Modelling the mechanical response of elastin for arterial tissue. by Watton, P, Ventikos, Y, Holzapfel, G

Modelling the growth and stabilization of cerebral aneurysms. by Watton, P, Ventikos, Y, Holzapfel, G

Coupling the hemodynamic environment to the evolution of cerebral aneurysms: computational framework and numerical examples. by Watton, P, Raberger, N, Holzapfel, G, Ventikos, Y

COUPLING THE HAEMODYNAMIC ENVIRONMENT TO THE EVOLUTION OF CEREBRAL ANEURYSMS by Watton, P, Raberger, N, Holzapfel, G, Ventikos, Y, ASME

A family of hyperelastic models for human brain tissue by Mihai, L, Budday, S, Holzapfel, G, Kuhl, E, Goriely, A

Modelling evolution and the evolving mechanical environment of saccular cerebral aneurysms. by Watton, P, Selimovic, A, Raberger, N, Huang, P, Holzapfel, G, Ventikos, Y

A Computational Framework to Explore the Role of Pulsatile Haemodynamics on Cerebral Aneurysm Development for Patient-Specific Arterial Geometries by Selimovic, A, Penrose, J, Bogunovic, H, Villa-Uriol, M, Holzapfel, G, Ventikos, Y, Watton, P

Mechanics of the brain: perspectives, challenges, and opportunities by Goriely, A, Geers, M, Holzapfel, G, Jayamohan, J, Jérusalem, A, Sivaloganathan, S, Squier, W, van Dommelen, J, Waters, S, Kuhl, E

Perspectives on biological growth and remodeling. by Ambrosi, D, Ateshian, G, Arruda, E, Cowin, S, Dumais, J, Goriely, A, Holzapfel, G, Humphrey, J, Kemkemer, R, Kuhl, E, Olberding, J, Taber, L, Garikipati, K