Mathematical modeling of the human heart and its function can expand our understanding of
various cardiac diseases, which remain the most common cause of death in the developed …

In this paper, we propose a full computational framework to simulate the hemodynamics in
the aorta including the valve. Closed and open valve surfaces, as well as the lumen aorta …

In this work, we study the blood flow dynamics in idealized left ventricles (LV) of the human
heart modelled by the Navier–Stokes equations with mixed time varying boundary …

In this paper, we study the blood flow dynamics in a three-dimensional (3D) idealized left
ventricle of the human heart whose deformation is driven by muscle contraction and …

Cardiac valves simulation is one of the most complex tasks in cardiovascular modeling.
Fluid–structure interaction is not only highly computationally demanding but also requires …

Abstract Each year, approximately 300,000 heart valve repair or replacement procedures
are performed worldwide, including approximately 70,000 aortic valve replacement …

In this paper, we propose a variational data assimilation approach for including data
measurements in the simulation of the mobility of fluorescently labeled molecules in the …

We present a finite element methodology tailored for the simulation of pulsatile flow in the
full aorta and sinus of Valsalva interacting with highly deformable thin leaflets. We describe …

We present a consistent approach that allows to solve challenging general nonlinear fluid‐
structure‐contact interaction (FSCI) problems. The underlying formulation includes both “no …

Abstract A 1‐dimensional (1D)‐3‐dimensional (3D) multiscale model for the human vascular
network was proposed by combining a low‐fidelity 1D modeling of blood circulation to …