Numerical solution for PDE-constrained optimization problem in cardiac electrophysiology

In this paper, we present the numerical solution for the PDE-constrained optimization problem arises in cardiac electrophysiology. The monodomain model, which is a well-established model for simulating electrical behavior of the cardiac tissue, appears as the constraint in our problem. Our objective...

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Main Authors: Kin, Wei Ng, Ahmad, Rohanin
Format: Article
Published: Foundation of Computer Science 2012
Subjects:
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author Kin, Wei Ng
Ahmad, Rohanin
author_facet Kin, Wei Ng
Ahmad, Rohanin
author_sort Kin, Wei Ng
collection ePrints
description In this paper, we present the numerical solution for the PDE-constrained optimization problem arises in cardiac electrophysiology. The monodomain model, which is a well-established model for simulating electrical behavior of the cardiac tissue, appears as the constraint in our problem. Our objective is to search for the optimal applied current, which is able to dampen out the excitation wavefront of the transmembrane potential during defibrillation process. The modified Dai-Yuan nonlinear conjugate gradient method is employed for computing the optimal applied current, and our numerical results show that the excitation wavefront is successfully dampened out by the optimal applied current.
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spelling utm.eprints-311132019-03-31T08:23:16Z http://eprints.utm.my/31113/ Numerical solution for PDE-constrained optimization problem in cardiac electrophysiology Kin, Wei Ng Ahmad, Rohanin Q Science In this paper, we present the numerical solution for the PDE-constrained optimization problem arises in cardiac electrophysiology. The monodomain model, which is a well-established model for simulating electrical behavior of the cardiac tissue, appears as the constraint in our problem. Our objective is to search for the optimal applied current, which is able to dampen out the excitation wavefront of the transmembrane potential during defibrillation process. The modified Dai-Yuan nonlinear conjugate gradient method is employed for computing the optimal applied current, and our numerical results show that the excitation wavefront is successfully dampened out by the optimal applied current. Foundation of Computer Science 2012-04 Article PeerReviewed Kin, Wei Ng and Ahmad, Rohanin (2012) Numerical solution for PDE-constrained optimization problem in cardiac electrophysiology. International Journal of Computer Applications, 44 (12). pp. 11-15. ISSN 0975-8887 http://research.ijcaonline.org/volume44/number12/pxc3878655.pdf
spellingShingle Q Science
Kin, Wei Ng
Ahmad, Rohanin
Numerical solution for PDE-constrained optimization problem in cardiac electrophysiology
title Numerical solution for PDE-constrained optimization problem in cardiac electrophysiology
title_full Numerical solution for PDE-constrained optimization problem in cardiac electrophysiology
title_fullStr Numerical solution for PDE-constrained optimization problem in cardiac electrophysiology
title_full_unstemmed Numerical solution for PDE-constrained optimization problem in cardiac electrophysiology
title_short Numerical solution for PDE-constrained optimization problem in cardiac electrophysiology
title_sort numerical solution for pde constrained optimization problem in cardiac electrophysiology
topic Q Science
work_keys_str_mv AT kinweing numericalsolutionforpdeconstrainedoptimizationproblemincardiacelectrophysiology
AT ahmadrohanin numericalsolutionforpdeconstrainedoptimizationproblemincardiacelectrophysiology