Recent developments in cardiac simulation have rendered the heart the most highly
integrated example of a virtual organ. We are on the brink of a revolution in cardiac …

Recent advances in biotechnology and the availability of ever more powerful computers
have led to the formulation of increasingly complex models at all levels of biology. One of the …

In this work, we present a fully coupled fluid‐electro‐mechanical model of a 50th percentile
human heart. The model is implemented on Alya, the BSC multi‐physics parallel code …

This manuscript is concerned with a novel, unified finite element approach to fully coupled
cardiac electromechanics. The intrinsic coupling arises from both the excitation-induced …

In this study we present a novel, robust method to couple finite element (FE) models of
cardiac mechanics to systems models of the circulation (CIRC), independent of cardiac …

Current multi-scale computational models of ventricular electromechanics describe the full
process of cardiac contraction on both the micro-and macro-scales including: the …

Cutting-Edge Techniques to Better Analyze and Predict Complex Physical Phenomena
Geometric Modeling and Mesh Generation from Scanned Images shows how to integrate …

The heart is a multiphysics and multiscale system that has driven the development of the
most sophisticated mathematical models at the frontiers of computational physiology and …

High-fidelity cardiac models using attribute-rich finite element based models have been
developed to a very mature stage. However, such finite-element based approaches remain …

Biomedical research frequently involves performing experiments and developing
hypotheses that link different scales of biological systems such as, for instance, the scales of …