Deep-Brain Transcranial Stimulation: A Novel Approach for High 3-D Resolution

This research was performed to investigate the ability of transcranial magnetic stimulation (TMS) to evoke the deeper areas of the brain with a minimal impact on non-target areas. To reach this goal, a novel core design in a semi-hexagonal shape with the arrow tips was utilized to collect a magnetic...

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Main Authors: Majid Memarian Sorkhabi, Javad Frounchi, Parviz Shahabi, Hadi Veladi
Format: Article
Language:English
Published: IEEE 2017-01-01
Series:IEEE Access
Subjects:
Online Access:https://ieeexplore.ieee.org/document/7862782/
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spelling doaj-f7103cf6455b43ec961da9b5abdf1cd82021-03-29T20:01:36ZengIEEEIEEE Access2169-35362017-01-0153157317110.1109/ACCESS.2017.26725667862782Deep-Brain Transcranial Stimulation: A Novel Approach for High 3-D ResolutionMajid Memarian Sorkhabi0https://orcid.org/0000-0002-4433-9335Javad Frounchi1Parviz Shahabi2Hadi Veladi3Faculty of Electrical and Computer Engineering, University of Tabriz, Tabriz, IranFaculty of Electrical and Computer Engineering, University of Tabriz, Tabriz, IranNeuroscience Research Center, Tabriz University of Medical Sciences, Tabriz, IranFaculty of Electrical and Computer Engineering, University of Tabriz, Tabriz, IranThis research was performed to investigate the ability of transcranial magnetic stimulation (TMS) to evoke the deeper areas of the brain with a minimal impact on non-target areas. To reach this goal, a novel core design in a semi-hexagonal shape with the arrow tips was utilized to collect a magnetic field in the selected target region. In addition, a new circuit topology was presented to generate stimulative pulses with optimal amplitude, frequency, and duration. For the first time in this research voxel resolution was proposed and exploited to evaluate the TMS system accuracy. To study the induced potential in different parts of the brain and its related resolution, a custom-made recording electrode and a micromanipulator were employed. They provided the linear movement in all Rostral/Caudal, Dorsal/Ventral, and Medial/Lateral orientations. The ARM cortex-M microcontroller managed the stimulation and recording sessions. After performing the finite element analysis, the researcher developed a prototype of the proposed system and tested it in vivo on the intact WAG/Raj rat. The results showed that spatial resolution could be significantly enhanced by employing the proposed TMS concept. The outcome of animal trials have raised some hopes to apply the knowledge of this article in the clinical contexts.https://ieeexplore.ieee.org/document/7862782/Transcranial magnetic stimulationtarget selectivitystimulation coil/core shapemeasuring voxel resolution
collection DOAJ
language English
format Article
sources DOAJ
author Majid Memarian Sorkhabi
Javad Frounchi
Parviz Shahabi
Hadi Veladi
spellingShingle Majid Memarian Sorkhabi
Javad Frounchi
Parviz Shahabi
Hadi Veladi
Deep-Brain Transcranial Stimulation: A Novel Approach for High 3-D Resolution
IEEE Access
Transcranial magnetic stimulation
target selectivity
stimulation coil/core shape
measuring voxel resolution
author_facet Majid Memarian Sorkhabi
Javad Frounchi
Parviz Shahabi
Hadi Veladi
author_sort Majid Memarian Sorkhabi
title Deep-Brain Transcranial Stimulation: A Novel Approach for High 3-D Resolution
title_short Deep-Brain Transcranial Stimulation: A Novel Approach for High 3-D Resolution
title_full Deep-Brain Transcranial Stimulation: A Novel Approach for High 3-D Resolution
title_fullStr Deep-Brain Transcranial Stimulation: A Novel Approach for High 3-D Resolution
title_full_unstemmed Deep-Brain Transcranial Stimulation: A Novel Approach for High 3-D Resolution
title_sort deep-brain transcranial stimulation: a novel approach for high 3-d resolution
publisher IEEE
series IEEE Access
issn 2169-3536
publishDate 2017-01-01
description This research was performed to investigate the ability of transcranial magnetic stimulation (TMS) to evoke the deeper areas of the brain with a minimal impact on non-target areas. To reach this goal, a novel core design in a semi-hexagonal shape with the arrow tips was utilized to collect a magnetic field in the selected target region. In addition, a new circuit topology was presented to generate stimulative pulses with optimal amplitude, frequency, and duration. For the first time in this research voxel resolution was proposed and exploited to evaluate the TMS system accuracy. To study the induced potential in different parts of the brain and its related resolution, a custom-made recording electrode and a micromanipulator were employed. They provided the linear movement in all Rostral/Caudal, Dorsal/Ventral, and Medial/Lateral orientations. The ARM cortex-M microcontroller managed the stimulation and recording sessions. After performing the finite element analysis, the researcher developed a prototype of the proposed system and tested it in vivo on the intact WAG/Raj rat. The results showed that spatial resolution could be significantly enhanced by employing the proposed TMS concept. The outcome of animal trials have raised some hopes to apply the knowledge of this article in the clinical contexts.
topic Transcranial magnetic stimulation
target selectivity
stimulation coil/core shape
measuring voxel resolution
url https://ieeexplore.ieee.org/document/7862782/
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AT javadfrounchi deepbraintranscranialstimulationanovelapproachforhigh3dresolution
AT parvizshahabi deepbraintranscranialstimulationanovelapproachforhigh3dresolution
AT hadiveladi deepbraintranscranialstimulationanovelapproachforhigh3dresolution
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