Modeling and Simulations in Time Domain of a Stimulation Set-up for Cortical Applications

Electrical stimulation is used for example to treat neuronal disorders and depression with deep brain stimulation or transcranial electrical stimulation. Depending on the application, different electrodes are used and thus different electrical characteristics exist, which have to be handled by the s...

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Main Authors: Michael Schweigmann, Frank Kirchhoff, Klaus P. Koch
Format: Article
Language:English
Published: PAGEPress Publications 2016-06-01
Series:European Journal of Translational Myology
Subjects:
Online Access:http://www.pagepressjournals.org/index.php/bam/article/view/6017
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spelling doaj-9f4ff9a1276e434fb7eaebaf3127ad8a2020-11-24T23:06:25ZengPAGEPress PublicationsEuropean Journal of Translational Myology2037-74522037-74602016-06-0126210.4081/ejtm.2016.60174749Modeling and Simulations in Time Domain of a Stimulation Set-up for Cortical ApplicationsMichael Schweigmann0Frank Kirchhoff1Klaus P. Koch2Department of Electrical Engineering, Trier University of applied Sciences, Trier; Department of Molecular Physiology, School of Medicine, University of Saarland, HomburgDepartment of Molecular Physiology, School of Medicine, University of Saarland, HomburgDepartment of Electrical Engineering, Trier University of applied Sciences, Trier;Electrical stimulation is used for example to treat neuronal disorders and depression with deep brain stimulation or transcranial electrical stimulation. Depending on the application, different electrodes are used and thus different electrical characteristics exist, which have to be handled by the stimulator. Without a measuring device the user would have to rely on the stimulator being able to deliver the needed stimulation signal. Therefore, the objective of this paper is to present a method to increase the level of confidence with characterization and modelling of the electrical behavior by using the example of one channel of our stimulation device for experimental use. In several simulation studies with an electrode model with values in a typical range for cortical applications the influence of the load onto the stimulator and the possibility to pre-estimate measuring signals in complex networks are shown.http://www.pagepressjournals.org/index.php/bam/article/view/6017Cortical electrical stimulationStimulator characterizationStimulator modelElectrode modelOutput impedance
collection DOAJ
language English
format Article
sources DOAJ
author Michael Schweigmann
Frank Kirchhoff
Klaus P. Koch
spellingShingle Michael Schweigmann
Frank Kirchhoff
Klaus P. Koch
Modeling and Simulations in Time Domain of a Stimulation Set-up for Cortical Applications
European Journal of Translational Myology
Cortical electrical stimulation
Stimulator characterization
Stimulator model
Electrode model
Output impedance
author_facet Michael Schweigmann
Frank Kirchhoff
Klaus P. Koch
author_sort Michael Schweigmann
title Modeling and Simulations in Time Domain of a Stimulation Set-up for Cortical Applications
title_short Modeling and Simulations in Time Domain of a Stimulation Set-up for Cortical Applications
title_full Modeling and Simulations in Time Domain of a Stimulation Set-up for Cortical Applications
title_fullStr Modeling and Simulations in Time Domain of a Stimulation Set-up for Cortical Applications
title_full_unstemmed Modeling and Simulations in Time Domain of a Stimulation Set-up for Cortical Applications
title_sort modeling and simulations in time domain of a stimulation set-up for cortical applications
publisher PAGEPress Publications
series European Journal of Translational Myology
issn 2037-7452
2037-7460
publishDate 2016-06-01
description Electrical stimulation is used for example to treat neuronal disorders and depression with deep brain stimulation or transcranial electrical stimulation. Depending on the application, different electrodes are used and thus different electrical characteristics exist, which have to be handled by the stimulator. Without a measuring device the user would have to rely on the stimulator being able to deliver the needed stimulation signal. Therefore, the objective of this paper is to present a method to increase the level of confidence with characterization and modelling of the electrical behavior by using the example of one channel of our stimulation device for experimental use. In several simulation studies with an electrode model with values in a typical range for cortical applications the influence of the load onto the stimulator and the possibility to pre-estimate measuring signals in complex networks are shown.
topic Cortical electrical stimulation
Stimulator characterization
Stimulator model
Electrode model
Output impedance
url http://www.pagepressjournals.org/index.php/bam/article/view/6017
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AT frankkirchhoff modelingandsimulationsintimedomainofastimulationsetupforcorticalapplications
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