Antonio E. Forte; Stefano Galvan; Francesco Manieri; Ferdinando Rodriguez y Baena; Daniele Dini
Materials & Design, 112, 227-238 (2016)
https://doi.org/10.1016/j.matdes.2016.09.063
117 citations · 17 en 2025–2026
Les titres, résumés et légendes des publications sont présentés en anglais.
Synthetic phantoms are valuable tools for training, research and development in traditional and computer aided surgery, but complex organs, such as the brain, are difficult to replicate. Here, we present the development of a new composite hydrogel capable of mimicking the mechanical response of brain tissue under loading. Our results demonstrate how the combination of two different hydrogels, whose synergistic interaction results in a highly tunable blend, produces a hybrid material that closely matches the strongly dynamic and non-linear response of brain tissue. The new synthetic material is inexpensive, simple to prepare, and its constitutive components are both widely available and biocompatible. Our investigation of the properties of this engineered tissue, using both small scale testing and life-sized brain phantoms, shows that it is suitable for reproducing the brain shift phenomenon and brain tissue response to indentation and palpation.
Utilisation des équipements
Le Mach-1 caractérisait par compression et indentation des hydrogels composites développés comme fantômes de tissu cérébral.
Article et documents
Document
Consulter l’article (PDF)
Matériaux (2)

Matériau
Hydrogel

Matériau
Tissus mous (fantôme)
Configurations de test (2)
Configuration de test
Compression Non-Confinée
Configuration de test
