1. Nele Famaey, KU Leuven, Belgium ( simulation of growth and remodeling in blood vessels

2. Yiqian He, Dalian University of Technology, China (  simulation of healing in soft tissues, identification of chemoelastic material properties

3. Yue Mei, Dalian University of Technology, China ( resolution of inverse problems for soft tissue mechanics

4. Simona Celi, Fondazione G Monasterio, Italy ( biomechanics of thoracic aortic aneurysms

5. Jay Humphrey, Yale University, USA ( identification of regional variations in the material properties of blood vessels

6. Salvatore Pasta, University of Palermo, Italy ( mechanics of aortic thoracic aneurysms and dissections

7. Christian Hellmich, Technische Universität Wien, Austria ( homogenization in mechanobiology

8. Bethany Keenan, Sam Evans, Cardiff University, UK ( identification of the mechanical properties of soft tissues with the virtual fields method

9. Cristobal Bertoglio, University of Groningen, the Netherlands ( hemodynamics in thoracic aortic aneurysms

10. Tríona Lally, Trinity College Dublin ( imaging of the microstructure of ascending thoracic aortic aneurysms

11. Richard Lopata, Technical University of Eindhoven, The Netherlands ( in vivo identification of mechanical properties of aortic aneurysms

12. Jia Lu, University of Iowa, USA ( inverse problems in soft tissue biomechanics, machine learning

13. Jose Xavier, Universidade NOVA de Lisboa, Portugal ( mechanics of aortic aneurysms

14. Nuno Dourado, University of Minho, Portugal ( mechanical characterization of soft tissues

15. Anne Robertson, University of Pittsburg, USA ( identification of regional variations of mechanical properties in soft tissues using inflation tests and digital image correlation

16. Marco Evangelos Biancolini, University Tor Vergata Rome, Italy ( digital twin of aortic aneurysms

17. Umberto Morbiducci, Politecnico Torino, Italy ( fluid structure interactions in ascending thoracic aortic aneurysms

18. Sue Lessner, University of South Carolina, USA ( computational modelling of arterial dissections

19. Joris Dirckx, University of Antwerpen, Belgium ( application of the virtual fields method to identify the mechanical properties of the tympanic membrane

20. Vicky Nguyen, Johns Hopkins University, USA ( application of the virtual fields method to identify the mechanical properties of ocular tissues

21. Alberto Figueroa, University of Michigan Ann Arbor, USA ( computer fluid dynamics after endovascular aortic repair

22. Ender Finol, University of Texas San Antonio, USA ( stress analysis in aortic aneurysms

23. Alberto Aliseda, University of Washington, USA ( mechanobiology of atrial fibrillation

24. Gerhard Holzapfel, Technische Universität Graz, Austria (  biomechanics of aortic dissections

25. Pablo Ruiz, Loughborough University, UK ( interferometric techniques for microscale deformation full-field measurements in cell and tissue constructs

26. Coreu Neu, University of Colorado at Boulder, USA ( stiffness reconstruction in soft tissues and cells using the virtual fields method