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Gernot Plank : Publications

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[1]

Modeling Cardiac Defibrillation

G. Plank Trayanova N.A.

In J. Zipes D. Jalife, editor, Cardiac Electrophysiology: From Cell to Bedside. 2009.

[2]

Bidomain Model of Defibrillation

G. Plank Trayanova N.A.

In P.J. Tchou Efimov I.R. M.W. Kroll, editor, Cardiac Bioelectric Therapy.. Pages 85−110. 2009.

[3]

Near−real−time simulations of biolelectric activity in small mammalian hearts using graphical processing units.

Plank G. Vigmond EJ Boyle PM Leon L

2009.

[4]

Purkinje−mediated Effects in the Response of Quiescent Ventricles to Defibrillation Shocks.

Vigmond EJ. Boyle PM Deo M Plank G

In Ann Biomed Eng.. Vol. [Epub ahead of print]. 2009.

[5]

Development of an anatomically detailed MRI−derived rabbit ventricular model and assessment of its impact on simulations of electrophysiological function.

Kohl P. Bishop MJ Plank G Burton RA Schneider JE Gavaghan DJ Grau V

In Am J Physiol Heart Circ Physiol.. Vol. 298. No. 2. Pages H699−718. 2009.

[6]

Image−Based models of cardiac structure in health and disease

N.A. Trayanova Vadakkumpadan F. H. Arevalo A.J. Prassl J. Chen F. Kickinger G. Plank

In Systems Biology in Medicine. 2009.

[7]

Arrhythmogenic mechanisms of the Purkinje system during electric shocks: a modeling study

E.J. Vigmond Deo M. P. Boyle G. Plank

In Heart Rhythm‚ ePub ahead of print. 2009.

[8]

Numerical solution for optimal control of monodomain equations in cardiac electrophysiology

K. Kunisch Chamakuri N. G. Plank

In Computational Optimization and Applications. 2009.

[9]

Solving the coupled system improves computational efficiency of the bidomain equations

J. Whiteley Southern J. G. Plank E.J. Vigmond

In IEEE Transactions on Biomedical Engineering. 2009.

[10]

Generation of histo−anatomically representative models of the individual heart: tools and application

P. Kohl Plank G. R.A.B. Burton P. Hales M. Bishop T. Mansoori M.O. Bernabeu A. Garny A.J. Prassl C. Bollensdorff F. Mason F. Mahmood B. Rodriguez V. Grau J.E. Schneider D. Gavaghan

In Phil. Trans. A. 2009.

[11]

Towards Predictive Modeling of the Electrophysiology of the Heart

Trayanova NA. Vigmond E Vadakkumpadan F Gurev V Arevalo H Deo M Plank G

In Exp. Physiol.. 2009.

[12]

Image−Based Models of Cardiac Structure with Applications in Arrhythmia and Defibrillation Studies.

N.A. Trayanova Vadakkumpadan F. L.J. Rantner B. Tice P. Boyle A.J. Prassl E.J. Vigmond G. Plank

In J. Electrocardiol.. 2009.

[13]

Generation of histo−anatomically representative models of the individual heart: tools and application.

P. Kohl. Plank G. R.A.B. Burton P. Hales M. Bishop T. Mansoori M. Bernabeu A. Garny A.J. Prassl C. Bollensdorff F. Mason F. Mahmood B. Rodriguez V. Grau J.E. Schneider D. Gavaghan

In Philos Transact A Math Phys Eng Sci.. 2009.

[14]

Feedback Control of Resonant Drift in a Bidomain Model.

V.N. Biktashev Morgan S. G. Plank I.V. Biktasheva

In Biophysical Journal. 2009.

[15]

Automatically generated‚ anatomically accurate Meshes for the Cardiac Bidomain Equations.

G. Plank A. Prassl F. Kickinger H. Ahammer E. Hofer J.E. Schneider E.J. Vigmond N.A. Trayanova

In IEEE Transactions on Biomedical Engineering. 2009.

