Strongly coupled cardiac electromechanical models can further our understanding of the relative importance of feedback mechanisms in the heart, but computational challenges currently remain a major obstacle, which limit their widespread use. To address this issue, we present a set of efficient computational methods including an efficient adaptive cell model integration scheme and a solution method for the monodomain equations that maintains high conduction velocity for time steps greater than 0.1 ms. We also present a novel method for increasing the efficiency of simulating electromechanical coupling, ..
Mathematical modeling of the human heart and its function can expand our understanding of various ca...
Effective numerical modeling of the cardiac electro-mechanics still presents open challenging proble...
In this study we present a novel computational model for unprecedented simulations of the whole card...
Strongly coupled cardiac electromechanical models can further our understanding of the relative impo...
This work focuses on the development of computational methods for the simulation of the propagation ...
We propose a novel, efficient finite element solution technique to simulate the electrochemical resp...
The spread of electrical excitation in the cardiac muscle and the subsequent contraction-relaxation ...
We present an application of high order hierarchical finite elements for the efficient approximation...
We present a fully coupled electromechanical model of the heart. The model integrates cardiac electr...
Mathematical modelling of the human heart and its function can expand our understanding of various c...
Computational models have huge potential to improve our understanding of the coupled biological, ele...
In this work we present a parallel solver for the numerical simulation of the cardiac electro-mechan...
We present a new model of human cardiac electromechanics for the left ventricle where electrophysiol...
In this paper, a highly parallel coupled electromechanical model of the heart is presented and asses...
In this paper, we present a high performance computational electromechanical model of the heart, cou...
Mathematical modeling of the human heart and its function can expand our understanding of various ca...
Effective numerical modeling of the cardiac electro-mechanics still presents open challenging proble...
In this study we present a novel computational model for unprecedented simulations of the whole card...
Strongly coupled cardiac electromechanical models can further our understanding of the relative impo...
This work focuses on the development of computational methods for the simulation of the propagation ...
We propose a novel, efficient finite element solution technique to simulate the electrochemical resp...
The spread of electrical excitation in the cardiac muscle and the subsequent contraction-relaxation ...
We present an application of high order hierarchical finite elements for the efficient approximation...
We present a fully coupled electromechanical model of the heart. The model integrates cardiac electr...
Mathematical modelling of the human heart and its function can expand our understanding of various c...
Computational models have huge potential to improve our understanding of the coupled biological, ele...
In this work we present a parallel solver for the numerical simulation of the cardiac electro-mechan...
We present a new model of human cardiac electromechanics for the left ventricle where electrophysiol...
In this paper, a highly parallel coupled electromechanical model of the heart is presented and asses...
In this paper, we present a high performance computational electromechanical model of the heart, cou...
Mathematical modeling of the human heart and its function can expand our understanding of various ca...
Effective numerical modeling of the cardiac electro-mechanics still presents open challenging proble...
In this study we present a novel computational model for unprecedented simulations of the whole card...