We propose a mathematical and numerical model for the simulation of the heart function that
couples cardiac electrophysiology, active and passive mechanics and hemodynamics, and …

Mathematical models of the human heart are evolving to become a cornerstone of precision
medicine and support clinical decision making by providing a powerful tool to understand …

In order to simulate the cardiac function for a patient‐specific geometry, the generation of the
computational mesh is crucially important. In practice, the input is typically a set of …

The pericardium affects cardiac motion by limiting epicardial displacement normal to the
surface. In computational studies, it is important for the model to replicate realistic motion, as …

We present a new computational model for the numerical simulation of blood flow in the
human left heart. To this aim, we use the Navier-Stokes equations in an Arbitrary Lagrangian …

We introduce a multiphysics and geometric multiscale computational model, suitable to
describe the hemodynamics of the whole human heart, driven by a four-chamber …

The increasing availability of extensive and accurate clinical data is rapidly shaping
cardiovascular care by improving the understanding of physiological and pathological …

Advanced cardiac modeling studies rely on the ability to generate and functionalize
personalized in silico models from tomographic multi-label image stacks. Eventually, this is …

Computer models of cardiac electro-mechanics (EM) show promise as an effective means
for the quantitative analysis of clinical data and, potentially, for predicting therapeutic …

Cardiac tissue engineering aims to generate in vivo-like functional tissue for the study of
cardiac development, homeostasis, and regeneration. Since the heart is composed of …