Maria Parkes; Connor Myant; Daniele Dini; Philippa Cann
Tribology International.2015;89:9–18.. Issue September2015;exact first-online date unverified. Methods provenance:Parkes2014PhD chapter6, matched original publisher preview. Not an explicit reprint; final journal methods not independently read.
https://doi.org/10.1016/j.triboint.2014.11.024
36 citations · 3 en 2025–2026
Les titres, résumés et légendes des publications sont présentés en anglais.
Porous hydrogels were made from silk fibre as potential materials for cartilage repair. The aim was to develop materials which mimicked the tribological behaviour of cartilage, with controlled pore-sizes and optimised mechanical properties. Mechanical tests showed hydrogels had a comparable compressive modulus to cartilage, with stiffness improved by decreasing pore size. Under static loading and during shear hydrogels demonstrated significant interstitial fluid support. Friction testing showed the hydrogels had a cartilage-like frictional response, dominated by this interstitial fluid support. Silk hydrogels showed little wear, early signs of which were changes in surface morphology that did not correlate with the equilibrium friction coefficient. Consequently both wear and friction should be monitored when assessing the tribological performance of hydrogels.
Utilisation des équipements
Les méthodes documentées dans le chapitre de thèse antérieur portant sur la même étude décrivent des essais de compression non confinée et de relaxation des contraintes sur des hydrogels de fibroïne de soie/PEGDE avec un Mach-1 de Biomomentum, pour déterminer les modules compressifs et le soutien liquidien interstitiel. Les méthodes finales de l’article restent non vérifiées.
Matériaux (1)