[16]

Second order numerical solution for optimal control of monodomain model in cardiac electrophysiology.

G. Plank Chamakuri N. K. Kunisch

Pages 202−211. 2009.

[17]

A finite element formulation for atrial tissue monolayer.

G. Fischer Wieser L. H. RIchter B. Pfeifer G. Plank B. Tilg

2008.

[18]

Solvers for the Cardiac Bidomain Equations.

G. Plank. Vigmond E.J. R. Weber dos Santos S. Bauer A.J. Prassl M. Deo

2008.

[19]

From mitochondtrial ionic channels to arrhythmias in the heart: computational techniques to bridge the spatio−temporal scales.

G. Plank J. Greenstein L. Zhou S. Cortassa R. Winslow B. O?Rourke and N. Trayanova.

In Philos Transact A Math Phys Eng Sci.. Vol. 366. Pages 3381−409. 2008.

[20]

Evaluating Intramural Virtual Electrodes in the Myocardial Wedge Preparation: Simulations of Experimental Conditions

N.A. Trayanoa G. Plank A.J. Prassl E. Hofer

In Biophysical Journal. Vol. 94. Pages 1904−1915. 2008.

[21]

A Hilbert−order multiplication scheme for unstructured sparse matrices

G. Plank Haase G. M. Liebmann

2007.

[22]

Algebraic multigrid preconditioner for the cardiac bidomain model

G. Haase. Plank G. M. Liebmann R. Weber dos Santos E.J. Vigmond

2007.

[23]

Reduced order preconditioning for large linear systems.

E.J. vigmond Deo M. G. Plank

In IEEE Transactions on Biomedical Engineering. Vol. 54. Pages 938−942. 2007.

[24]

A novel floating sensor array to detect electric nearfields of beating heart preparations

G. Plank Hofer E. F. Kepplinger T. THurner T. Wiener

2006.

[25]

What have we learned from mathematical models of defibrillation and postshock arrhythmogenesis? Application of bidomain simulations

B. Rodriguez Trayanova N.A. G. Plank

2006.

[26]

3−dimensional models of individual cardiac histo−anatomy: tools and challenges

P. Kohl Burton A.B.R. G. Plank J. Schneider V. Grau H. Ahammer S.L. Keeling J.L. Lee N. Smith N.A. Trayanova

2006.

[27]

Defibrillation depends on conductivity fluctuations and the degree of disorganization in reentry patterns

E.J. Vigmond Plank G. L.J. Leon S. Kimber

2005.

[28]

Shock energy necessary for successful defibrillation depends on the degree of disorganization of reentrant activation pattern.

L.J. Leon Plank G. E.J. Vigmond

2004.

[29]

Parallel multigrid preconditioner for the cardiac bidomain model

E.J. Vigmond Weber dos Santos R. G. Plank S. Bauer

2004.

[30]

Preconditioning techniques for the bidomain equations

E.J. Vigmond Weber dos Santos R. G. Plank S. Bauer

2004.

[31]

The use of cardiac near−field measurements to determine activation times.

E. Hofer G. Plank

2003.

[32]

Cardiac near−field morphology during conduction around a microscopic obstacle − a computer simulation study

E. Hofer G. Plank E.J. Vigmond L.J. Leon

2003.

[33]

Computational tools for modeling electrical activity in cardiac tissue

L.J. Leon Vigmond E.J. M. Hughes G. Plank

2003.

[34]

Model study of vector−loop morphology during electrical mapping of microscopic conduction in cardiac tissue.

E. Hofer G. Plank

2000.

[35]

Comparison between the role of discontinuities in cardiac conduction and in a one−dimensional hardware model

V. Perez−Munuzuri de Castro M. E. Hofer A.P. Munuzuri M. Gomez−Gesteira G. Plank I. Schafferhofer

1998.

[36]

A new real−time mapping system to detect microscopic cardiac excitation patterns.

G. Plank Mohr G. E. Hofer

1998.