We present a model for mechanical activation of the cardiac tissue depending on the evolution of the transmembrane electrical potential and certain gating/ionic variables that are available in most of electrophysiological descriptions of the cardiac membrane. The basic idea consists in adding to the chosen ionic model one ordinary differential equation for the kinetics of the mechanical activation function. A relevant example illustrates the desired properties of the proposed model, such as delayed muscle contraction and correct magnitude of the muscle fibers' shortening
We present an electromechanical model of myocardium tissue coupling a modified FitzHugh-Nagumo type ...
We present an electromechanical model of myocardium tissue, coupling finite elasticity, endowed wit...
The human heart is an organ of high complexity and hence, very challenging to simulate. To calculate...
This contribution addresses the mathematical modeling and numerical approximation of the excitation-...
A model for the electromechanical activity of the heart tissue is introduced. We present a summary o...
The complex phenomena underlying mechanical contraction of cardiac cells and their influence in the ...
AbstractWe develop a point model of the cardiac myofilament (MF) to simulate a wide variety of exper...
The coupling between cardiac mechanics and electric signaling is addressed in a nonstandard framewor...
In this paper we introduce a new mathematical model for the active contraction of cardiac muscle, fe...
We propose a finite element approximation of a system of partial differential equations describing t...
We present and discuss an electromechanical model of a cardiac-type excitable tissue that accounts ...
In this Master thesis we aim at studying some physiological and computational aspects of the excitat...
We present an electromechanical model of myocardium tissue coupling a modified FitzHugh-Nagumo type ...
We present an electromechanical model of myocardium tissue, coupling finite elasticity, endowed wit...
The human heart is an organ of high complexity and hence, very challenging to simulate. To calculate...
This contribution addresses the mathematical modeling and numerical approximation of the excitation-...
A model for the electromechanical activity of the heart tissue is introduced. We present a summary o...
The complex phenomena underlying mechanical contraction of cardiac cells and their influence in the ...
AbstractWe develop a point model of the cardiac myofilament (MF) to simulate a wide variety of exper...
The coupling between cardiac mechanics and electric signaling is addressed in a nonstandard framewor...
In this paper we introduce a new mathematical model for the active contraction of cardiac muscle, fe...
We propose a finite element approximation of a system of partial differential equations describing t...
We present and discuss an electromechanical model of a cardiac-type excitable tissue that accounts ...
In this Master thesis we aim at studying some physiological and computational aspects of the excitat...
We present an electromechanical model of myocardium tissue coupling a modified FitzHugh-Nagumo type ...
We present an electromechanical model of myocardium tissue, coupling finite elasticity, endowed wit...
The human heart is an organ of high complexity and hence, very challenging to simulate. To calculate...