Ghent University Academic Bibliography

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Your filters: cql: author="Verhegghe, Benedict" or (type exact bookEditor and editor="Verhegghe, Benedict")

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- Journal Article
- A1
- open access
Physics of within-tissue wave propagation generated by pulse propagation in the carotid artery

Daniela Tommasin, Annette Caenen (UGent) , Benedict Verhegghe (UGent) , Steve Greenwald and Patrick Segers (UGent)

(2019) APPLIED SCIENCES-BASEL. 9(14).
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Modeling skin and soft tissue vibrations generated by pressure pulse propagation in the common

Daniela Tommasin, Annette Caenen (UGent) , Benedict Verhegghe (UGent) , Steve Greenwald and Patrick Segers (UGent)

(2019) CMBBE 2019 : 16th International Symposium on Computer Methods in Biomechanics and Biomedical Engineering and the 4th Conference on Imaging and Visualization : abstract book. p.60-60
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Modelling within-tissue wave propagation generated by the pressure pulse in the carotid artery

Daniela Tommasin, Benedict Verhegghe, Steve Greenwald and Patrick Segers (UGent)

(2018) p.1-1
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Physics of wave propagation underlying skin tissue motion generated by the pressure pulse in the carotid artery

Daniela Tommasin, Annette Caenen (UGent) , Benedict Verhegghe (UGent) and Patrick Segers (UGent)

(2018) p.1-1
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- Miscellaneous
Modelling within-tissue wave propagation generated by the pressure pulse in the carotid artery

Daniela Tommasin, Benedict Verhegghe, Steve Greenwald and Patrick Segers

(2018)
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Patient-specific biomechanical analysis of the stented and actively contracting esophagus

Mathias Peirlinck (UGent) , Nic Debusschere (UGent) , Francesco Iannaccone (UGent) , Peter Siersema, Benedict Verhegghe (UGent) , Patrick Segers (UGent) and Matthieu De Beule (UGent)

(2018)
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An in silico biomechanical analysis of the stent–esophagus interaction

Mathias Peirlinck (UGent) , Nic Debusschere (UGent) , Francesco Iannaccone (UGent) , Peter D. Siersema, Benedict Verhegghe (UGent) , Patrick Segers (UGent) and Matthieu De Beule (UGent)

(2018) BIOMECHANICS AND MODELING IN MECHANOBIOLOGY. 17(1). p.111-131
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- Journal Article
- A1
- open access
From 4D medical images (CT, MRI, and Ultrasound) to 4D structured mesh models of the left ventricular endocardium for patient-specific simulations

Federico Canè, Benedict Verhegghe (UGent) , Matthieu De Beule (UGent) , Philippe B. Bertrand, Rob J. Van der Geest, Patrick Segers (UGent) and Gianluca De Santis (UGent)

(2018) BIOMED RESEARCH INTERNATIONAL.
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- Conference Paper
- C3
- open access
From 4D medical images (CT, MRI, US) to 4D structured mesh models for patient-specific flow simulations in the human heart

Federico Canè, Benedict Verhegghe (UGent) , Matthieu De Beule (UGent) , Philippe B.Bertrand, Rob J. Van der Geest, Patrick Segers (UGent) and Gianluca De Santis (UGent)

(2017)
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- Conference Paper
- C3
- open access
Stenting the patient-specific, actively contacting and buckling esophagus: a finite element analysis

Mathias Peirlinck (UGent) , Nic Debusschere (UGent) , Francesco Iannaccone (UGent) , Peter D. Siersema, Benedict Verhegghe (UGent) , Patrick Segers (UGent) and Matthieu De Beule (UGent)

(2017) p.58-58

Academic Bibliography

Physics of within-tissue wave propagation generated by pulse propagation in the carotid artery

Modeling skin and soft tissue vibrations generated by pressure pulse propagation in the common

Modelling within-tissue wave propagation generated by the pressure pulse in the carotid artery

Physics of wave propagation underlying skin tissue motion generated by the pressure pulse in the carotid artery

Modelling within-tissue wave propagation generated by the pressure pulse in the carotid artery

Patient-specific biomechanical analysis of the stented and actively contracting esophagus

An in silico biomechanical analysis of the stent–esophagus interaction

From 4D medical images (CT, MRI, and Ultrasound) to 4D structured mesh models of the left ventricular endocardium for patient-specific simulations

From 4D medical images (CT, MRI, US) to 4D structured mesh models for patient-specific flow simulations in the human heart

Stenting the patient-specific, actively contacting and buckling esophagus: a finite element analysis

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