in this paper, the effects of muscle active force and fiber orientation of the heart cells on the left ventricle ejection volume, wall thickening and stress distributions have been studied by finite element method (FEM). Three-dimensional left ventricle (LV) geometrical model was reconstructed from 65 transverse MRI tagging of a healthy human heart at the end of the diastole. Different muscle/fiber orientations were studied whereas muscle-active forces were directed along muscle fibers. Simulation results were very sensitive to the fiber orientation angles and the magnitude of the active force generated by LV-muscles during the isometric contraction and ejection phases. It was found that large magnitudes of active force almost lead to early...
In the design of patient specific mathematical models of cardiac mechanics, the lack of patient spec...
In the design of patient specific mathematical models of cardiac mechanics, the lack of patient spec...
In the design of patient specific mathematical models of cardiac mechanics, the lack of patient spec...
The dependence of local left ventricular (LV) mechanics on myocardial muscle fiber orientation was i...
The dependence of local left ventricular (LV) mechanics on myocardial muscle fiber orientation was i...
The dependence of local left ventricular (LV) mechanics on myocardial muscle fiber orientation was i...
The dependence of local left ventricular (LV) mechanics on myocardial muscle fiber orientation was i...
The dependence of local left ventricular (LV) mechanics on myocardial muscle fiber orientation was i...
The dependence of local left ventricular (LV) mechanics on myocardial muscle fiber orientation was i...
The objective of this research is to study the effects of myofiber volume fraction and fiber orienta...
Fibre orientation of myocardial wall plays a significant role in ventricular wall stress, which is a...
In the design of patient specific mathematical models of cardiac mechanics, the lack of patient spec...
Abstract-Mathematical models of left ventricular (LV) wall mechanics show that fiber stress depends ...
The strain of muscle fibers in the heart is likely to be distributed uniformly over the cardiac wall...
The strain of muscle fibers in the heart is likely to be distributed uniformly over the cardiac wall...
In the design of patient specific mathematical models of cardiac mechanics, the lack of patient spec...
In the design of patient specific mathematical models of cardiac mechanics, the lack of patient spec...
In the design of patient specific mathematical models of cardiac mechanics, the lack of patient spec...
The dependence of local left ventricular (LV) mechanics on myocardial muscle fiber orientation was i...
The dependence of local left ventricular (LV) mechanics on myocardial muscle fiber orientation was i...
The dependence of local left ventricular (LV) mechanics on myocardial muscle fiber orientation was i...
The dependence of local left ventricular (LV) mechanics on myocardial muscle fiber orientation was i...
The dependence of local left ventricular (LV) mechanics on myocardial muscle fiber orientation was i...
The dependence of local left ventricular (LV) mechanics on myocardial muscle fiber orientation was i...
The objective of this research is to study the effects of myofiber volume fraction and fiber orienta...
Fibre orientation of myocardial wall plays a significant role in ventricular wall stress, which is a...
In the design of patient specific mathematical models of cardiac mechanics, the lack of patient spec...
Abstract-Mathematical models of left ventricular (LV) wall mechanics show that fiber stress depends ...
The strain of muscle fibers in the heart is likely to be distributed uniformly over the cardiac wall...
The strain of muscle fibers in the heart is likely to be distributed uniformly over the cardiac wall...
In the design of patient specific mathematical models of cardiac mechanics, the lack of patient spec...
In the design of patient specific mathematical models of cardiac mechanics, the lack of patient spec...
In the design of patient specific mathematical models of cardiac mechanics, the lack of patient spec...