We developed a whole-circulation computational model by integrating a transmission line (TL) model describing vascular wave transmission into the established CircAdapt platform of whole-heart mechanics. In the present paper, we verify the numerical framework of our TL model by benchmark comparison to a previously validated pulse wave propagation (PWP) model. Additionally, we showcase the integrated CircAdapt-TL model, which now includes the heart as well as extensive arterial and venous trees with terminal impedances. We present CircAdapt-TL haemodynamics simulations of: 1) a systemic normotensive situation and 2) a systemic hypertensive situation. In the TL-PWP benchmark comparison we found good agreement regarding pressure and flow wavefo...
The beating heart creates blood pressure and flow pulsations that propagate as waves through the art...
The beating heart creates blood pressure and flow pulsations that propagate as waves through the art...
The beating heart creates blood pressure and flow pulsations that propagate as waves through the art...
We developed a whole-circulation computational model by integrating a transmission line (TL) model d...
We developed a whole-circulation computational model by integrating a transmission line (TL) model d...
We developed a whole-circulation computational model by integrating a transmission line (TL) model d...
\u3cp\u3eWe developed a whole-circulation computational model by integrating a transmission line (TL...
We developed a whole-circulation computational model by integrating a transmission line (TL) model d...
We developed a whole-circulation computational model by integrating a transmission line (TL) model d...
We developed a whole-circulation computational model by integrating a transmission line (TL) model d...
We developed a whole-circulation computational model by integrating a transmission line (TL) model d...
One-dimensional (1D) modeling is a powerful tool for studying haemodynamics; however, a comprehensiv...
Aortic input impedance relates pressure to flow at the aortic entrance distal to the aortic valve. W...
Aortic input impedance relates pressure to flow at the aortic entrance distal to the aortic valve. W...
Key Words: pulse wave propagation, arterial system, computational modelling Understanding the physi...
The beating heart creates blood pressure and flow pulsations that propagate as waves through the art...
The beating heart creates blood pressure and flow pulsations that propagate as waves through the art...
The beating heart creates blood pressure and flow pulsations that propagate as waves through the art...
We developed a whole-circulation computational model by integrating a transmission line (TL) model d...
We developed a whole-circulation computational model by integrating a transmission line (TL) model d...
We developed a whole-circulation computational model by integrating a transmission line (TL) model d...
\u3cp\u3eWe developed a whole-circulation computational model by integrating a transmission line (TL...
We developed a whole-circulation computational model by integrating a transmission line (TL) model d...
We developed a whole-circulation computational model by integrating a transmission line (TL) model d...
We developed a whole-circulation computational model by integrating a transmission line (TL) model d...
We developed a whole-circulation computational model by integrating a transmission line (TL) model d...
One-dimensional (1D) modeling is a powerful tool for studying haemodynamics; however, a comprehensiv...
Aortic input impedance relates pressure to flow at the aortic entrance distal to the aortic valve. W...
Aortic input impedance relates pressure to flow at the aortic entrance distal to the aortic valve. W...
Key Words: pulse wave propagation, arterial system, computational modelling Understanding the physi...
The beating heart creates blood pressure and flow pulsations that propagate as waves through the art...
The beating heart creates blood pressure and flow pulsations that propagate as waves through the art...
The beating heart creates blood pressure and flow pulsations that propagate as waves through the art...