We present and discuss an electromechanical model of a cardiac-type excitable tissue that accounts for large deformations and involves a three-variables ionic dynamics. In particular, we exploit a novel point of view presented in [Nardinocchi, 2007] which introduces the notion of active deformation as opposed to that of active stress
Excitation-contraction coupling is the physiological process of converting an electrical stimulus in...
A model for the active deformation of cardiac tissue considering orthotropic constitutive laws is in...
This contribution presents a novel three-dimensional constitutive model which describes the orthotro...
We present an electromechanical model of myocardium tissue, coupling finite elasticity, endowed wit...
We propose a finite element approximation of a system of partial differential equations describing t...
Wepresentanelectromechanicalmodelofmyocardiumtissue,coupling finite elasticity, endowed with the cap...
When describing the full heart function, care must be taken in correctly coupling the different phys...
The coupling between cardiac mechanics and electric signaling is addressed in a nonstandard framewor...
A model for the electromechanical activity of the heart tissue is introduced. We present a summary o...
We present a model for mechanical activation of the cardiac tissue depending on the evolution of the...
We present an electromechanical model of myocardium tissue coupling a modified FitzHugh-Nagumo type ...
Excitation-contraction coupling is the physiological process of converting an electrical stimulus in...
This contribution addresses the mathematical modeling and numerical approximation of the excitation-...
A model for the active deformation of cardiac tissue considering orthotropic constitutive laws is in...
Excitation-contraction coupling is the physiological process of converting an electrical stimulus in...
A model for the active deformation of cardiac tissue considering orthotropic constitutive laws is in...
This contribution presents a novel three-dimensional constitutive model which describes the orthotro...
We present an electromechanical model of myocardium tissue, coupling finite elasticity, endowed wit...
We propose a finite element approximation of a system of partial differential equations describing t...
Wepresentanelectromechanicalmodelofmyocardiumtissue,coupling finite elasticity, endowed with the cap...
When describing the full heart function, care must be taken in correctly coupling the different phys...
The coupling between cardiac mechanics and electric signaling is addressed in a nonstandard framewor...
A model for the electromechanical activity of the heart tissue is introduced. We present a summary o...
We present a model for mechanical activation of the cardiac tissue depending on the evolution of the...
We present an electromechanical model of myocardium tissue coupling a modified FitzHugh-Nagumo type ...
Excitation-contraction coupling is the physiological process of converting an electrical stimulus in...
This contribution addresses the mathematical modeling and numerical approximation of the excitation-...
A model for the active deformation of cardiac tissue considering orthotropic constitutive laws is in...
Excitation-contraction coupling is the physiological process of converting an electrical stimulus in...
A model for the active deformation of cardiac tissue considering orthotropic constitutive laws is in...
This contribution presents a novel three-dimensional constitutive model which describes the orthotro...