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Abigail Swillens

Researcher at Ghent University

Publications -  90
Citations -  1758

Abigail Swillens is an academic researcher from Ghent University. The author has contributed to research in topics: Wave propagation & Doppler effect. The author has an hindex of 23, co-authored 90 publications receiving 1555 citations.

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Simultaneous quantification of flow and tissue velocities based on multi-angle plane wave imaging

TL;DR: Using the high ensemble vector Doppler technique, blood flow through stenoses and secondary flow patterns were better visualized than in ordinary color doppler, and the full velocity spectrum could be obtained retrospectively for arbitrary points in the image.
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Numerical Validation of a New Method to Assess Aortic Pulse Wave Velocity from a Single Recording of a Brachial Artery Waveform with an Occluding Cuff

TL;DR: Simulations question the working principle of the Arteriograph, and data indicate that the method picks up wave reflection phenomena confined to the brachial artery, and derived values of PWV rather reflect the stiffness of the Brachial arteries.
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Time-Varying Myocardial Stress and Systolic Pressure-Stress Relationship Role in Myocardial-Arterial Coupling in Hypertension

TL;DR: In the presence of normal LV ejection fraction, a midsystolic shift in the pressure-stress relationship protects cardiomyocytes against excessive late systolic stress (despite pressure augmentation associated with wave reflections), a coupling mechanism that may be altered in various disease states.
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Limitations and pitfalls of non-invasive measurement of arterial pressure wave reflections and pulse wave velocity

TL;DR: Some of the most widely applied methods to non-invasively assess pressure wave reflection (augmentation index) and arterial stiffness (pulse wave velocity) in clinical vascular research are revised.
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Ultrasound simulation of complex flow velocity fields based on computational fluid dynamics

TL;DR: The coupling of a computed flow field with an ultrasound model offers flexible control of flow and ultrasound imaging parameters, beneficial for improving and developing imaging algorithms.