Ghent University Academic Bibliography

Your filters: cql: author="Rega, Filip" or (type any "bookEditor issueEditor" and editor="Rega, Filip")

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- Journal Article
- A1
- open access
Hemodynamics and wall shear metrics in a pulmonary autograft : comparing a fluid-structure interaction and computational fluid dynamics approach

Amith Balasubramanya (UGent) , Lauranne Maes, Filip Rega, Valentina Mazzi, Umberto Morbiducci, Nele Famaey, Joris Degroote (UGent) and Patrick Segers (UGent)

(2024) COMPUTERS IN BIOLOGY AND MEDICINE. 176.
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Growth and remodeling in the pulmonary autograft : computational evaluation using kinematic growth models and constrained mixture theory

Julie Vastmans, Lauranne Maes, Mathias Peirlinck (UGent) , Emma Vanderveken, Filip Rega, Ellen Kuhl and Nele Famaey

(2022) INTERNATIONAL JOURNAL FOR NUMERICAL METHODS IN BIOMEDICAL ENGINEERING. 38(1).
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- Conference Paper
- C3
Fluid-structure interaction of simplified Ross procedure as stepping stone to a fluid-solid-growth framework of arterial tissues

Amith Balasubramanya (UGent) , Julie Vastmans, Lauranne Maes, Mathias Peirlinck, Piet Claus, Filip Rega, Joris Degroote (UGent) , Nele Famaey (UGent) and Patrick Segers (UGent)

(2022) WCB 2022, 9th World Congress of Biomechanics, Abstracts.
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- Conference Paper
- C3
Fluid-structure interaction simulation of simplified Ross procedure for assessment of in-vivo wall-shear stress dynamics

Amith Balasubramanya (UGent) , Julie Vastmans, Lauranne Maes, Mathias Peirlinck (UGent) , Piet Claus, Filip Rega, Joris Degroote (UGent) , Nele Famaey (UGent) and Patrick Segers (UGent)

(2022) 17th International symposium on Biomechanics in Vascular Biology and Cardiovascular Disease, Abstracts.

Academic Bibliography

Hemodynamics and wall shear metrics in a pulmonary autograft : comparing a fluid-structure interaction and computational fluid dynamics approach

Growth and remodeling in the pulmonary autograft : computational evaluation using kinematic growth models and constrained mixture theory

Fluid-structure interaction of simplified Ross procedure as stepping stone to a fluid-solid-growth framework of arterial tissues

Fluid-structure interaction simulation of simplified Ross procedure for assessment of in-vivo wall-shear stress dynamics

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