Geometrical techniques in biomedical modelling

In this thesis, a cellular automaton model of wave motion is developed with the goal of creating a model of seizure progression. We create a cellular automaton model of seizure progression based upon the model of wave motion. This is compared to existing models from the literature of both seizure pr...

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Main Author: Oshmyansky, Alexander
Published: University of Oxford 2013
Subjects:
Online Access:http://ethos.bl.uk/OrderDetails.do?uin=uk.bl.ethos.639731
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spelling ndltd-bl.uk-oai-ethos.bl.uk-6397312015-04-03T03:22:10ZGeometrical techniques in biomedical modellingOshmyansky, Alexander2013In this thesis, a cellular automaton model of wave motion is developed with the goal of creating a model of seizure progression. We create a cellular automaton model of seizure progression based upon the model of wave motion. This is compared to existing models from the literature of both seizure progression and neuronal dynamics: good correspondence is found. The model is then used to assist in determining the location of epileptic foci from which seizures originate based on data obtained from intra-operative optical coherence tomography data. A tool based on the cellular automaton model is created, which predicts the location of an epileptic focus based on optical coherence tomography data obtained during surgery. Together, these results suggest that the incorporation of geometrical techniques into mathematical models of seizure activity can provide new insights into underlying pathophysiology.616.85University of Oxfordhttp://ethos.bl.uk/OrderDetails.do?uin=uk.bl.ethos.639731Electronic Thesis or Dissertation
collection NDLTD
sources NDLTD
topic 616.85
spellingShingle 616.85
Oshmyansky, Alexander
Geometrical techniques in biomedical modelling
description In this thesis, a cellular automaton model of wave motion is developed with the goal of creating a model of seizure progression. We create a cellular automaton model of seizure progression based upon the model of wave motion. This is compared to existing models from the literature of both seizure progression and neuronal dynamics: good correspondence is found. The model is then used to assist in determining the location of epileptic foci from which seizures originate based on data obtained from intra-operative optical coherence tomography data. A tool based on the cellular automaton model is created, which predicts the location of an epileptic focus based on optical coherence tomography data obtained during surgery. Together, these results suggest that the incorporation of geometrical techniques into mathematical models of seizure activity can provide new insights into underlying pathophysiology.
author Oshmyansky, Alexander
author_facet Oshmyansky, Alexander
author_sort Oshmyansky, Alexander
title Geometrical techniques in biomedical modelling
title_short Geometrical techniques in biomedical modelling
title_full Geometrical techniques in biomedical modelling
title_fullStr Geometrical techniques in biomedical modelling
title_full_unstemmed Geometrical techniques in biomedical modelling
title_sort geometrical techniques in biomedical modelling
publisher University of Oxford
publishDate 2013
url http://ethos.bl.uk/OrderDetails.do?uin=uk.bl.ethos.639731
work_keys_str_mv AT oshmyanskyalexander geometricaltechniquesinbiomedicalmodelling
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