Understanding the complex interplay between morphologic and hemodynamic features in
aortic dissection is critical for risk stratification and for the development of individualized …

The analysis of quantitative hemodynamics and luminal pressure may add valuable
information to aid treatment strategies and prognosis for aortic dissections. This work directly …

Objective: Computational hemodynamic studies of aortic dissections usually combine
patient-specific geometries with idealized or generic boundary conditions. In this study, we …

This study aimed to evaluate the effect of aortic wall compliance on intraluminal
hemodynamics within surgically repaired type A aortic dissection (TAAD). Fully coupled two …

Credible computational fluid dynamic (CFD) simulations of aortic dissection are challenging,
because the defining parallel flow channels—the true and the false lumen—are separated …

Introduction The blood flow and stresses in the flap in aortic dissections are not well
understood. Validated fluid–structure interaction (FSI) simulations of the interactions …

Background The management and prognosis of aortic dissection (AD) is often challenging
and the use of personalised computational models is being explored as a tool to improve …

Purpose We aimed to assess the potential of computational fluid dynamics simulation (CFD)
in detecting changes in pressure and flow velocity in response to morphological changes in …

The optimal treatment of Type-B aortic dissection (AD) is still a subject of debate, with up to
50% of the cases developing late-term complications requiring invasive intervention. A …

Type-B aortic dissection (TBAD) is a disease in which a tear develops in the intimal layer of
the descending aorta forming a true lumen and false lumen (FL). Because disease …