Anisotropic mesh adaptivity for cardiac electrophysiology

Anisotropic mesh adaptivity for cardiac electrophysiology

The simulation of cardiac electrophysiology requires small time steps and a fine mesh in order to resolve very sharp, but highly localized, wavefronts. The use of very high resolution meshes containing large numbers of nodes results in a high computational cost, both in terms of CPU hours and memory...

Descripció completa

Dades bibliogràfiques
Autors principals:	Southern, J, Gorman, G, Piggott, MD, Farrell, P, Bernabeu, M, Pitt-Francis, J
Format:	Journal article
Idioma:	English
Publicat:	2010

Ítems similars

Simulating cardiac electrophysiology using anisotropic mesh adaptivity
per: Southern, J, et al.
Publicat: (2010)

Parallel anisotropic mesh adaptivity with dynamic load balancing for cardiac electrophysiology
per: Southern, J, et al.
Publicat: (2012)

Simulating cardiac electrophysiology using anisotropic mesh adaptivity
per: Bernabeu, J
Publicat: (2010)

Hybrid OpenMP/MPI Anisotropic Mesh Smoothing
per: Gorman, G, et al.
Publicat: (2012)

Anisotropic mesh adaptivity for multi-scale ocean modelling
per: Piggott, MD, et al.
Publicat: (2009)

Chaste: a case study of parallelisation of an open source finite−element solver with applications to computational cardiac electrophysiology simulation
per: Bernabeu, M, et al.
Publicat: (2013)

Chaste: A case study of parallelisation of an open source finite-element solver with applications to computational cardiac electrophysiology simulation
per: Bernabeu, M, et al.
Publicat: (2014)

Simulation of Cardiac Electrophysiology on Next−Generation High−Performance Computers
per: Bordas, R, et al.
Publicat: (2009)

numerical guide to the solution of the bidomain equations of cardiac electrophysiology
per: Pathmanathan, P, et al.
Publicat: (2015)

A numerical guide to the solution of the bidomain equations of cardiac electrophysiology
per: Pathmanathan, P, et al.
Publicat: (2010)

A numerical guide to the solution of the bidomain equations of cardiac electrophysiology
per: Pathmanathan, P, et al.
Publicat: (2010)

Conservative interpolation between unstructured meshes via supermesh construction
per: Farrell, P, et al.
Publicat: (2009)

A numerical guide to the solution of the bi-domain equations of cardiac electrophysiology.
per: Pathmanathan, P, et al.
Publicat: (2010)

A POD reduced-order 4D-Var adaptive mesh ocean modelling approach
per: Fang, F, et al.
Publicat: (2009)

Automatically generated, anatomically accurate meshes for cardiac electrophysiology problems.
per: Prassl, A, et al.
Publicat: (2009)

Adjoint goal-based error norms for adaptive mesh ocean modelling
per: Power, P, et al.
Publicat: (2006)

The significant effect of the choice of ionic current integration method in cardiac electrophysiological simulations
per: Southern, P, et al.
Publicat: (2011)

A POD reduced order unstructured mesh ocean modelling method for moderate Reynolds number flows
per: Fang, F, et al.
Publicat: (2009)

Practical cardiac electrophysiology
per: Johnson Francis
Publicat: (2016-07-01)

Four-dimensional anisotropic mesh adaptation for spacetime numerical simulations
per: Caplan, Philip Claude Delhaye.
Publicat: (2019)

Application of stochastic phenomenological modelling to cell−to−cell and beat−to−beat electrophysiological variability in cardiac tissue
per: Walmsley, J, et al.
Publicat: (2015)

Scalable parallel preconditioners for an open source cardiac electrophysiology simulation package
per: Bernabeu, M, et al.
Publicat: (2011)

Scalable parallel preconditioners for an open source cardiac electrophysiology simulation package
per: Bernabeu, M, et al.
Publicat: (2011)

Modelling of fluid–solid interactions using an adaptive mesh fluid model coupled with a combined finite–discrete element model
per: Viré, A, et al.
Publicat: (2012)

An Optimization Framework for Anisotropic Simplex Mesh Adaptation: Application to Aerodynamic Flows
per: Yano, Masayuki, et al.
Publicat: (2015)

Application of stochastic phenomenological modelling to cell-to-cell and beat-to-beat electrophysiological variability in cardiac tissue
per: Walmsley, J, et al.
Publicat: (2014)

Multimesh anisotropic adaptivity for the Boltzmann transport equation
per: Baker, C, et al.
Publicat: (2013)

Three-dimensional unstructured mesh ocean modelling
per: Pain, C, et al.
Publicat: (2005)

Strength of anisotropic nickel-mesh composite materials
per: Rudnitsky, N. P., et al.
Publicat: (2008-01-01)

The Cardiac Electrophysiology Web Lab
per: Cooper, J, et al.
Publicat: (2016)

Cardiac Electrophysiology
per: Yanggan Wang, et al.
Publicat: (2013-01-01)

Cell-specific cardiac electrophysiology models.
per: Willemijn Groenendaal, et al.
Publicat: (2015-04-01)

Computational modelling of cardiac electrophysiology: Explanation of the variability of results from different numerical solvers
per: Pathmanathan, P, et al.
Publicat: (2012)

Computational modelling of cardiac electrophysiology: explanation of the variability of results from different numerical solvers.
per: Pathmanathan, P, et al.
Publicat: (2012)

3D Parallel Anisotropic Unsteady Mesh Adaptation for the High-Fidelity Prediction of Bubble Motion
per: Menier Victorien
Publicat: (2015-03-01)

A novel monolithic Lagrangian approach for modelling crack propagation using anisotropic mesh adaptation
per: Karim Hitti, et al.
Publicat: (2018-03-01)

An optimization framework for adaptive higher-order discretizations of partial differential equations on anisotropic simplex meshes
per: Yano, Masayuki, Ph. D. Massachusetts Institute of Technology
Publicat: (2013)

Goal-oriented error estimation and mesh adaptation for shallow water modelling
per: Joseph G. Wallwork, et al.
Publicat: (2020-05-01)

Multigrid fourier analysis on semi‐structured anisotropic meshes for vector problems
per: Francisco J. Gaspar, et al.
Publicat: (2010-02-01)

Challenging cardiac electrophysiology
per: Ruben Coronel
Publicat: (2010-05-01)