembly of the head model in COMSOL Multiphysics, the TMS was simulated. The results of the transformations is a head model made in the form of a three-dimensional grid, which is suitable for modeling. The obtained data can be used to personalize the TMS method in medicine.https://dt.bsuir.by/jour/article/view/679modelingtranscranial magnetic stimulationfinite elements methodanatomical modelpersonalization
spellingShingle V. V. Kabachek
N. S. Davydova
M. M. Mezhennaya
M. V. Davydov
Anthropomorphic Brain Models Based on Magnetic Resonance Imaging
Цифровая трансформация
modeling
transcranial magnetic stimulation
finite elements method
anatomical model
personalization
title Anthropomorphic Brain Models Based on Magnetic Resonance Imaging
title_full Anthropomorphic Brain Models Based on Magnetic Resonance Imaging
title_fullStr Anthropomorphic Brain Models Based on Magnetic Resonance Imaging
title_full_unstemmed Anthropomorphic Brain Models Based on Magnetic Resonance Imaging
title_short Anthropomorphic Brain Models Based on Magnetic Resonance Imaging
title_sort anthropomorphic brain models based on magnetic resonance imaging
topic modeling
transcranial magnetic stimulation
finite elements method
anatomical model
personalization
url https://dt.bsuir.by/jour/article/view/679
work_keys_str_mv AT vvkabachek anthropomorphicbrainmodelsbasedonmagneticresonanceimaging
AT nsdavydova anthropomorphicbrainmodelsbasedonmagneticresonanceimaging
AT mmmezhennaya anthropomorphicbrainmodelsbasedonmagneticresonanceimaging
AT mvdavydov anthropomorphicbrainmodelsbasedonmagneticresonanceimaging