Current state-of-the-art imaging techniques can provide quantitative information to
characterize ventricular function within the limits of the spatiotemporal resolution achievable …

The proliferation of four-dimensional imaging technologies, increasing computational
speeds, improved simulation algorithms, and the widespread availability of powerful …

The clinical and bioengineering arenas are experiencing tremendous technological
progress. Imaging technologies yield images with continuously improved time-and space …

Personalized biophysical modeling of the heart is a useful approach for noninvasively
analyzing and predicting in vivo cardiac mechanics. Three main developments support this …

Heart disease is the leading cause of death in the world. Therefore, numerous studies are
undertaken to identify indicators which can be applied to discover cardiac dysfunctions at an …

Computer modelling of the heart has emerged over the past decade as a powerful technique
to explore the cardiovascular pathophysiology and inform clinical diagnosis. The current …

Patient-specific computational fluid dynamics (CFD) modelling of the left ventricle (LV) is a
promising technique for the visualisation of ventricular flow patterns throughout a cardiac …

The simulation of cardiac blood flow using patient-specific geometries can help for the
diagnosis and treatment of cardiac diseases. Current patient-specific cardiac flow …

The combination of medical imaging with computational fluid dynamics (CFD) has enabled
the study of 3-D blood flow on a patient-specific level. However, with models based on gated …

With continuous advancements in four-dimensional medical imaging technologies,
increasing computational speeds, and widespread availability of high performance …