Multistability property in cardiac ionic models of mammalian and human ventricular cells

The underlying mechanisms of irregular cardiac rhythms are still poorly understood. Many experimental and modeling studies are aimed at identifying factors which cause cardiac arrhythmias. However, a lack of understanding of heart rhythm dynamical properties makes it difficult to uncover precise mec...

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Main Authors: Surovyatkina, E, Noble, D, Gavaghan, D, Sher, A
Format: Journal article
Published: 2010
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author Surovyatkina, E
Noble, D
Gavaghan, D
Sher, A
author_facet Surovyatkina, E
Noble, D
Gavaghan, D
Sher, A
author_sort Surovyatkina, E
collection OXFORD
description The underlying mechanisms of irregular cardiac rhythms are still poorly understood. Many experimental and modeling studies are aimed at identifying factors which cause cardiac arrhythmias. However, a lack of understanding of heart rhythm dynamical properties makes it difficult to uncover precise mechanisms of electrical instabilities, and hence to predict the onset of heart rhythm disorders. We review and compare the existing methods of studying cardiac dynamics, including restitution protocol (S1-S2), dynam
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spelling oxford-uuid:7818eadf-e8e7-4921-b946-2fab798c09632022-03-26T20:28:26ZMultistability property in cardiac ionic models of mammalian and human ventricular cellsJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:7818eadf-e8e7-4921-b946-2fab798c0963Department of Computer Science2010Surovyatkina, ENoble, DGavaghan, DSher, AThe underlying mechanisms of irregular cardiac rhythms are still poorly understood. Many experimental and modeling studies are aimed at identifying factors which cause cardiac arrhythmias. However, a lack of understanding of heart rhythm dynamical properties makes it difficult to uncover precise mechanisms of electrical instabilities, and hence to predict the onset of heart rhythm disorders. We review and compare the existing methods of studying cardiac dynamics, including restitution protocol (S1-S2), dynam
spellingShingle Surovyatkina, E
Noble, D
Gavaghan, D
Sher, A
Multistability property in cardiac ionic models of mammalian and human ventricular cells
title Multistability property in cardiac ionic models of mammalian and human ventricular cells
title_full Multistability property in cardiac ionic models of mammalian and human ventricular cells
title_fullStr Multistability property in cardiac ionic models of mammalian and human ventricular cells
title_full_unstemmed Multistability property in cardiac ionic models of mammalian and human ventricular cells
title_short Multistability property in cardiac ionic models of mammalian and human ventricular cells
title_sort multistability property in cardiac ionic models of mammalian and human ventricular cells
work_keys_str_mv AT surovyatkinae multistabilitypropertyincardiacionicmodelsofmammalianandhumanventricularcells
AT nobled multistabilitypropertyincardiacionicmodelsofmammalianandhumanventricularcells
AT gavaghand multistabilitypropertyincardiacionicmodelsofmammalianandhumanventricularcells
AT shera multistabilitypropertyincardiacionicmodelsofmammalianandhumanventricularcells